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07 Oct 2026

Listen, girls! Don’t waste your time protesting. Don’t protest against the government. Don’t protest against society. Nothing will change. Just understand the place society has assigned you—and quietly go back there. Because that is where society has always kept you. Religion does not matter. Caste does not matter. Country, century, civilisation—none of it matters. Across borders, scriptures and cultures, you have repeatedly been placed in the second row of humanity. We men may occasionally roar on your behalf. We may deliver magnificent speeches on women’s empowerment. We may celebrate Women’s Day, quote poetry, worship goddesses and proclaim that women are our equals. But when equality demands that we surrender privilege? Something inside us tears apart. We simply don’t say it aloud. Don’t believe me? LOOK AT THE RAMAYANA Kaikeyi asked for what she believed was her due—and history remembers her almost as a villain. Sita endured unimaginable suffering, yet because society whispered, “What will people say?”, it was she who had to prove her purity through fire. She went into exile. She raised her sons away from the palace. And finally, she disappeared into the earth. And no, my Sanatani sister—don’t bury the question beneath verses, divinity and theological explanations. Strip away the ornament. Look at the human truth. The trial by fire is always yours. Because you are a woman. When society puts you on trial, very few will step forward to save you. We men won’t. NOW OPEN THE MAHABHARATA A daughter-in-law of the royal household is dragged into a packed court and nearly stripped in public. The men powerful enough to stop it? They debate dharma. Others watch. Some enjoy the spectacle. Because somewhere beneath the grandeur of civilisation lies an ugly assumption: your body is available for negotiation. Five brothers may decide how your marriage will work. Who asks you? Nobody. If you fail to bear a son, the blame is yours. If you give birth to a daughter, eyes turn cold. The responsibility is yours. The shame is yours. The sacrifice is yours. You may be the only sister among a hundred brothers, yet nobody questions the man you are married to. You may give birth and lose your children. You may watch sons sacrificed to war. A child born of your womb may be abandoned, condemned or killed. Still, history will sing the names of the men. Your grief becomes a footnote. Your body becomes a battlefield. And you? You are expected to manage yourself. Quietly. AFTER ALL, WHAT DID MEN DO WRONG? You should have stayed indoors. Why does a woman need so many opinions anyway? If your dignity is violated, somehow you must carry the shame. Nobody will come. We won’t. You can be Aisha, married in childhood to a husband decades older, and you are expected to accept it without question. You must cover yourself from head to toe because, apparently, the sight of you excites men. And where, exactly, is the man’s responsibility in that? Cover yourself—we may still be aroused. And somehow that too becomes your fault. Why did you walk past me? Why were you there? Why were you visible? Why were you attractive? Why were you alive in public? Apparently I am a savage sexual animal with no control over myself Yet, astonishingly, you are the one expected to take precautions. SCRIPTURE AFTER SCRIPTURE. CIVILISATION AFTER CIVILISATION. You may become the Levite’s concubine and be thrown before a mob. You may become Dinah, violated by Shechem. You may become Tamar, preyed upon by her own half-brother. You may be violated, humiliated, traded, blamed. Centuries later you may board a bus and be groped. Molested. Assaulted. Raped. And society will still ask: What were you doing there? You will be told to remain silent. A woman may be assaulted, and then stories will somehow be written explaining why she caused it. A war may be fought over you like Helen of Troy, and poets will immortalise the warriors. But who will ask what Helen wanted? What she feared? What she lost? Women, apparently, are not supposed to have so many desires of their own. Your mother may turn into a pillar of salt for daring to look back. A king of gods may desire you—and somehow you bear the curse. A god may violate a woman in a temple—and mythology may still punish the woman. You may worship your own gods and be called a witch. You may fight for your country and be burned at the stake in the name of religion. Nobody comes. We don’t. SO TELL ME, GIRL—WHO EXACTLY ARE YOU FIGHTING? Your enemies are not always strangers hiding in dark alleys. Sometimes they sit at your dining table. Sometimes they share your surname. Sometimes they bless you. Sometimes they call themselves your protectors. The family breathes easier once they have “married you off.” Your husband hits you? Men lose their temper sometimes. He controls you? He loves you. He humiliates you? Marriage requires adjustment. An uncle. A cousin. A family friend. A father-in-law. Sometimes even a father. The very people entrusted with protecting girls may prey upon them. And whom will you tell? Your mother? Your aunt? Someone may whisper: Keep quiet. These things happen. Fight your boss? Your promotion disappears. Your job disappears. Fight society? Society throws mud at you. You must have dressed wrongly. Why do you have so many male friends? You smoke? You drink? You showed cleavage? Then obviously men were going to be tempted. As though a man's morality ends exactly where a woman's neckline begins. AND NOW YOU WANT TO PROTEST? Against whom? What exactly are you asking from this society? For much of your life, the only person who loves you without calculating your social value may be your child—until that child learns the rules of the same society. Your parents love you, certainly. Yet how many parents spend years worrying primarily about one question: When can we hand her over to a “good boy”? Because surely you cannot simply earn, live independently, build wealth, travel, choose, fail, rise again and design your own life. Can you? After all— you are a girl. How dare your dreams be that large? And many men who claim to love you? Sometimes what they love is your body. The midnight message— Still awake? becomes: What are you wearing? Then: Send me a picture. Then: Just once. I’ll delete it. Different words. Same entitlement. Pleasure without responsibility. Because somewhere inside the transaction lurks the old assumption: you are something to be consumed. AND WHEN CONSEQUENCES ARRIVE? You take the emergency pill. I won’t use a condom. Why should I? I have “control.” I’m an alpha male. If you become pregnant? You get the abortion. My responsibility? What responsibility? I am a man. I have been with many women. If you suffer an infection, trauma, stigma or consequence— what can I do? That is just who I am. But if you have many relationships? You are characterless. If I have many partners? I am a stud. A macho man. Do you want to complain? To whom? The law? The neighbourhood big brother? The political leader? The police station? The courtroom? Society? Too often, institutions themselves mirror the prejudices you are fighting. Go complain to other women. Even there, patriarchy has trained its own soldiers. Women themselves may call you shameless, immoral, corrupted. Even after reading every word of this, some women will still say: “Women are more to blame.” Girls should not fly so high. Girls should know their limits. And when disaster comes? Nobody comes. We men won’t. OUR MALE EGO IS A STRANGE THING Durga Puja is coming. We worship Durga with drums, lights and flowers. Then we go home and police the women in our families. Then comes Kali Puja. We worship Kali— then explain her tongue by saying she stepped upon her husband and was ashamed. Even the goddess, we insist, must remember the hierarchy. The husband is above. The woman below. The master. The obedient one. We worship the feminine divine in temples— and discipline living women inside homes. We put goddesses on pedestals precisely because real women standing beside us as equals make us uncomfortable. So we keep you indoors. We control you. We discipline you. We suppress you. And inside the very home we call your safest place, we claim rights over your body. SO PERHAPS YOU SHOULD STOP BEGGING Stop asking politely for what should already have been yours. Stop pleading for dignity. Stop requesting equality as though equality were charity. Become Durga. Become Kali. Become the fierce force that refuses to bow. And understand the metaphor correctly: the weapon you need most is not hatred—it is power. Economic power. Legal power. Political power. Physical confidence. Education. Solidarity. The ability to say NO without explaining yourself. The ability to leave. The ability to earn. The ability to expose. The ability to prosecute. The ability to protect another woman when the mob comes for her. Stop using persuasion where confrontation is necessary. Stop extending an empty palm where rights must be claimed. Do not beg for mercy. Do not build your freedom on somebody else’s kindness. Destroy the Raktabija of patriarchy—the monster that reproduces itself every time one form of oppression is defeated but its mindset survives elsewhere. Kill the entitlement. Kill the silence. Kill the shame forced upon victims. Kill the hypocrisy. Kill the idea that honour lives between a woman’s legs. Kill the belief that masculinity means domination. Kill the system that teaches boys ownership and girls obedience. Because otherwise neither women nor men will truly be free. Let the old order die. Let every rotten idea fall. And perhaps those who remain standing will finally learn how to live beside women— not above them. ...Read more

06 Oct 2026

A grandmother repairing solar lights, a farmer selling sunshine-powered irrigation, a woman driving an electric auto: India’s green transition is changing who gets to handle technology. With the right support, it can also change who earns, owns and leads. Summary: Across India, women are turning cleaner energy, resilient farming, recycling and electric mobility into livelihoods. Their progress is inspiring but uneven. The next breakthrough will depend on practical training, affordable finance, safe workplaces and genuine control over assets and income. In a village reached by Rajasthan’s Barefoot College programme, the person who fixes your solar light may be a grandmother. She may have spent much of her life being told that technical work belonged to somebody else. Now neighbours depend on her knowledge. That small change carries a large message. For generations, women managed the consequences of unreliable energy. They gathered firewood, cooked through smoke, stretched household budgets and arranged children’s homework around power cuts. Yet the people recognised as technicians, engineers and energy decision-makers were usually men. Across India, that familiar picture is beginning to change. Women are running clean-energy shops, selling irrigation services, assembling electric vehicles and organising urban recycling. Their work offers a hopeful answer to an urgent question: can the country build a cleaner economy while opening better opportunities for women? The answer is emerging in workshops, farm fields and neighbourhoods, one working business at a time. The Workshop Door Begins to Open The older industrial economy concentrated power in large factories, mines, refineries and distant construction sites. Entry often depended on formal qualifications, apprenticeships, mobility and money. Women faced restrictions at almost every step, including the assumption that machines were men’s territory. Many green technologies offer a different starting point. A solar dryer can serve a small food enterprise. An electric auto can become a family’s productive asset. A community pump can support neighbouring farms. These systems still need serious technical skills, but some can be installed, serviced and managed locally. The opportunity has grown as India’s clean-energy market has expanded. The National Solar Mission, launched in 2010, helped establish solar power as a national priority. PM Surya Ghar aims to bring rooftop solar to one crore households. PM-KUSUM supports solar energy in agriculture. Every functioning installation creates a need for someone who can explain, fit, finance or repair it. By 2025, non-fossil sources accounted for half of India’s installed electricity capacity. That describes the equipment available to generate power, rather than half of all electricity produced. Even with that distinction, the expansion marks a substantial market for skills. Women’s self-help groups provide another advantage: an existing network of trust. A neighbour who has bought from a women-run enterprise knows where to return when something fails. That relationship matters. Technology becomes useful when people can afford it, understand it and keep it working. Women who know local customers can build businesses around those needs, provided they receive proper training and payment. Grandmothers With a New Kind of Power At Barefoot College in Tilonia, Rajasthan, rural women with limited formal schooling have learned to assemble, install and maintain solar lighting systems. Many are older women whose experience had rarely been recognised as a foundation for technical learning. The teaching approach uses demonstrations, colour codes, repeated practice and learning from other women. It begins with what a learner can understand and do, rather than treating an unfamiliar textbook as the only doorway to competence. The women known as Solar Mamas have taken these skills into communities in India and across the world. Their example challenges a stubborn habit: confusing limited schooling with limited intelligence. A local technician also solves a practical problem. A broken light needs somebody nearby who can diagnose the fault and obtain the right component. Equipment distributed with great ceremony can otherwise sit unused for months. The lesson reaches beyond village lighting. Training institutions can combine accessible teaching with recognised qualifications and demanding safety standards. Women deserve routes into advanced electrical work and engineering as well as entry-level repair. A grandmother who learns to fix a circuit gives younger girls something powerful to imagine: a future in which their hands belong on the tools. Bihar’s Energy Shops Sell Confidence Too In Bihar, Uttam Urja Kendras have brought clean-energy products into women-run shops. The initiative grew through the JEEViKA self-help group network, with technical and institutional support from partners including TERI. A pilot involving 25 women in five districts in 2021–22 developed into a much larger network. By 2024, 372 women-run marts were reported across 15 districts, with sales of about 50,000 improved cookstoves, alongside solar lights, fans and chargers. The shopkeeper’s work extends well beyond handing over a box. She demonstrates the product, explains its use, answers doubts and helps customers seek repairs. In places where unfamiliar equipment can inspire understandable suspicion, this is essential business work. The role also changes how a woman is seen. She becomes the person neighbours approach for advice about energy, product quality and household spending. Technical confidence develops alongside commercial confidence. This ability comes from experience and learning. Women deserve the same access to tools, technical explanations and business networks that helps any entrepreneur succeed. Their community relationships become an advantage when institutions invest in their expertise. Maharashtra’s Swayam Shikshan Prayog has similarly supported women entrepreneurs selling cleaner cookstoves, solar lighting and other livelihood technologies. These enterprises need ordinary business support: reliable stock, working capital, transport, fair margins and dependable suppliers. Inspiration cannot pay an overdue invoice. A women-run energy shop succeeds when its owner can earn enough to keep serving customers and expand her business. Sunlight Becomes a Business A solar pump changes more than the fuel used for irrigation. In Bihar’s Solar Didi model, it can turn a woman into the owner of a service that other farmers need. Programme examples describe women operating five-kilowatt solar systems with pumps and underground pipes, supplying irrigation to around 20–40 neighbouring farmers. Customers pay for the service, creating an income stream from an asset managed locally. For a farmer, reliable irrigation can mean better control over planting and fewer worries about diesel costs. For the entrepreneur, it brings responsibility for scheduling, pricing, maintenance and accounts. Ownership makes the difference. If a pump is registered to a woman while somebody else controls the payments and decisions, the photograph tells only half the story. Finance must therefore reach women who farm without holding land titles. Shared ownership through collectives can help, alongside loans based on service income and group guarantees. Water needs protection too. Solar energy does not make groundwater unlimited. A successful irrigation business must combine reliable service with sensible water use, so today’s earnings do not undermine tomorrow’s crops. Larger energy projects also need women’s voices before land is acquired or community resources change. A woman who uses common grazing land may have no title deed, yet her livelihood still matters. Consultation and compensation should recognise that dependence when projects are planned. Papad Meets the Solar Panel Some of the most useful green innovations begin with a familiar product. In Begusarai, Bihar, Mamta Devi and a group of 11 JEEViKA women have used a solar-powered machine to make papad. The technology enters an existing livelihood, helping women improve production rather than asking them to invent an entirely unfamiliar business. SELCO Foundation’s livelihood work follows a related principle: identify the difficulty first, then choose the energy solution. Women running tailoring units, flour mills or food businesses may need reliable power, efficient equipment or better cooling more urgently than they need a standard solar kit. A machine that reduces exhausting manual work can free time. A cold-storage system can reduce spoilage. Reliable electricity can help a business complete an order when customers expect it. But production is only part of the journey. Women also need packaging, food-safety knowledge, bookkeeping and buyers who pay on time. An efficient machine cannot rescue a business with no market. The same thinking can guide greener textiles and personal-care enterprises. Claims about being “natural” or “eco-friendly” need scrutiny. The useful questions concern energy use, ingredients, packaging, waste and the working conditions of the women making the product. Smoke Should Never Be the Price of Dinner For millions of women, the energy transition begins beside the cooking pot. Smoke, fuel collection and long hours over a stove affect health, comfort and the time available for paid work or rest. Cleaner cooking therefore deserves a central place in any discussion of women and technology. Pradhan Mantri Ujjwala Yojana, launched in 2016, placed LPG connections in the names of adult women in poor households. By early 2025, connections under the scheme had crossed ten crore. That expansion matters. Sustained use, however, depends on whether families can afford refills and obtain them reliably. LPG is also a fossil fuel, even though it can provide much cleaner cooking than a traditional smoky chulha. Biogas, efficient stoves and electric cooking can provide other options where local conditions support them. Each requires attention to cost, maintenance, safety and actual cooking habits. A stove must work for the meals people prepare every day. Women should help test these systems and be paid to install, explain and repair them. Their experience is valuable product knowledge. Listening to the cook can reveal why an apparently efficient device is awkward to clean, too slow or unsuitable for a household’s utensils. Adoption begins with that everyday reality. Millets and Drones Share the Same Field India’s green future includes both inherited knowledge and new equipment. In Telangana, women’s sanghams associated with the Deccan Development Society have worked with millet cultivation, community seed banks and farming suited to dry conditions. Their contribution received international recognition through the 2019 Equator Prize. Keeping a useful seed variety alive is practical climate work. So is understanding soil, conserving moisture and growing a mix of crops that reduces dependence on a single harvest. The Krishi Sakhi initiative recognises women as trained community resource persons who can spread knowledge of agro-ecological farming, soil management and related practices. Such roles become meaningful livelihoods when advice is valued and paid for. Namo Drone Didi adds another possibility. Designed to support 15,000 women’s self-help groups with agricultural drones, it opens a route into equipment rental and technical services. A drone brings responsibilities as well as excitement: safe operation, maintenance, customer scheduling and careful application of farm inputs. Its environmental benefit depends on how it is used. A flying machine alone cannot make farming sustainable. Women should be able to choose the tools their communities need. A seed bank, a soil test and a drone can all belong in the same agricultural future when each solves a real problem. A Woman at the Wheel Changes the View An electric auto driven by a woman challenges two assumptions at once: who belongs in transport and what powers the journey. In Varanasi, SMV Green Solutions’ Vahini programme has supported women becoming electric-rickshaw owner-drivers through finance, training and operational help. In Bengaluru, a mobility pilot helped Roopa move from homemaking into e-rickshaw driving and mentoring other women. These are demanding jobs. Drivers must understand routes, customers, charging, repayments and vehicle upkeep. They also need protection from harassment and access to safe rest spaces. Electric mobility creates opportunities inside factories too. Ola Electric’s Futurefactory in Tamil Nadu has drawn attention for its women manufacturing workforce, demonstrating women’s capacity for precision assembly after suitable training. The next question concerns advancement. Can an assembler become a supervisor, quality specialist or engineer? Can a driver own another vehicle, train others or build a fleet? Electric vehicles depend on batteries, electronics, software and diagnostics, creating several routes into technical careers. Women need access to those skills and the promotion opportunities that follow. The batteries will eventually need safe collection and recycling. Building women’s expertise in these services can create further careers, provided training addresses electrical hazards and material handling. Cleaner transport requires responsible systems throughout a vehicle’s working life. Policies supporting electric mobility can help by connecting financial assistance with women’s ownership, paid apprenticeships and safe charging infrastructure. A loan and a driving lesson are useful beginnings. A workable daily livelihood requires much more, including manageable repayments and customers who can find the service. The City Runs on Work It Barely Sees Long before recycling became fashionable, women waste pickers were recovering materials that cities threw away. Their work saved resources while exposing them to stigma, injury and insecure earnings. Pune’s SWaCH cooperative has shown how organisation can change that relationship. Emerging from waste workers’ collective action and formalised in partnership with the municipal corporation in 2008, it gives waste pickers an ownership stake in the service they provide. Thousands of workers, many of them women, collect segregated waste and connect recyclable materials to further use. Their knowledge of neighbourhoods and materials keeps the system functioning. Kerala’s Haritha Karma Sena offers another example of women’s collectives becoming part of public environmental services through waste collection and recovery networks. The technical work includes sorting, route planning, record keeping and coordination with households and recyclers. It deserves appropriate equipment, dependable payment and respect. As recycling becomes more mechanised and profitable, cities should ensure that experienced workers share in the gains. Contracts, insurance, protective equipment and opportunities to manage collection centres or processing units can help. A cleaner city should also improve the lives of the people whose work makes it clean. The Roof Is Part of the Climate Fight Climate technology can be as ordinary as a roof that absorbs less heat. In Ahmedabad and other cities, Mahila Housing Trust has worked with women in informal settlements on cool roofs, better homes and neighbourhood climate resilience. Women help identify heat risks, understand possible improvements and bring community concerns into public decisions. Extreme heat makes these interventions urgent. A room that becomes unbearably hot affects sleep, study, cooking and home-based work. Cooling that depends entirely on expensive electricity can be beyond a family’s budget. Reflective roofs, ventilation and efficient appliances can help where they are appropriately chosen and maintained. Women’s knowledge of when rooms become hottest and how households use them improves the design. Their participation should also shape heat warnings, drinking-water arrangements and public spaces. A woman managing daily life through a heatwave has information that a distant planning office needs. The opportunity extends to schools: girls can learn to measure temperatures, understand electricity bills and investigate waste. Practical learning can make climate science familiar while introducing careers in energy audits, building design and environmental services. A Startup Can Begin in the Dustbin Green entrepreneurship can begin with a material others have stopped valuing. Sonal Shukla, co-founder of eConscious, has helped turn plastic waste into furniture. The venture connects collection and recycling with design and manufacturing, showing how a waste problem can become a business opportunity. Other initiatives widen the field. Kanpur’s flower-waste enterprises have created products such as incense while providing work for women. Eco Femme, established in India in 2010, connects reusable menstrual products with livelihoods and menstrual-health education. These examples bring sustainability into everyday consumption. They also show why women should have opportunities to develop products and lead enterprises, alongside production jobs. The financial system needs to recognise that ambition. A founder may have orders, customers and sound accounts while lacking property to offer as collateral. Finance based on business income, purchase orders or suitable guarantees can help her expand. Larger companies can contribute by buying from women-led suppliers and paying promptly. Procurement can provide the stable demand that a small enterprise needs to invest in better equipment and employ more people. The Numbers Interrupt the Applause These stories deserve attention. They should also make us ask how widely the opportunities extend. A 2026 industry survey put women at about 11 per cent of the workforce across India’s surveyed solar and wind deployment and manufacturing businesses. Rooftop solar performed somewhat better, at about 15 per cent. Around 62 per cent of the women employed were in non-technical roles such as administration, accounting and human resources. These findings describe an opening that remains uneven. Women’s participation in visible projects has not yet translated into equal access to technical work or leadership. The obstacles are familiar. Training may require travel that a woman cannot safely undertake. A factory may offer no childcare or dependable transport. A bank may demand a land title she does not hold. Family members may claim the earnings from a business registered in her name. Women facing caste discrimination, poverty or disability can encounter additional barriers. Programmes need to respond to their circumstances rather than assuming that every applicant starts with the same resources. Technology will not solve these problems by itself. Their persistence gives employers, governments and communities specific work to do. A Certificate Needs a Paycheque South Asia offers a warning. A follow-up of an earlier women’s renewable-energy training programme linked to Grameen Shakti in Bangladesh found that only about three per cent of those trained had been employed by the organisation. Training had outpaced the routes into work. India can learn from that experience. Every publicly supported course should connect to paid apprenticeships, jobs, service contracts or a credible enterprise opportunity. Success should be measured after women leave the classroom. Practical courses need local-language teaching, tools, troubleshooting and recognised qualifications. Women should be able to progress into battery diagnostics, solar design, electrical safety, energy audits and advanced manufacturing. Support must extend beyond the syllabus. Childcare, safe transport and predictable schedules help women remain in training and employment. At home, sharing care and domestic work can make a technical career possible. Mentors can help graduates negotiate their first contract, resolve a difficult repair and seek promotion. Continued support makes early setbacks easier to overcome while women establish their careers. Public schemes already create markets. Rooftop programmes can support women-led maintenance firms. Agricultural schemes can finance collectively owned equipment. Municipalities can buy services from women’s cooperatives. CSR funding can help pay for tools and apprenticeships, with employment outcomes tracked beyond the launch event. The future also includes green hydrogen, battery research and sophisticated energy systems. Girls entering school today should see routes into those laboratories and control rooms. Women building businesses now should have the finance and contracts to grow with the market. A grandmother repairing solar lights has already shown what accessible learning can achieve. The next task is to make that opportunity ordinary: a woman with the skills to do the work, the resources to own the equipment and the authority to decide where her enterprise goes next on her terms. Prof Ujjwal K Chowdhury Educator & Author Vice President, Global Media Education Council Hashtags: #GreenTechnology #WomenInGreenTech #GenderJustice #WomenEntrepreneurs #CleanEnergy #SustainableIndia #GreenJobs ...Read more

07 Oct 2026

The urgent case for governing hills and rivers together in the Northeast of India with an integrated approach. The Northeast's floods begin far beyond its embankments. Roads, mines, damaged slopes, shrinking ice and crowded river valleys help determine what reaches the plains. The enormous Siang proposal now demands a harder question: will it reduce the region's combined risks, or redistribute them? Summary Northeast India needs to manage mountains, rivers and settlements as one connected system. The 2026 flood debate, new developments around the proposed Siang project and Nepal's recent catastrophe make that task urgent. Stronger embankments and reservoirs can protect particular places, but their benefits depend on location, maintenance, operating rules and the hazards they can actually withstand. Governments must also restore flood storage, regulate extraction and hill cutting, protect Indigenous rights, and make warnings trigger action across borders. The practical agenda begins before the 2027 monsoon and extends through 2031, with public measures of safety rather than construction expenditure alone. The next flood may begin above the clouds The next devastating flood in Assam may begin on a hillside where a road contractor leaves loose debris, in a rain-soaked catchment in Nagaland, or in a high Himalayan valley where rock and ice suddenly give way. By the time the danger appears beside a downstream home, decisions taken years earlier and hundreds of kilometres away may already have helped determine its force. For the family trying to save its cattle, documents and children, these distinctions offer little comfort. Yet they are essential to preventing the next loss. A breached embankment is the visible failure. The chain that brought water and sediment to it is the larger story. The three recent Counterview articles identify complementary failures: Assam's excessive dependence on embankments, inconsistent treatment of Himalayan fragility, and flood governance divided by state boundaries. Together, they point towards a regional approach that follows the river upstream into the mountains and downstream into livelihoods. [1–3] That approach now faces a consequential test on the Siang in Arunachal Pradesh. India is considering an immense multipurpose storage project partly as protection against upstream risks from China. The strategic concern deserves serious examination. So does the possibility that protecting against one danger could introduce another through excavation, reservoir slopes, displacement or operating decisions. The Northeast needs development that remains useful when conditions become dangerous. That requires treating the stability of a mountain and the safety of a floodplain as connected public responsibilities. Floodwater carries a piece of the mountain An ordinary-looking brown river contains evidence of what has happened uphill. Its load can include naturally eroded soil and rock, material loosened by construction, and sediment remobilised from earlier floods. Under exceptional conditions, that load becomes boulders, uprooted trees and a rapidly moving debris flow. Heavy rain can saturate a slope and increase pressure within its soil or fractured rock. Failure may dump material into a channel. If the material blocks the river, water accumulates behind a temporary natural dam. When that blockage breaks, the flood can arrive after the rain has weakened or stopped. Watching today's rainfall alone will miss part of tomorrow's danger. Downstream, deposited sediment can reduce the space available to carry water in particular reaches, redirect channels, or obstruct tributary outlets. Elsewhere, intense scouring deepens the bed and undermines bridges or banks. The Brahmaputra does not respond uniformly along its length. An explanation that says every embankment invariably raises every riverbed is too simple for this changing system. [5] Nor can every upstream landslide be blamed on human activity. Natural geology, earthquakes, rainfall and river erosion are powerful forces. The policy question is where human interventions add avoidable instability or exposure, and whether those additions have been measured. This creates a clear connection between two administrative files usually handled separately. Slope management determines part of what enters a river. River management determines where that material and water go. A hillside's construction waste can become a downstream village's excavation bill, lost harvest or shattered bridge. Eight states need more than one flood formula The Northeast is not a single Himalayan valley. A programme designed around glaciers would miss much of its danger, while an Assam embankment programme would miss the instability of its uplands. Arunachal Pradesh connects high mountain hazards and steep catchments to the Siang, Subansiri, Dibang, Lohit and other rivers. Its priorities include slope stability, sediment, hydropower operations and the survival of roads that serve isolated settlements. Assam receives these flows while facing its own rainfall, drainage congestion, erosion and shifting channels. The Brahmaputra and Barak valleys need distinct plans within a coordinated regional system. Nagaland's connections to Upper Assam through the Dikhow, Disang and Dhansiri illustrate why small tributaries deserve attention equal to the main river. The July 2026 accounts describe rainfall in the Naga Hills producing damaging downstream surges. That is a reason for joint investigation and warnings, rather than a licence to assign collective blame to another state's people. [3,5] Meghalaya's steep catchments, expanding settlements and extraction pressures require careful management of runoff, drains and disturbed slopes. Mizoram and Nagaland need road designs that protect hillsides and keep settlements accessible. Manipur requires separate attention to the Barak headwaters and the drainage of the Imphal valley. Loktak's ecological health and the functioning of connected waterways belong in that valley's planning. Tripura's Gomati, Manu, Khowai and Feni systems require basin-specific rainfall warnings, reservoir coordination where relevant, and links with Bangladesh. Sikkim's Teesta demonstrates the reach of glacier-related hazards beyond the mountains, through West Bengal and into Bangladesh. These geographical connections are practical units for planning; they cannot be replaced by a general declaration that the entire Northeast has the same risk. [19,20] Within each state, the distinction must become still finer. A slow, shallow inundation of agricultural land, an eroding riverbank and a boulder-rich mountain surge call for different decisions. A stilt house may be appropriate for the first; secure relocation may be essential for the other two. Climate is changing the design conditions The monsoon's apparent contradiction matters: a seasonal rainfall deficit can coexist with destructive local floods. A monthly average does not describe how rapidly rain fell, how saturated the ground was, or which upstream catchment received it. A relatively dry fortnight followed by an intense downpour can produce both agricultural stress and flood damage. [5] The IPCC assesses growing risks associated with heavy precipitation, glacier retreat and changing mountain stability. That is a reason to update design assumptions. It does not establish climate change as the exclusive cause of each landslide, or prove that every Northeast district will experience the same trend. [6] ISRO's 2024 satellite assessment offers a similarly important distinction. Of 2,431 glacial lakes larger than ten hectares identified in 2016–17 across the studied Himalayan catchments, 676 had expanded since 1984; 601 of those expanding lakes had more than doubled. Expansion warrants assessment, but is not an announcement that all these lakes will burst. Location, dam material, surrounding slopes and downstream exposure matter. [8] The lesson for Arunachal and Sikkim is to watch the surrounding mountain as well as the lake. For the non-glaciated hills farther south, the relevant questions concern intense rainfall, weathered slopes, drainage and land use. Both tasks need observations that are updated as conditions change. Embankments need an escape route for water Embankments can protect settlements, crops and essential infrastructure. Their continued use should depend on a clear answer to three questions: what are they protecting, against what event, and what happens when their intended level of protection is exceeded? A bank that keeps river water out may also trap local rainfall inside. A road embankment can interrupt drainage across a floodplain. Protecting one reach can change water levels or erosion elsewhere. These effects require connected modelling and maintained outlets, not an assumption that a taller wall automatically makes everyone safer. [1,5] The alternative is a carefully chosen combination. Retain and maintain essential defences. Where land and compensation arrangements permit, move selected embankments back, reconnect flood-storage areas and allow rivers more space. Protect beels and other wetlands together with the channels that feed and drain them. Assess proposed interventions for their effects on neighbouring villages before construction. Seasonal flooding also supports wetland ecology. Kaziranga illustrates the need to distinguish beneficial inundation from dangerous depths, prolonged submergence and blocked wildlife movement. Safe passage towards higher ground and traffic management belong alongside human evacuation planning. [1] Nature-based measures have limits. Wetlands can fill; forests cannot absorb an unlimited deluge. Their value lies in reducing particular risks and preserving ecological functions, combined with appropriate engineering and evacuation. Restoring a beel while blocking its outlet with a new development would defeat the investment. The quarry bill arrives downstream The misuse of natural resources often begins with a transaction that looks locally profitable. A hillside supplies aggregate. A river supplies sand. A forest becomes a construction site. The resulting public cost may emerge much later, in another district's flood losses. Road cuts can remove support from slopes, while badly placed drains concentrate runoff onto unstable ground. Spoil tipped into gullies adds material ready to be carried away. Unscientific mining can disturb slopes and waterways. Excessive riverbed extraction can alter channel shape and undermine banks or bridge foundations. These mechanisms require site-specific investigation; they should not become an accusation that any one activity explains an entire flood. [2,4,5] Nor should conservation become a convenient way to blame Indigenous farmers while ignoring large contractors and commercial extraction. Customary farming systems vary. Their effects depend on practices, fallow periods, slope conditions and changing economic pressures. Regulation must examine actual disturbance and offer viable livelihoods, rather than treat community identity as an environmental offence. For governments, the immediate requirement is traceability. Every major excavation should have an approved spoil destination, drainage design, restoration obligation and independently checked record of where material went. Mining permissions should reflect channel change and cumulative extraction, with inspections after major floods. Contract payments should depend on these obligations being met. Dredging needs the same discipline. Removing a shoal may help a specific obstruction, but a sediment-rich river can refill an excavated reach. Indiscriminate dredging can also shift erosion. Decisions must follow a sediment budget showing where material originates, accumulates and travels, rather than a promise to dig the flood away. Siang has reached a consequential decision point The Siang Upper Multipurpose Project, often called SUMP, remains a proposal whose design is being investigated. NHPC's 2023–24 annual report listed three alternatives: Uggeng at 11,600 MW, and Dite Dime and Parong at 11,200 MW. Those figures represent potential electricity-generating capacity, not an independently demonstrated flood-protection benefit. [9] The Arunachal Cabinet approved a high-level committee to oversee preliminary feasibility survey activities in September 2026. On 29 September, Chief Minister Pema Khandu said advancement would depend on technical feasibility, with further social and environmental assessments and a detailed project report if the proposal progressed. The investigations would address construction in Seismic Zone V and protection against possible upstream releases. He described the intended study period as November through January. Earlier alternative studies therefore should not be confused with a final, approved design. [10,11] The attraction is understandable. A large reservoir could provide electricity, revenue and some ability to regulate incoming water. The government also presents the scheme as a strategic response to upstream developments in China. But Arunachal's potential benefits and Assam's potential protection must be examined separately. An electricity project can earn revenue without protecting every downstream community. A structure on the Siang cannot intercept a flood generated in Nagaland's tributaries, the Barak basin or Guwahati's drains. Its geographical limits should appear prominently in every public claim. Flood protection depends on empty space and operating rules A reservoir moderates a flood when it can temporarily hold some incoming water and release it more slowly. Its effectiveness depends on available storage at the moment of arrival, the duration and size of the flood, outlet capacity and conditions downstream. Installed megawatts tell us none of those things. This creates an operating trade-off. Storing water supports electricity generation and dry-season supply; retaining empty space supports flood absorption. Forecasts can help reconcile the two, but cannot remove uncertainty. A seasonally prescribed rule curve, which sets intended reservoir levels over the year, must therefore be backed by enforceable responsibilities and decisions tested against difficult conditions. [22] For Siang, a public appraisal should answer four practical questions. How much usable flood storage would remain during different parts of the monsoon? Which upstream events could the project moderate, and which would exceed its capacity? What downstream consequences would follow from planned releases or emergency operations? How would those conclusions change as sediment accumulates and rainfall patterns shift? The tests should include an upstream landslide-dam outburst arriving when the reservoir is already high, intense rain in tributaries below the dam, blocked gates, power loss and disrupted communications. Scenarios should state their probabilities where these can be estimated and identify the uncertainty where they cannot. Protection against a flood wave is also different from compensation for reduced upstream flows. A reservoir can redistribute water already received; it cannot manufacture a continuing supply. Its contribution to dry-season security must be calculated against plausible inflows, demand and losses. Political assurances should not substitute for those calculations. Sediment will decide how long protection lasts A dam holds back a proportion of the sediment arriving with the river. Deposits occupy space intended for water, so a flood-storage assessment must show how useful capacity changes over decades. It must also examine damage to equipment and obstruction of outlets during exceptional sediment pulses. The Central Water Commission already has a handbook for assessing and managing this problem. [29] Below the reservoir, altered water and sediment flows can change erosion, deposition and river habitat. Tributaries may replenish some sediment farther downstream, so the response will differ by reach. It would be misleading to promise uniform benefit from trapping silt, or predict uniform damage throughout Assam. Siang needs its own connected measurements and modelling. [30] The timing of water matters too. Rapid release changes for power generation can affect people using the channel and the ecology of the river. An operating plan should examine seasonal flows, acceptable rates of change, and warnings for downstream users, alongside any minimum-flow requirement. Flood protection must therefore be assessed across the project's lifetime. The appraisal should specify monitoring, sediment-management options and the costs of keeping them effective. A reservoir cannot be advertised with the storage capacity of its opening year while later generations inherit the consequences of accumulated material. A strong dam can still sit inside an unsafe valley The safety of the dam wall is only one part of the assessment. Construction brings access roads, excavation, tunnels, quarries, spoil sites, worker camps and transmission corridors. Each creates a footprint that can affect slopes, drainage and exposure. [2,4] A future reservoir would also require close assessment of its surrounding slopes. Changing water levels can change groundwater pressure and the support provided to saturated material. A large slide into water may generate a displacement wave. Seismic loading, reservoir-related seismicity where relevant, and the stability of abutments and rim slopes need site-specific investigation. None of these possibilities proves that the proposed Siang project will fail; each identifies a question that its safety case must answer. [27] The cumulative test should consider nearby infrastructure and the construction period itself. A completed plant may have monitored slopes while temporary works, camps and access roads remain exposed. A disaster can arrive before commissioning. Arunachal should require baseline measurements before major disturbance, monitoring through excavation and filling, published intervention thresholds, and independent authority to stop unsafe work. Developers should fund these responsibilities over the project's life, including emergency planning and eventual closure. This is also an energy-security issue. Placing generation, access and transmission in a shared hazard corridor can create simultaneous failures. Alternatives should include lower-impact project configurations, energy efficiency, distributed supply for isolated settlements and broader grid options. Smaller hydropower deserves assessment too; a small project in a dangerous channel can still be unsafe. Sikkim and Nepal reveal how disasters grow Sikkim has already experienced a mountain-to-river catastrophe. A 2025 Science study reconstructed the October 2023 South Lhonak event: collapsing frozen moraine entered the lake, produced a large impact wave and released roughly 50 million cubic metres of water. The flood then eroded about 270 million cubic metres of sediment along its path and overwhelmed infrastructure, including hydropower installations. Those estimates describe successive processes, not a simple water-to-mud mixing ratio. [15] Its lesson for Siang is the growth of a hazard as it moves. Designs need to examine debris, erosion and connected failures, rather than assume that the initiating water volume remains the whole event downstream. Nepal's 26 August 2026 Rasuwa-Gyirong disaster adds another warning. ICIMOD's evolving assessment describes an ice-rock avalanche entering the Lhende corridor and transforming into a debris flow. The precise timing and possible temporary river blockage remain under scientific examination. It was not simply a conventional outburst from a known glacial lake. Direct attribution of this particular event to warming also remains unresolved. [16] Nepal's experience also shows how concentrated roads, power infrastructure, settlements and local institutions can turn one valley's destruction into a wider systems crisis. Lessons on safer relocation, redundant communications and inclusion of landless families are directly relevant to the Northeast. A village needs functioning government and access after a flood, as well as a surviving house. [4] On 25 September, ICIMOD published the Kathmandu 10 Action Points, calling for stronger monitoring, faster cross-border information, better response capacity and people-centred recovery. Northeast governments can turn that recent regional agenda into district operations before another monsoon. [17] China raises a real concern that needs real evidence China announced the start of construction of its lower Yarlung Zangbo hydropower project on 19 July 2025. The official account described five cascade stations and investment of around 1.2 trillion yuan. The river subsequently enters Arunachal as the Siang and contributes to the Brahmaputra system. [12] On 23 July, China's foreign ministry stated that the project would not adversely affect downstream areas and would support disaster prevention. That is Beijing's stated position, not an independently verified finding about every future operating condition. Indian strategic concerns likewise need to be separated from demonstrated project-specific consequences. [13] Upstream instability is already a scientific concern. Research on the Sedongpu catchment documents glacier-related cascades that blocked the Yarlung Tsangpo in 2018. The danger from natural mountain failure therefore exists alongside questions about dams. A comprehensive warning system has to observe both. [14] India should seek agreed procedures for reservoir filling, planned and emergency releases, abnormal river blockage and rapid downstream alerts. China, India and Bangladesh need arrangements that remain functional during political tension. Bhutan is equally important to coordination in the river systems it shares with Assam. If India demands transparent assessment upstream, it should offer comparable scrutiny to communities downstream of its own projects. Applying the same safety principles to China, Nepal and Arunachal would strengthen India's case. Competitive dam building without shared information could leave the basin with more infrastructure and continuing uncertainty. Consent belongs inside the safety assessment For Adi communities, the Siang valley is a place of land, food, kinship, cultural memory and customary authority. Tadu Rimi's March 2026 research describes these connections and the role of traditional councils in opposition to the project. The implications extend beyond compensation for a house or field. [18] Some local people see opportunity in development; others fear profound loss. A credible process must hear both without treating one group as the authentic community and the other as an inconvenience. Consultation should begin early enough to affect the choice of site, scale and alternatives. Villagers need accessible maps of likely submergence and hazards, independent advice, records of questions and answers, and clear distinctions between agreement to investigations and agreement to construction. Customary institutions, women, young people, tenants and households without conventional title documents need meaningful participation. Applicable land, forest, environmental and rehabilitation obligations remain part of the decision. This also improves the evidence. Residents can identify flood marks, past slope movement, springs, seasonal channels and routes that outsiders overlook. That knowledge should be tested alongside geological investigation and modelling. Assam's downstream residents need a voice too. Benefits and risks cross the state boundary. A project appraisal that listens near the proposed reservoir while overlooking those exposed to releases or changed sediment downstream would leave an important part of its social assessment unfinished. Existing policy needs consequences on the ground India already has institutions and tools for this work. The Brahmaputra Board's statutory remit includes basin planning for floods, erosion and drainage. In June 2026, it reviewed work on 15 sub-basins and sediment studies in the Siang and Dibang being undertaken by IIT Guwahati. The starting point is to make those studies influence approvals, budgets and operating decisions. [19,20] Four limitations need attention. First, assessments can remain fragmented between project sites, sectors and states. Cumulative analysis must test interacting hazards and infrastructure, with a clear requirement to change or refuse a proposal when risks are unacceptable. Second, mapped danger does not necessarily change land-use permission. National floodplain-zoning technical guidance was circulated in August 2025. States must translate such guidance into notified boundaries, development controls, appeal procedures and funded arrangements for affected households. A map without enforceable decisions offers little protection. [21] Third, ecological protection and flood planning can leave gaps between categories. The Wetlands Rules' definition excludes river channels; wetland notification alone therefore cannot protect every route that carries or stores floodwater. State planning must also safeguard connected drains, seasonal waterways and flood corridors through appropriate legal instruments. [26] Fourth, responsibility for long-term maintenance and emergency decisions needs to be unambiguous. The Dam Safety Act framework and subsequent directions address rule curves, information exchange and coordinated cascade operations. Governments must verify that these obligations result in working communication and drills, rather than assume formal compliance guarantees downstream safety. [22] The same accountability should apply to roads, embankments and spoil disposal. Ministries promoting projects need independent scrutiny of safety conclusions, and affected people need an accessible way to challenge failures. A warning matters when someone can act on it The Northeast has a base to build upon. NESAC's Flood Early Warning System combines rainfall prediction, hydrological modelling and geospatial information to issue actionable Assam advisories. Its historical lead times cannot guarantee warning for every sudden mountain event. [23] Radar satellite imagery can map inundation through cloud, while river gauges, rainfall instruments and weather forecasts help estimate what may arrive next. These are different functions. A flood map does not by itself predict the next collapse. ISRO's Landslide Atlas provides a valuable historical inventory, but new disturbances and evolving slopes require continuing observation. [7] Technology should be joined to local decisions. A dangerous threshold needs an identified official authorised to issue evacuation instructions, a tested message in locally understood languages, and a way to reach people without phones or mobile coverage. Sirens, radio, community volunteers and backup communications need regular exercises. For a steep headwater village, there may be only minutes to move. Farther downstream, useful warning may be much longer. Plans must show realistic travel times, accessible shelters, transport for people who cannot evacuate unaided, and safe arrangements for livestock. Hospitals, schools and worker camps need their own procedures. Every major event should then be reviewed publicly: when danger was detected, when the warning was sent, who received it, and what prevented action. Forecast skill and successful evacuation are related achievements, but they should be measured separately. New finance must buy a reduction in risk Assam's investment programmes already reach beyond conventional flood walls. The World Bank's $108 million project approved in 2023 includes forecasting, shelters, emergency capacity and green infrastructure. In February 2026, ADB approved $182 million in additional financing alongside its existing $200 million programme, with wetland restoration and livelihood measures among the planned activities. [24,25] Loan approval is an opportunity, not proof that protection has been delivered. Public reporting should distinguish approved finance, disbursement, completed works and outcomes. It should show whether warning reaches improved, repeated displacement declined and restored drainage functioned during heavy rain. Rescue and compensation remain essential. But annual maintenance, competent technical staff, local preparedness and the correction of unsafe land use need predictable funding too. A government should not have to wait for a disaster declaration to repair a known dangerous outlet. Dedicated State and National Disaster Mitigation Funds already provide a route for eligible prevention investments. Northeast finance departments should connect these opportunities to district risk priorities, while securing ordinary budget support for staff, instrument upkeep and maintenance. Gauges installed without funding for their operation can produce an expensive silence. [28] There is also a fairer way to connect upstream and downstream interests. Assam and neighbouring hill states could negotiate co-financing for verified catchment restoration, safe spoil management and community monitoring. Such agreements should pay for measurable stewardship and recognise local land rights. They should not promise that a restored forest can prevent every extreme flood. Sharing the cost of prevention would give cooperation a practical economic basis, rather than leaving one state to defend its development and another to count the losses. The short run begins before the 2027 monsoon The following measures are a proposed agenda for Northeast governments over the next twelve months, beginning in October 2026. They require cooperation with Union agencies and dam operators where powers are shared. In the first ninety days, identify the places where delay is dangerous. State disaster authorities should commission joint district inspections of critical embankments, blocked flood outlets, unstable road cuts, spoil sites, vulnerable bridges and exposed public facilities. Publish each finding with an owner, deadline and interim safety measure. Local observations should help select sites, while qualified engineers verify the risks. Put basin agreements ahead of the next emergency. Assam and Nagaland should begin with the Dikhow, Disang and Dhansiri catchments; Assam and Arunachal should establish comparable protocols for their shared tributaries. Other states should organise their own connected basins. Agree how gauges, rainfall alerts, reservoir information and temporary channel blockages reach downstream control rooms, and test the communication chain before the monsoon. Keep irreversible Siang decisions behind evidence. Arunachal and the Union government should publish the scope, alternatives and review process for the current feasibility work. Establish an independent multidisciplinary review, fund community access to advice, and require public responses to major objections. Survey participation must not be represented as construction consent. Decisions about construction should follow the necessary assessments and clearances. Protect drainage while long-term zoning is prepared. Planning, revenue and municipal authorities should prevent new obstruction of mapped high-risk waterways and investigate unsafe excavation. Interim restrictions need lawful notice, transparent review and support for affected occupants. Repair drainage, stabilise priority slopes and secure spoil; avoid hurried works that transfer risk to another location. Make evacuation and relief usable for every household. Before the 2027 rains, districts should run exercises with schools, health facilities, work camps and riverine communities. Pre-position safe water, sanitation, medicines and boats. Include disability access, menstrual hygiene, child protection, replacement documents, livestock and rapid livelihood assistance. Relocation support must recognise tenants and people whose land has disappeared through erosion. The first-year public dashboard should track repairs completed, gauges functioning, warnings received in drills, evacuation times and grievance resolution. These measures make readiness visible before a flood supplies the test. The middle run must change where and how development happens Over one to five years, broadly 2027–2031, governments should use those first measures to change the underlying pattern of exposure. Make flood and slope zoning enforceable and affordable. Each state should connect updated hazard maps to building permission, public infrastructure location and land records. Secure replacement land, transitional rent and livelihood support must accompany movement from places where safe habitation cannot reasonably be maintained. Relocate functioning communities with schools, health care and cultural continuity; do not recreate exposure on the nearest cheap terrace. Require development to pass a basin test. Arunachal and Sikkim should assess hydropower and associated construction alongside roads, transmission and settlements in each connected valley. Nagaland, Meghalaya and Mizoram should prioritise cumulative slope and extraction pressures. Assam should assess downstream flow, erosion and drainage consequences. Manipur and Tripura need plans adapted to their valley and cross-border river systems. Decision rules must allow redesign, relocation or refusal, with reasons made public. Restore the places that hold and safely convey water. Assam's beels and urban drainage networks deserve sustained programmes. Manipur should integrate valley drainage with Loktak management; Tripura should protect storage and conveyance in its catchments. Test selected embankment setbacks and flood-storage restoration with landholders, compensate agreed losses, and monitor performance. Upland states should restore native vegetation and springsheds where suitable, with paid community stewardship. Build a permanent regional technical capability. Strengthen the Brahmaputra Board and state agencies with geologists, hydrologists, ecologists and trained field staff. Support open data and independent analysis through institutions such as IIT Guwahati, universities and NESAC. The regional compact should have funded basin teams and annual public reviews. Avoid creating another committee whose responsibilities end at recommending that another committee act. Price lifetime risk and negotiate across borders. Project appraisals should include maintenance, sediment, rehabilitation, emergency arrangements and plausible disruption. Contractor obligations and developer reserves should cover environmental restoration and safety over time. States and the Union should pursue practical data and emergency agreements with China, Bhutan and Bangladesh, using Nepal's recent experience to strengthen regional cooperation. Share decision-ready alerts that explain the danger and required action. By 2031, progress should be assessed through reduced repeated displacement, safer infrastructure, effective warning coverage and restored water storage, accounting for differences in rainfall between years. Construction totals alone cannot show whether risk has declined. For a child beside an Assam river or an Arunachal slope, success is concrete: a home in a safer place, a school that remains reachable, and a warning the family can use. The Siang decision should be judged within that wider promise. The Northeast's mountains and floodplains need a development policy that protects the people connected by them. Sources and further reading Sources accessed or checked on 4 October 2026. Numbers in the text identify supporting research, official statements or supplied articles. Project proposals and government assurances are distinguished from demonstrated outcomes; recommendations are the author's policy proposals. [1] Yadappanavar, A. V. (4 October 2026). Beyond embankments: Why Assam's 2026 floods demand a paradigm shift in India's disaster management. Counterview. Open source [2] Sharma, Kvita (4 October 2026). If Nepal's mountains are fragile, so are Arunachal's. Counterview. Open source [3] Yadappanavar, A. V. (4 October 2026). When rivers ignore state boundaries: Rethinking flood management in northeast India. Counterview. Open source [4] Chowdhury, U. K. When the Mountain Fell into the River. Supplied article in NepCrisisFinal(3).docx; evidence cut-off 30 August 2026. [5] Chowdhury, U. K. Too Much Water, Yet Not Enough Rain: India's Monsoon Emergency of 2026. Supplied article in MonSoonFin.docx. [6] IPCC (2022). Cross-Chapter Paper 5: Mountains. Climate Change 2022: Impacts, Adaptation and Vulnerability. Open source [7] ISRO / NRSC (18 March 2023). Landslide Atlas of India. Open source [8] ISRO (22 April 2024). Satellite Insights: Expanding Glacial Lakes in the Indian Himalayas. Open source [9] NHPC (2024). Annual Report 2023–24, section 9.3 on Upper Siang Multipurpose Storage Project. Alternative capacities and geological investigations. Open source [10] Tayeng, M. (29 September 2026). Siang project will move ahead only if feasibility study gives green signal: Arunachal CM. India Today NE. Open source [11] The Economic Times (23 September 2026). Arunachal Cabinet forms panel to oversee Upper Siang project survey. Open source [12] Xinhua (19 July 2025). Chinese premier announces construction of Yarlung Zangbo hydropower project. Open source [13] Xinhua (23 July 2025). China's Yarlung Zangbo hydropower project has no adverse impact on downstream areas: spokesperson. Official position. Open source [14] Li, Y., Cui, Y., Hu, X., and colleagues (2024). Glacier Retreat in Eastern Himalaya Drives Catastrophic Glacier Hazard Chain. Geophysical Research Letters, 51, e2024GL108202. Open source [15] Sattar, A., Cook, K. L., Rai, S. K., and colleagues (2025). The Sikkim flood of October 2023: Drivers, causes, and impacts of a multihazard cascade. Science, 387, eads2659. Open source [16] ICIMOD (2026). Kyirong-Rasuwa Flood 2026: Nepal-China Cryosphere Risk. Evolving assessment and distinctions between avalanche, debris flow and GLOF. Open source [17] ICIMOD (25 September 2026). Kathmandu 10 Action Points: HKH countries chart a path to better preparedness after catastrophic Rasuwa-Gyirong flood. Open source [18] Rimi, T. (March 2026). Local Response to National Projects: The Siang Hydropower Project in Arunachal Pradesh. Centre of Excellence for Himalayan Studies, issue 30. Open source [19] Government of India (1980). The Brahmaputra Board Act, 1980. Statutory basin-planning mandate. Open source [20] Ministry of Jal Shakti / PIB (19 June 2026). Brahmaputra Board Reviews Flood Management, River Basin Planning and Sustainable Development Initiatives in North East. Open source [21] Ministry of Jal Shakti / PIB (4 December 2025). Filling of Posts in National Dam Safety Authority. Parliamentary reply also records circulation of floodplain-zoning guidance in August 2025. Open source [22] Ministry of Jal Shakti / PIB (1 December 2025). Floods in Punjab and Poor Reservoir Management at Dams. Parliamentary reply on rule curves, hydrological data and coordinated cascade operations. Open source [23] North Eastern Space Applications Centre (undated). Disaster Management Support: Flood Early Warning Systems. Historical operational description. Open source [24] World Bank (24 March 2023). World Bank Approves $108 Million to Improve Disaster Preparedness for Flood-prone Districts of Assam. Open source [25] Asian Development Bank (10 February 2026). ADB Approves $182 Million Loan to Scale Up Flood and Erosion Management Along Brahmaputra in Assam. Open source [26] Tamil Nadu State Wetlands Authority (undated). Tamil Nadu Wetlands Mission. Reproduces the definition under the Wetlands (Conservation and Management) Rules, 2017. Open source [27] Central Water Commission (June 2017). Guidelines for Safety Inspection of Dams. Includes reservoir-rim and slope inspection considerations. Open source [28] Ministry of Home Affairs, Disaster Management Division (current official information). Response Fund: State and National Disaster Mitigation Funds. Open source [29] Central Water Commission (February 2019). Handbook for Assessing and Managing Reservoir Sedimentation. Open source [30] Collier, M., Webb, R. H., and Schmidt, J. C. (1996, revised 2000). Dams and Rivers: A Primer on the Downstream Effects of Dams. USGS Circular 1126. Open source #NortheastIndia #Siang #Brahmaputra #FloodResilience #HimalayanSafety #ArunachalPradesh #ClimateJustice #RiverBasinManagement ...Read more

07 Oct 2026

AI is accelerating the world's appetite for computing. But behind every new server, GPU, laptop and smartphone lies a material chain of metals, energy, labour and waste that rarely appears in the AI conversation. The Big QuestionCan the AI Economy Become More Productive Without Making the Electronics Economy More Disposable? Artificial intelligence is usually discussed as a story of algorithms, models and computing power. But every AI system ultimately depends on physical infrastructure: processors, GPUs, memory, storage, networking equipment, servers and the devices through which users access these services. As AI workloads expand and hardware generations change faster, the sustainability question is moving beyond how much electricity these systems consume. It is increasingly becoming a question of what happens to the machines that are replaced. That matters because the electronics waste problem already exists at an enormous scale. India generated an estimated 1.40 million tonnes of e-waste in 2024–25, up from about 1.25 million tonnes the previous year, according to CPCB estimates cited by the Government of India. The reported share collected, dismantled and recycled or disposed of also increased from 61.94% to 70.71%. These figures, however, are based on sales data from registered producers and the estimated average life of covered equipment. They do not represent a complete account of every device entering India’s formal and informal waste streams. Globally, the scale is even larger. The UN’s Global E-waste Monitor 2024 estimated that the world generated 62 million tonnes of e-waste in 2022, while only 22.3% was documented as formally collected and recycled. If current trends continue, global e-waste could reach 82 million tonnes by 2030. AI is entering this already expanding system. Follow One Machine, Not an Abstract Tonne The easiest way to understand the problem is not to begin with millions of tonnes. It is to follow one machine through its entire lifecycle. Consider a laptop purchased by a school or a small business. It is procured, assigned to a user, maintained and eventually upgraded. Over time, its battery begins to deteriorate. Its processor may no longer be capable of handling newer software. Its memory may be expandable - or it may not be. Eventually, a newer device enters the procurement cycle and the old machine is declared obsolete. At that point, however, its environmental story has only just begun. Is it repaired? Is it transferred to another employee or student? Is it sold to a refurbisher? Is its data securely erased before resale? Does the organisation maintain a record of where the device goes? If it cannot be reused, does it reach a registered recycler? And even if it does, can the material be traced beyond that first handover? The same sequence exists inside a data centre, although the equipment and scale are radically different. A server or accelerator system can become economically unattractive long before every component has physically failed.    THE LIFE OF ONE MACHINEProcurement → Use → Upgrade → Repair → Secure data wipe → Resale/refurbishment → Dismantling → Recycling → Final material destination. This is where AI changes the conversation. The rapid evolution of computing architectures can create pressure for faster hardware turnover. Research published in Nature Computational Science estimated that generative AI-related e-waste could accumulate to 1.2–5.0 million tonnes between 2020 and 2030 under different development scenarios. The study identifies rapid server turnover and operational cost considerations as factors that could intensify the waste stream, while also finding that circular-economy interventions could significantly reduce it. That figure is a modelled scenario, not a measurement of future waste. It should therefore not be reduced to the simplistic claim that AI will produce five million tonnes of e-waste. The more useful question is what happens to the hardware chain when demand for computing accelerates. The Replacement Problem Replacing older technology is not automatically environmentally irresponsible. Newer hardware can deliver substantially greater computing capacity and, in some cases, improved energy efficiency. Keeping inefficient equipment in operation indefinitely is not necessarily the greener choice. The real question is whether the environmental benefits of new equipment justify the material and waste consequences of replacing hardware more frequently. Answering that requires looking beyond a single metric and considering the full life cycle of the equipment. A new server may consume less electricity per unit of computation. But manufacturing it still requires raw materials, components, energy and complex global supply chains. And when the old server leaves the data centre, it does not simply disappear. It may be refurbished, resold, dismantled, recycled or exported. The environmental cost of manufacturing that equipment does not vanish simply because its accounting value has fallen to zero. This is why hardware life needs to become part of the AI sustainability conversation. The Material Hidden Inside the Machine The word “cloud” makes computing sound almost weightless. The hardware that powers it is anything but. Electronic equipment contains metals, plastics, circuit boards, batteries and other components. Some contain valuable materials that can be recovered, while others may contain substances that pose environmental and health risks when handled improperly. India’s e-waste framework therefore treats collection, refurbishment, dismantling and recycling as regulated activities rather than leaving discarded equipment to an undefined waste market. This creates an important contradiction. An obsolete device can simultaneously be waste, a security risk, a source of recoverable materials and a functioning product with potential second-life value. What it ultimately becomes depends on the system around it. A laptop that is repaired and used for another three years follows a fundamentally different environmental pathway from one that is dismantled immediately for material recovery. Recycling is essential, but preserving the value of a functioning product represents a different form of circularity from breaking that product down into materials. That makes repair and reuse the first tests of a genuinely circular AI hardware economy. The School and SME Test The difference becomes particularly visible outside large technology companies. A major corporation or data-centre operator can negotiate procurement contracts, maintenance arrangements, take-back programmes and asset-disposition services at scale. A small business or school often cannot. For a school operating under tight budgets, replacing an ageing laptop may appear easier than paying for diagnostics, spare parts and repairs. For a small business, the cost of repair can approach the machine’s remaining economic value. If replacement is cheaper and faster, an old device can begin its journey towards the waste stream even when it still contains useful components or could serve another user. This is where the sustainability conversation has to move beyond blaming consumers. The more relevant question is what the system makes economically rational. If repairs are expensive, spare parts are difficult to access, software support ends early and replacement devices are readily available, disposal can become the predictable outcome of an otherwise ordinary purchasing decision. Data Security Can Complicate Circularity There is another reason perfectly usable electronics may never reach a second life: data. Corporate laptops and servers can contain confidential information, customer records, intellectual property and other sensitive material. An organisation therefore cannot simply hand a discarded machine to a reseller and assume that reuse automatically follows. Secure data erasure becomes a critical link between disposal and circularity. The challenge is whether an organisation can demonstrate that sensitive information has been securely removed while keeping the physical machine reusable. If destruction is chosen simply because it offers an easier way to guarantee that data cannot be recovered, security procedures can unintentionally work against the circular economy. An effective asset-disposition process should therefore be able to answer two questions at the same time: Was the data securely erased? And was the hardware given the longest feasible useful life? From Refurbisher to Recycler When a machine remains functional, refurbishment can preserve considerably more of its value than dismantling it. India’s regulatory framework recognises refurbishment as part of the e-waste system, with registered producers, recyclers and refurbishers operating through the CPCB’s EPR framework. CPCB also requires recyclers to maintain records of e-waste collected, dismantled, recycled and transferred to other registered recyclers, making documentation an important part of the formal chain. But once reuse is no longer viable, dismantling becomes unavoidable. That is where the material value of electronics becomes important. Metals and other recoverable components can return to productive use rather than being lost through dumping or poorly controlled processing. Yet the existence of an EPR certificate or a recycling claim does not, by itself, reveal the complete physical journey of an individual device. A responsible investigation therefore has to follow the chain further. Who received the equipment? How much did they receive? What weight entered the recycling facility? What materials were recovered? Which downstream recycler handled the fractions the first facility could not process? Were batteries treated separately? Where did the recovered material eventually go? And if material crossed a national border, what happened after export? The Worker Cannot Disappear from the Story There is also a labour system behind every tonne of e-waste. Someone dismantles the machine. Someone separates its components. Someone handles batteries and circuit boards. Someone works around dust, sharp components and potentially hazardous substances. That is why e-waste cannot be assessed only through recycling rates. A system that reports impressive material recovery while shifting health risks onto poorly protected workers cannot be considered fully circular. CPCB’s environmentally sound recycling guidelines specify occupational and environmental controls for recycling and refurbishment facilities, including dust control, ventilation and the management of hazardous fractions. The question, therefore, is not simply: “Was this device recycled?” It is: “Was it recycled safely, and can that be demonstrated?” The Global Problem Is Bigger Than AI It is important not to turn AI into the sole explanation for the e-waste crisis. The global e-waste problem predates generative AI and is driven by broader patterns of consumption, shorter technology cycles, rising device ownership and inadequate collection and recycling systems. The Global E-waste Monitor shows how far the existing system remains from a genuinely circular model. AI is better understood as a potential accelerator. More computing can mean greater demand for specialised hardware. More specialised hardware can create greater pressure for upgrades. Faster upgrades can shorten the effective lifetime of equipment. And shorter equipment lifetimes can increase the volume of devices entering repair, resale, refurbishment and recycling systems. The question is whether those downstream systems can scale quickly enough to keep pace. One AI Prompt, One Material Chain This is where the sustainability discussion needs to become more precise. It is tempting to calculate the environmental impact of a single AI prompt and assign it a neat number of grams of e-waste. But there is no universal figure that can responsibly be applied to every prompt. The hardware involved, the model being used, the workload, server utilisation, equipment lifetime, allocation of embodied impacts and several other factors can change the result. A more useful way to understand the issue is to follow the physical chain: ONE AI PROMPT → COMPUTE DEMAND → GPU/CPU → MEMORY & STORAGE → SERVER CAPACITY → DATA-CENTRE HARDWARE → UPGRADE/REPLACEMENT → REUSE OR DISMANTLING → MATERIAL RECOVERY The prompt is digital. The chain is physical. And that is the material story of AI that often remains hidden behind the cloud. ONE AI PROMPT → ONE MATERIAL CHAINAI prompt → compute → GPU/CPU → server → data centre → upgrade → repair/reuse → recycling → material recovery.Do not assign a fabricated e-waste figure to a single prompt. What Would a Genuinely Circular AI Hardware System Look Like? A genuinely circular AI hardware system would begin before the equipment is purchased. A company should know the expected lifespan of its servers and devices, whether components can be upgraded, how easily spare parts can be sourced, how the equipment will be maintained and what will happen when it reaches the end of its useful life. When equipment is replaced, the organisation should also be able to document why the replacement was necessary. The next question is what happens before a machine becomes waste. Was repair considered? Was the data securely erased? Could the equipment be transferred to another user, refurbished or otherwise given a second life? If it was no longer usable, did it enter an authorised recycling chain? The process should not end when the equipment is collected. A genuinely circular system should be able to demonstrate where the machine went, what happened to it and what was recovered from it. That means asset registers, replacement policies, secure-erasure certificates, refurbishment records, EPR documentation, weight tickets, recycler details, worker-protection evidence and downstream material trails should not be treated as routine paperwork completed after the fact. They are the evidence that allows a circularity claim to be tested. If the chain cannot be documented, the circularity cannot simply be assumed.    THE CIRCULARITY TEST LAST LONGER → REPAIR → REUSE → RECYCLE → TRACE A device passes the circularity test only when its journey can be documented across the chain. The Evidence Trail The final test is not whether a company can say that it “recycles responsibly.” It is whether the organisation can prove what happened to its equipment after it was replaced. For every corporate or institutional case, the reporting should seek the asset register, replacement policy, repair records, secure-erasure certificates, resale or refurbishment records, EPR documentation, weight tickets, recycler details, worker-protection evidence and downstream material trail. Together, these records can establish whether a device was actually repaired, whether it was given a second life, whether its data was securely erased, how much material reached a recycler and what happened to that material afterwards. If equipment or recovered material was exported, the investigation should follow the trail as far as the available documentation allows. If the chain ends at the first recycler, that limitation should be reported rather than filled with assumptions. Because in a circular economy, the evidence trail is not a supporting detail. It is the proof that the circle was actually completed. THE E-WASTE ACCOUNTABILITY LEDGER StageWhat must be provedProcurementAsset registerReplacementDisposal/replacement policyData securitySecure-erasure certificateReuseResale/refurbishment recordEPREPR documentationRecyclingWeight ticketDismantlingRegistered downstream entityLabourWorker-protection evidenceExportCustoms/downstream trail THE REAL TEST The future of AI will be measured by computing power, productivity, energy use, water consumption and economic value. But one measure must not remain outside the frame: how long its hardware lasts before it becomes waste. That answer will determine whether AI deepens the world’s e-waste crisis—or helps build a more circular, traceable and responsible electronics economy. AI does not need to stop advancing. But the physical infrastructure powering that progress can no longer remain invisible. Because the real sustainability test of AI is not simply how much intelligence we can generate from machines, but how responsibly we design, use, repair, reuse and finally dismantle the machines that make that intelligence possible. If AI is shaping the future, its hardware must not become the waste of that future. Primary Sources Central Pollution Control Board — E-Waste Management Rules / FAQ[https://cpcb.nic.in/uploads/Projects/E-Waste/FAQ_ewaste_23012024.pdf]Government of India / PIB — National E-Waste Generation and Recycling Data[https://www.pib.gov.in/PressReleasePage.aspx?PRID=2147876&lang=2&reg=48]CPCB — E-Waste Management / EPR Framework[https://cpcb.nic.in/e-waste/]CPCB — Environmentally Sound Management of E-Waste[https://cpcb.nic.in/uploads/Projects/E-Waste/Guidelines_Environmentally_Sound_Recycling_E-Waste.pdf]UN / UNITAR / ITU — Global E-waste Monitor 2024[https://ewastemonitor.info/the-global-e-waste-monitor-2024/]Nature Computational Science — E-Waste Challenges of Generative AI[https://www.nature.com/articles/s43588-024-00712-6]  ...Read more

06 Oct 2026

6 October, 2026 | Kolkata India wants to turn crop residue from a seasonal pollution problem into a rural fuel economy. But the real test begins after harvest: who collects the straw, who pays the farmer, who bears the transport cost, and what happens to the soil when the residue leaves the field? SummaryIndia already has hundreds of Compressed Biogas (CBG) projects either operational or under development, while government policy is gradually pushing biomethane into the transport and gas ecosystem. But crop residue is not an ordinary raw material. It is available only during a short harvest window, varies in moisture and quality, can be costly to collect and transport, and plays an important role in maintaining soil health.This makes the economics of CBG more complicated than simply building more plants. The success of India’s CBG economy will depend on whether farmers can reliably move crop residue from fields to processing plants at a cost that works for farmers, aggregators and plant operators alike - without creating new environmental costs in the process.The real question, therefore, is not how many CBG plants India can announce or build but whether India can make crop residue economically valuable without making its removal financially or ecologically costly. Can India’s Crop-Residue Economy Work at the Farmgate, Not Just at the Plant Gate? After the paddy harvest, the clock starts ticking. A farmer in Punjab or Haryana may have only a narrow window before the next crop has to be planted. The straw left behind is bulky, difficult to handle and expensive to move. Burning remains attractive precisely because it offers a fast solution to a time-sensitive problem. That is what makes Compressed Biogas (CBG) such an interesting proposition. Instead of treating paddy straw as something to dispose of, a CBG plant can treat it as a feedstock. Straw is collected, baled, transported and processed through anaerobic digestion. The resulting biogas is upgraded into biomethane and compressed for use as fuel, while the process can also generate organic manure. On paper, it is an elegant circular-economy story. But the field is much less tidy. The straw has to reach the plant on time and meet quality requirements. Trucks have to travel. Bales have to be stored. Farmers and aggregators need to be paid or compensated. The plant needs to remain operational. The gas needs a reliable buyer. Digestate needs to meet applicable standards and find a credible agricultural use. And all of this has to happen within a highly compressed agricultural season. That is the farmgate test. India’s CBG Sector Is Moving Beyond the Pilot Stage India’s policy architecture is no longer treating CBG as an experimental fuel. The Sustainable Alternative Towards Affordable Transportation (SATAT) initiative was launched in 2018 to build an ecosystem for producing CBG from waste and biomass. Oil and gas marketing companies including IOCL, BPCL, HPCL, GAIL and IGL have been inviting producers to supply CBG, while the government says long-term offtake agreements at assured prices are being executed. The policy push is becoming stronger as well. India’s CBG blending obligation has entered its mandatory phase, with a requirement of 3% for FY2026–27, rising to 4% in FY2027–28 and 5% from FY2028–29. As of 27 January 2026, the GOBARdhan portal reported 189 functional CBG projects across India. Uttar Pradesh had 37, Gujarat 25, Haryana 20, Karnataka 20, Maharashtra 20 and Punjab 10. That points to a rapidly emerging industry. But there is an important distinction: A functional CBG plant is not automatically a successful crop-residue supply chain. A plant can have the technology, an offtake agreement and the ability to produce gas. The harder question is whether it can secure enough suitable biomass, at a workable cost, year after year. THE SEASONAL RESIDUE FLOW Create a horizontal seasonal flow: Paddy harvest → Straw collection → Baling → Village aggregation → Storage → Transport → CBG plant → Biomethane → OMC/fuel buyer Under each stage, show the potential friction point: 15 –20 day harvest window | Moisture | Quality | Farmer payment | Storage loss | Transport cost | Downtime | Methane loss | Offtake Crop residue is a moving, seasonal supply chain - not a static national tonnage figure. Punjab Shows Both the Promise and the Problem Punjab is a natural laboratory for this question. The state has been promoting both in-situ and ex-situ crop-residue management. ICAR reported in September 2026 that Punjab has around 31.76 lakh hectares under paddy and nearly 20 million tonnes of straw generation, while stakeholders have been calling for stronger biomass aggregation, transportation, storage and assured offtake. That discussion reveals where the challenge is moving. The question is no longer simply how to convince farmers not to burn residue. It is how to build a system capable of handling the material once it is removed from the field. Punjab Energy Development Agency currently lists 57 allocated CBG projects, with a combined capacity of about 815.68 tonnes per day, based on paddy straw and other agricultural residues. Six projects, totalling around 107.48 tonnes per day, are operational, while another five projects with a combined capacity of 37.5 TPD are expected to become operational during FY2026–27. That immediately raises a larger question: Where will all the straw come from? Following the Straw to Lehragaga One of the most useful case studies is the Verbio biorefinery at Lehragaga in Sangrur district, Punjab. The plant began producing biomethane from agricultural residues in 2022. The company says the facility was designed to process around 100,000 tonnes of agricultural residue annually, with BioCNG production capacity of up to 33 tonnes per day, alongside large-scale production of humus fertiliser. Its gas is supplied into IndianOil’s retail network in Punjab. This is precisely the kind of plant the investigation should follow. Not because it should automatically be presented as a success story, but because it allows the reporting to examine the entire chain. Where does the straw come from? How far does it travel? Who aggregates it? What does the farmer actually receive? Is the farmer paid for the straw, or does the economic benefit primarily come from free collection? How much does baling cost? What happens when the straw is wet? What happens when the plant needs more feedstock than nearby farms can provide? What happens when the plant is not operating? And what happens to the material that comes out at the other end? Verbio has described its model as providing farmers with free straw collection while creating rural economic value. That is useful evidence. But “free collection” is not the same as a measured increase in farmer income. The reporting therefore needs the actual ledger. The Farmer’s Income Cannot Disappear Behind the Word “Waste” This is where the CBG story needs greater precision. Crop residue is often described as waste. For the farmer, however, it is not necessarily worthless. Depending on the farming system, residue can be incorporated into the soil, used for livestock-related purposes, sold into biomass-energy or industrial markets, or directed towards other value chains. In some cases, it may also represent a cost rather than an income opportunity. The relevant economic question is therefore not: “How much does a tonne of straw cost?” It is: “What is the farmer’s net position after the residue leaves the field?” That calculation should account for: payment received for residue, if any;baling and handling arrangements;transport responsibility;time saved;machinery costs avoided;alternative value of the straw;impact on field preparation;possible soil-nutrient replacement costs;and the reliability and timing of payment. A farmer receiving ₹X per tonne is not necessarily better off if removing the straw creates ₹Y of additional costs elsewhere. The article should therefore avoid using a headline straw price as a proxy for rural prosperity. FARMER NET-INCOME CARD FARMER NET OUTCOME Straw payment+Collection / handling savings+Avoided field-management cost−Transport or other deductions−Nutrient / soil-management cost=NET FARMER VALUE Use actual numbers from one documented farmer or FPO account. Do not present a modelled figure as observed farmer income. The Soil Cannot Become the Invisible Stakeholder There is another side to removing residue from the field. ICAR’s recent crop-residue work continues to emphasise in-situ management, including the incorporation of straw into soil. Its field programmes have highlighted potential benefits related to soil organic carbon, fertility, water conservation and nutrient retention. That creates a genuine competing viewpoint. One argument says: Take the residue away and turn it into fuel. The other says: Not all residue should be removed because some of it belongs in the soil. The article should not automatically choose one side. The more useful question is: How much residue can be sustainably removed from a particular farming system without undermining soil health? That answer will not be identical everywhere. Soil type, crop rotation, irrigation, organic-carbon levels, residue quantity, local machinery and competing uses can all influence the answer. A CBG plant therefore cannot simply define its feedstock requirement and assume surrounding fields can sustainably supply it. The field has an ecological budget too. The Logistics Problem Starts Long Before the Plant A bale of straw is not a pipeline commodity. It has to be collected from scattered farms and moved to aggregation points before reaching the plant. That creates a collection-radius problem. The farther a plant has to travel for its feedstock, the more complicated the economics become. The physical chain may look like: Field → Baler → Tractor/trailer → Aggregation point → Storage → Truck → Plant Every additional movement consumes time, fuel and money. There is also a seasonal mismatch. The plant may need feedstock throughout the year, while farms produce most of their straw within a narrow harvest window. Storage therefore becomes part of the business model. The investigation should seek: daily weighbridge records;bale counts;source-village records;average collection distance;storage duration;rejected loads;moisture readings;quality specifications;transport bills;and plant feedstock inventories. If those records cannot be provided, that absence is itself relevant evidence. Moisture Can Decide Whether the Economics Work Biomass is not uniform. Moisture affects its weight, storage behaviour and usable energy content. Poorly managed biomass can deteriorate during storage and create operational problems. That means two farmers delivering apparently similar bales may not be delivering the same usable feedstock. This makes moisture and quality rejection central to the investigation, not minor technical details. The plant’s contract should establish: What moisture level is acceptable?What happens when a load exceeds it?Is the farmer penalised?Is the aggregator penalised?Who pays for rejected material?Is the material returned?How frequently does rejection occur?How is moisture measured? A feedstock contract that looks attractive on paper can behave very differently once quality deductions enter the calculation. The Gas Is Only Half the Story CBG is not the end of the process. The plant also produces digestate or organic manure, creating the possibility of another circular-economy loop. Residue enters as agricultural feedstock. Gas leaves as fuel. Digestate can potentially return to agriculture. But that loop only works if the digestate is safe, compliant, usable and actually accepted by farmers. A previously reported case at the Lehragaga plant highlighted moisture-related concerns around manure specifications, showing why the by-product can become a commercial and regulatory issue rather than an automatic benefit. The investigation should therefore seek digestate analysis, not simply photographs of manure being loaded onto tractors. It should examine: moisture;nutrient content;contaminants;compliance with applicable standards;storage;farmer uptake;price;and actual field application. The circular-economy claim is incomplete if the digestate has nowhere credible to go. Methane Leakage Is the Other Side of the Climate Claim CBG can only deliver its intended climate benefit if the entire system performs properly. Methane is the product being captured and sold. It is also a powerful greenhouse gas if it escapes before capture, during processing, storage or upgrading. That makes methane leakage one of the most important evidence gaps in the story. A production number tells us how much methane became a commercial product. It does not automatically tell us how much methane escaped. The investigation should therefore ask for: Leak-detection methods, testing frequency, maintenance records, fugitive-emission data and corrective-action logs. If methane-leak testing is unavailable, the article should say so. Missing measurement should never be replaced with a generic claim that biogas is “clean”. The climate claim needs a boundary, a baseline and a measurement method. The Buyer Matters as Much as the Farmer The CBG business does not end when gas leaves the plant. Someone has to buy it. SATAT provides a potential route through oil and gas marketing companies, while the CBG blending obligation creates a growing policy-driven demand signal. But the reporting should still establish: Who is the actual buyer? What does the contract guarantee? What happens when production falls below contracted volumes? Who bears quality risk? How is the price determined? What happens if the plant cannot produce for several days? This is where the distinction between an announcement and an operating business becomes critical. A plant with a signed offtake agreement is not the same as a plant delivering gas reliably every day. Downtime Is the Number Nobody Wants to Headline A CBG plant can have impressive installed capacity and still produce far below its theoretical maximum. The reasons can range from feedstock shortages and equipment failures to maintenance, quality problems, transport disruptions, storage issues or market constraints. That is why the investigation should calculate: Actual uptime = Operating hours ÷ Available operating hours It should then compare: Installed CBG capacity with Actual average production That comparison is more informative than the nameplate number alone. The same principle applies nationally. India reported 189 functional CBG projects as of January 2026, but that figure does not tell readers how much each plant actually produces, how consistently it operates or what proportion uses crop residue as feedstock. Functional is not the same as fully utilised. CBG Is Not the Only Destination for Straw The market for crop residue is becoming more competitive. Straw can be directed towards CBG, biomass power, pellets and briquettes, biofuels and other industrial applications. The Commission for Air Quality Management has also directed Punjab and Haryana to increase the use of paddy-straw-based pellets or briquettes in brick kilns, with the mandated co-firing share rising to 30% from 1 November 2026, after 20% from November 2025. That means new CBG plants are entering a market in which multiple users may compete for the same seasonal material. This could benefit farmers. More buyers can mean more choices. But it can also create instability for plants that require predictable feedstock volumes. The investigation should therefore map the local residue market, rather than treating all available straw as if it automatically belongs to CBG. Perhaps the Answer Is Not One Technology This is where the story should resist a simple conclusion that CBG will “solve stubble burning”. ICAR’s work shows that in-situ residue management can reduce burning while supporting soil-related outcomes. Its work also stresses that machinery availability, maintenance and region-specific solutions matter. At the same time, ex-situ options such as CBG can create a market for residue that farmers otherwise struggle to manage. The stronger policy answer may therefore be a portfolio rather than a winner-takes-all technology race. Some residue can remain in the field. Some can feed CBG. Some can support industrial biomass demand. Some can move into other value chains. The right mix should be determined by soil science, economics, logistics and local conditions. Not by the number of CBG plants announced. What Would a Genuinely Working CBG Farmgate Model Look Like? A strong plant should be able to demonstrate at least ten things: 1. A defined collection radiusNot a vague reference to “nearby farmers”, but a documented sourcing geography. 2. Transparent farmer economicsWhat the farmer receives, what the farmer saves and what costs remain. 3. A functioning aggregation systemWho collects the bale, who owns it and who bears transport risk. 4. Quality controlsMoisture, contamination and rejection records. 5. High and documented plant uptimeNot just installed capacity. 6. Verified methane managementLeak testing and corrective action. 7. A credible digestate pathwayTesting, compliance, price and actual agricultural use. 8. A contracted buyerWith clear price, volume and quality terms. 9. Soil safeguardsEvidence that residue removal does not undermine local soil-health needs. 10. An independently checkable ledgerThe plant should be able to show what entered, what was produced, what was rejected, what was sold and what returned to agriculture. THE CBG ACCOUNTABILITY LEDGER Build a single-page dashboard connecting four stages: FARMGATE → PLANT → OUTPUT → FIELD Track: Farmgate Tonnes collectedFarmers coveredAverage collection distanceFarmer net valueTransport cost Plant Tonnes receivedRejected loadsMoisturePlant uptime Output CBG producedMethane leakageBuyer/offtake Field Digestate returnedFarmers using manureSoil indicatorNutrient balance Every number should carry a date, unit and source. The Documents Should Decide the Story The investigation should not depend on a company presentation deck. The reporting file should seek: feedstock contracts;farmer agreements;FPO and aggregator agreements;weighbridge logs;bale movement records;farmer payment records;transport invoices;moisture and quality-rejection logs;plant production records;downtime records;offtake contracts;methane-leak testing;digestate laboratory reports;fertiliser-compliance documentation;soil assessments;air-quality data;environmental permissions;pollution-control records;and maintenance records. If an operator refuses a document, record the request and the response. If a government agency holds the document, seek it there. If a number cannot be independently verified, label it accordingly. The reporting standard should remain clear: announced, commissioned, operational, maintained and measured are not interchangeable terms. A plant is not a success because it was announced. A capacity figure is not production. A contract is not delivery. And a climate claim is not an outcome until the underlying result can be measured. The Real Test Begins When the Harvest Ends The CBG story is often told from the plant backwards. Look at the digester. Look at the gas. Look at the cylinders. Look at the truck leaving with fuel. But the real story begins much earlier. It begins with a farmer standing in a field after harvest and asking what to do with the straw before the next crop goes in. If CBG gives that farmer a dependable alternative to burning—while protecting soil health, keeping transport costs manageable and creating a genuine economic return—then the technology becomes more than a clean-fuel project. It becomes rural infrastructure. But if the plant depends on expensive long-distance transport, inconsistent feedstock, weak storage, uncertain payments, low utilisation or an unproven digestate market, then the problem has simply moved from the field to the supply chain. And that distinction matters. India does not need more tonnes of theoretical biomass. It needs working contracts, working logistics and working economics. Punjab’s latest crop-residue discussions already point towards this next challenge: nearly 20 million tonnes of paddy straw, a growing network of CBG projects and an urgent need to solve aggregation, transportation, storage and assured offtake while replenishing nutrients where straw is removed. That is why the future of CBG will not be decided inside the digester alone. It will be decided at the farmgate. The Final Farmgate Test When the crop is harvested, does the residue become fuel, income and soil-safe value—or does it simply become another expensive material that someone has to move? That is the question the CBG economy must answer. And it should answer it with evidence—not projections. CAN THE MODEL PASS? FARMER — Is net value positive? FEEDSTOCK — Is supply reliable? PLANT — Is uptime proven? CLIMATE — Is methane leakage measured? SOIL — Is residue removal sustainable? A CBG model should not be called successful until there is evidence on all five.Primary Sources Ministry of Petroleum & Natural Gas (MoPNG) — Compressed Bio Gas / SATAT[https://mopng.gov.in/en/refining/compressed-bio-gas/1000]Punjab Energy Development Agency (PEDA) — Bio-CBG Projects[https://www.peda.gov.in/bio-cbg-compressed-piogas-projects.php]Ministry of New and Renewable Energy (MNRE) — Waste-to-Energy Schemes[https://mnre.gov.in/en/waste-to-energy-schemes/]MNRE — Bio-Energy Programme[https://mnre.gov.in/en/bio-energy-overview/]ICAR — Punjab Crop Residue Management Action Agenda[https://www.icar.gov.in/en/punjab-stakeholders-forge-integrates-action-agenda-crop-residue-management]Punjab Agricultural University (PAU) — VERBIO India, Lehragaga CBG Plant[https://pau.edu/index.php?DO=viewEventDetail&_act=manageEvent&dataE=datae&intID=7702]PIB / Ministry of Jal Shakti — GOBARdhan Scheme and CBG Projects[https://www.pib.gov.in/PressReleasePage.aspx?PRID=2222150&lang=1&reg=3]PIB / Ministry of Petroleum & Natural Gas — CBG Blending Obligation[https://www.pib.gov.in/PressReleasePage.aspx?PRID=1989226&lang=2&reg=48]CAQM / PIB — CBG and Crop Residue Management[https://www.pib.gov.in/PressReleaseIframePage.aspx?PRID=2187847&lang=2&reg=48]National Green Tribunal — Punjab Crop Residue Management Status Report[https://www.greentribunal.gov.in/sites/default/files/news_updates/Status%20Report%20by%20State%20of%20Punjab%20in%20OA%20No.%20632%20of%202023%20%28In%20Re%20News%20item%20published%20in%20The%20Hindu%20dated%2006.10.2023%20titled%20Pollution%20takes%20a%20front%20seat%20as%20Stubble%20Fires%20Spike%20in%20Punjab.pdf] ...Read more

06 Oct 2026

India is building the machines that could power its green-hydrogen ambitions. But the harder test is whether those machines can deliver competitive efficiency, genuine localisation and dependable performance long after the factory gates open. SummaryIndia is rapidly building a domestic electrolyser manufacturing base to support its green-hydrogen ambitions, backed by the National Green Hydrogen Mission and ₹4,440 crore in manufacturing incentives. But approved factory capacity is only the starting point. The real test lies in how much equipment is actually produced, how much of its supply chain is truly local, how efficiently it operates, and whether it can remain reliable and commercially competitive over time. This feature examines the gap between manufacturing promises and operating reality - through localisation, critical minerals, system costs, efficiency, degradation, renewable-power requirements and the evidence buyers should demand before calling an electrolyser truly “Made in India.” THE BIG QUESTION Can India turn electrolyser manufacturing capacity into a genuinely competitive industrial supply chain? India’s green-hydrogen story is gradually becoming a manufacturing story. The country is no longer viewing electrolysers simply as imported equipment required for future hydrogen projects. Through the National Green Hydrogen Mission and its Strategic Interventions for Green Hydrogen Transition (SIGHT) programme, India is seeking to establish a domestic manufacturing base for the equipment that splits water into hydrogen and oxygen. The scale is significant. The National Green Hydrogen Mission aims to position India as a global hub for green hydrogen and targets production of 5 million tonnes per annum by 2030. Under the SIGHT programme, the government has allocated ₹4,440 crore for domestic electrolyser manufacturing. The official MNRE SIGHT portal lists 3,000 MW per year of approved electrolyser manufacturing capacity across two manufacturing tranches: 1,500 MW under Tranche-I and another 1,500 MW under Tranche-II. The headline, therefore, is no longer whether India intends to manufacture electrolysers. It does. The more important question is what exactly “manufacturing” means when the system is examined component by component. INDIA’S ELECTROLYSER MANUFACTURING PUSH Infographic: National Green Hydrogen Mission → SIGHT → Tranche-I: 1,500 MW/year → Tranche-II: 1,500 MW/year → 3,000 MW/year approved capacity Callout: How much of that capacity will translate into actual production? Note: Clearly label 3,000 MW as approved/awarded manufacturing capacity, not equipment produced. FROM HYDROGEN TARGET TO FACTORY FLOOR An electrolyser is deceptively simple in principle. Electricity is passed through water, triggering an electrochemical reaction that separates hydrogen from oxygen. But the machine performing that reaction is a sophisticated industrial system involving a stack, electrodes, catalysts, membranes or diaphragms, bipolar plates, power electronics, pumps, heat-management systems, controls and other balance-of-plant equipment. And not every electrolyser is the same. Alkaline, PEM, solid-oxide and emerging AEM technologies use different materials, designs and operating characteristics. Their supply chains can therefore look very different. This matters because a factory producing an electrolyser system is not necessarily producing every critical component within it. A system can be assembled domestically while some of its most specialised inputs remain imported. That distinction lies at the centre of India’s manufacturing challenge. The policy objective, therefore, is not simply to increase the number of machines carrying a “Made in India” label. It is to build an industrial ecosystem capable of producing reliable equipment at competitive cost while reducing vulnerable import dependencies. The editorial brief for this feature identifies precisely these tests: quality, localisation, minerals, efficiency and after-sales performance—not factory ribbon-cutting. CAPACITY IS NOT THE SAME AS OUTPUT The first number any manufacturing story tends to celebrate is capacity. But capacity is only the beginning. A manufacturer may announce a plant with a particular annual nameplate capacity. A government tender may award manufacturing capacity. A facility may be constructed. Equipment may be installed. Production may begin. These are different stages. For this story, the useful ladder is: ANNOUNCED → AWARDED → BUILT → COMMISSIONED → PRODUCING → SOLD → INSTALLED → OPERATING → MAINTAINED → MEASURED The MNRE portal lists eight Tranche-I projects with scheduled commissioning dates in August 2026, while the listed Tranche-II projects have a scheduled commissioning date of 26 March 2027. As of October 2026, however, a scheduled commissioning date should not automatically be interpreted as evidence of actual commercial output. The evidence threshold must be higher. India’s electrolyser manufacturing progress should increasingly be measured through harder indicators: How much capacity has been physically commissioned?How much equipment has actually been produced?What is the plant’s utilisation rate?How many stacks or systems have been sold?Where are they operating?What is their measured efficiency?How quickly does performance degrade?What does the warranty cover?Which components are domestically sourced?Which remain imported?How quickly can replacement parts be supplied?This is where the story moves from industrial policy to industrial reality. CAPACITY ≠ OUTPUT Status ladder: Announced → Awarded → Built → Commissioned → Producing → Sold → Operating → Measured Centre callout: 3,000 MW/year = approved manufacturing capacity, not 3,000 MW produced. WHAT DOES “MADE IN INDIA” REALLY MEAN? The phrase sounds straightforward. The supply chain is not. A complete electrolyser system can contain dozens of components and materials, and the domestic share can differ substantially between technologies. A 2024 CEEW assessment examined PEM, alkaline and solid-oxide electrolysers and found substantial potential for localisation across all three. It estimated overall indigenisation potential at 82% for PEM, 88% for alkaline and 85% for solid-oxide electrolysers. The report also identified specialised materials and critical minerals as continuing supply-chain challenges. The distinction is crucial: Potential indigenisation is not the same as current indigenisation. The CEEW assessment estimated manufacturing costs of roughly USD 350–400 per kW across the technologies it studied and identified opportunities to reduce stack costs through higher current density, lower catalyst loading, thinner coatings and alternative materials. For PEM systems, the report found that around 72% of manufacturing cost could be readily indigenised in its assessment, while components such as Nafion membranes and minerals including platinum and iridium remained areas of import dependence. For alkaline systems, the picture is different but still not completely domestic. The CEEW analysis identified opportunities to manufacture or process several components in India while pointing to continuing dependence on imported materials and commodities. So the question should move from: “How much of the electrolyser is Indian?” to: “Which parts are Indian, which are imported, and which supply chains could become bottlenecks as production scales?” That is a much more useful manufacturing question. WHAT ACTUALLY SITS INSIDE AN ELECTROLYSER? Technical cutaway: Stack, electrodes, catalyst, membrane/diaphragm, bipolar plates, power electronics, water treatment, cooling, gas handling and controls. Show two labels: Domestic manufacturing potential | Import / critical-material exposure Callout: “Made in India” is a supply-chain question, not just an assembly question. THE CRITICAL-MINERAL QUESTION The localisation debate cannot stop at factories. It has to reach the materials inside those factories. Electrolyser technologies use different combinations of materials, and some specialised components rely on minerals for which India does not have sufficient domestic resources or established supply chains. This creates a strategic dilemma. Trying to manufacture everything domestically may not always be technically or economically sensible. But relying heavily on a narrow group of foreign suppliers can create another vulnerability. The better objective is therefore supply-chain resilience. That can mean: developing domestic component manufacturing;processing imported raw materials within India where economically viable;reducing the quantity of critical minerals required per unit of hydrogen;developing alternative materials;diversifying international suppliers;building domestic testing and certification capabilities;investing in research into next-generation electrolyser technologies.The CEEW study specifically identifies reduced catalyst loading, alternative materials and technology development as potential routes to lower costs and increase localisation. The strategic question is not whether India can eliminate every import. It is whether India can prevent one imported component, mineral or technology from becoming a single point of failure. THE HIDDEN COST: THE SYSTEM AROUND THE STACK Another reason headline manufacturing capacity can be misleading is that the stack is only one part of the overall economics. CEEW’s assessment found that balance of plant can account for 50–60% of the total electrolyser system cost. That changes the procurement conversation. A buyer should not compare two electrolysers simply by comparing the quoted price of their stacks. The relevant comparison is the complete system. That includes: STACK + POWER ELECTRONICS + WATER TREATMENT + COOLING + GAS PROCESSING + CONTROLS + INSTALLATION + MAINTENANCE + REPLACEMENT + FINANCING A cheaper machine that consumes more electricity, degrades faster or requires expensive imported replacement parts may not remain cheaper over its operating life. The real metric is therefore not simply: ₹ per kW of electrolyser but increasingly: ₹ per kilogram of hydrogen over the operating life of the system. That is where manufacturing competitiveness becomes commercial competitiveness. THE STACK IS ONLY PART OF THE BILL Infographic: Stack + power conversion + water treatment + cooling + gas handling + controls + installation + maintenance. Highlight: Balance of plant = 50–60% of total system cost Bottom line: Purchase price ≠ lifetime cost EFFICIENCY: THE NUMBER THAT NEEDS A COMMON RULE Efficiency sounds like a simple number. In practice, it requires a common measurement framework. Two manufacturers can describe system performance differently depending on what is included in the calculation, how electricity consumption is measured and under what operating conditions the test is performed. That makes standardisation critical. A June 2025 BIS draft standard on efficiency assessment of AEM, PEM and alkaline water electrolysers note that different electrolyser technologies have different configurations, materials, operating conditions and performance characteristics. It also states that meaningful comparison requires a standardised procedure for evaluating system performance. The document highlights another important complication: some performance characteristics can be assessed during initial testing, while aspects related to equipment life become clearer only through operation and accelerated testing. For buyers, therefore, the important question is not merely: “What efficiency does the manufacturer claim?” It is: “Under what test protocol was that efficiency measured, at what load, and which parts of the system were included?” Without comparable testing, headline efficiency numbers can be difficult to use in procurement decisions. WHEN TWO EFFICIENCY NUMBERS ARE NOT COMPARABLE Comparison graphic: Two illustrative electrolyser test cards showing: Efficiency → Operating load → Temperature → Pressure → System boundary Centre: STANDARDISED TESTING Note: Do not use invented manufacturer numbers. THE PERFORMANCE TEST DOES NOT END WHEN THE MACHINE STARTS An electrolyser can perform well when new and still become a different economic proposition several years later. That makes degradation one of the most important—and least headline-friendly—questions in the sector. A serious buyer needs to know: How quickly does stack performance decline?What operating conditions accelerate degradation?How frequently does the stack need replacement?What is covered under warranty?What happens when efficiency falls below the guaranteed level?Who supplies replacement components?How long will critical spare parts remain available?Who carries the performance risk?These questions matter because hydrogen projects are not buying a machine for a photograph. They are buying an operating asset. If an electrolyser is expected to function for years, uptime, degradation and service availability can ultimately matter as much as its initial purchase price. The editorial brief therefore calls specifically for degradation data, warranty claims and signed customer orders, rather than relying only on factory-capacity claims. THE RENEWABLE POWER QUESTION There is another part of the electrolyser equation that sits outside the factory. Electricity. Green hydrogen is only as credible and economically viable as the renewable electricity system supporting its production. An electrolyser may be technically excellent, but its economics can deteriorate if the electricity feeding it is expensive, unreliable or poorly matched to its operating profile. This creates a second test for Indian manufacturing. Can domestically manufactured electrolysers operate efficiently under the actual renewable-power conditions that Indian projects will face? Solar-heavy systems, for example, can experience changing electricity availability throughout the day. That makes dynamic operation, power-electronics performance and degradation behaviour important procurement considerations. The machine therefore cannot be assessed in isolation. The chain is: RENEWABLE ELECTRICITY → WATER → ELECTROLYSER → HYDROGEN → STORAGE / TRANSPORT → INDUSTRIAL CUSTOMER A weakness anywhere along that chain can affect the economics of the final kilogram of hydrogen. THE HYDROGEN MOLECULE’S FULL ITINERARY Systems map: Renewable electricity → Water → Electrolyser → Hydrogen conditioning → Storage → Transport → Industrial buyer Under each stage, ask one short question: Power: Affordable? Water: Available? Electrolyser: Who made it? Performance: How efficient? Storage: What infrastructure? Transport: What cost? Buyer: Who pays? Callout: A green-hydrogen project is a chain, not a machine. INDIA’S ADVANTAGE — AND ITS COMPETITIVE PROBLEM India has a major reason to pursue domestic electrolyser manufacturing. It wants the economic benefits of the green-hydrogen transition to extend beyond hydrogen production itself into manufacturing, engineering, components, services and jobs. But the global market is already competitive. The International Energy Agency’s Global Hydrogen Review 2026 reports that installed global electrolysis capacity doubled in 2025 to more than 4 GW, with China accounting for nearly three-quarters of new installations. The IEA also says electrolyser manufacturing is entering a consolidation phase as market development remains slow. That creates a difficult environment for India. The country is attempting to build manufacturing capacity while the global industry itself is still searching for stable demand and sustainable economics. The challenge is therefore not simply to make electrolysers. It is to make them: CHEAP ENOUGH. EFFICIENT ENOUGH. RELIABLE ENOUGH. SERVICEABLE ENOUGH. to win real orders. That is a much higher bar. THE GLOBAL ELECTROLYSER RACE Global map: Highlight India and China. Show the comparison around: Scale | Cost | Technology | Project experience | Domestic demand | Export potential Bottom line: The competition is for cost, scale, reliability and customers—not just technology. THE GLOBAL LESSON: CHEAP EQUIPMENT IS NOT THE WHOLE STORY China’s position provides an important comparison. The IEA reports that China has become the leading centre for electrolyser deployment and manufacturing, benefiting from lower technology costs and experience with large projects. But the same analysis points to excess capacity and market consolidation. The lesson for India is not that domestic manufacturers must simply imitate China. It is that manufacturing scale alone does not guarantee sustainable industrial competitiveness. A country can have factories and still struggle with: weak demand;underutilised capacity;thin margins;imported critical components;insufficient testing infrastructure;limited after-sales networks;technology dependence;financing constraints;inadequate customer confidence. The strongest industrial ecosystem is therefore not necessarily the one with the largest announced factory capacity. It is the one whose manufacturers can continue delivering after subsidies, incentives and policy headlines become less central to the business case. THE REAL PROCUREMENT TEST For developers and industrial buyers, the questions should become more demanding. Before purchasing an electrolyser, a buyer should be able to request a documentary record covering at least: 1. FACTORY CAPACITY What is the annual nameplate capacity, and what is the actual production? 2. BILL OF MATERIALS What are the major components, and where does each come from? 3. TECHNOLOGY Is the system alkaline, PEM, SOEC, AEM or another configuration? 4. EFFICIENCY What test protocol produced the quoted efficiency figure? 5. DEGRADATION What performance decline is expected over time? 6. WARRANTY What exactly is guaranteed, for how long and under what operating conditions? 7. WATER What water quality does the system require, and what treatment infrastructure is necessary? 8. OPERATING EVIDENCE How many systems are actually operating, and for how long? 9. CUSTOMER EVIDENCE Are there signed customer orders rather than only memoranda or announcements? 10. LIFETIME ECONOMICS What is the expected total cost of producing hydrogen over the equipment’s operating life? This is the point where “Made in India” becomes a measurable industrial proposition rather than a branding exercise. BEFORE BUYING AN ELECTROLYSER, ASK FOR THE FILE ☐ Factory capacity vs. actual output ☐ Bill of materials ☐ Supplier origin ☐ Technology / chemistry ☐ Efficiency test protocol ☐ Degradation data ☐ Warranty terms ☐ Water requirement ☐ Operating customer evidence ☐ Lifetime hydrogen cost Callout: If the number matters to the business case, ask for the document behind the number. WHAT SHOULD INDIA MEASURE NEXT? India’s next manufacturing phase should be judged through a different dashboard. Not just: MW OF ANNOUNCED CAPACITY but: MW COMMISSIONED MW ACTUALLY PRODUCING UTILISATION RATE PERCENTAGE OF COMPONENTS LOCALLY SOURCED CRITICAL-MATERIAL EXPOSURE MEASURED SYSTEM EFFICIENCY ANNUAL DEGRADATION STACK REPLACEMENT INTERVAL WARRANTY PERFORMANCE NUMBER OF OPERATING CUSTOMER SYSTEMS SYSTEM AVAILABILITY COST PER KILOGRAM OF HYDROGEN These indicators would reveal whether the domestic electrolyser industry is moving from policy-supported capacity creation towards commercially durable manufacturing. The government intervention has already created a strong market signal: according to MNRE, 15 companies have been awarded 3,000 MW/year of electrolyser manufacturing capacity with ₹4,440 crore in total incentives. The next phase is about proving what those numbers produce in practice. FROM ANNOUNCEMENTS TO OPERATING DATA OLD MEASUREBETTER MEASUREAnnounced MWCommissioned MWFactory capacityActual outputLocal assemblyLocal component shareClaimed efficiencyStandardised tested efficiencyNew equipmentOperating equipmentPurchase priceLifetime costWarranty promiseWarranty performanceCustomer announcementSigned order + operating evidence THE BUSINESS CASE BEHIND THE CLIMATE CASE There is a tendency to frame green hydrogen as a climate technology first and an industrial technology second. For electrolysers, the order increasingly needs to be reversed. The climate ambition depends on industrial performance. If electrolysers are expensive, inefficient or unreliable, green hydrogen becomes more expensive. If green hydrogen remains expensive, demand can remain weak. If demand remains weak, manufacturing plants can operate below capacity. If factories operate below capacity, domestic suppliers struggle to build economies of scale. And if component suppliers cannot scale, import dependence can persist. That creates a cycle: HIGH EQUIPMENT COST ↓ EXPENSIVE HYDROGEN ↓ WEAK DEMAND ↓ LOW FACTORY UTILISATION ↓ LIMITED SCALE ↓ WEAK SUPPLY CHAIN India needs to build the opposite cycle: RELIABLE EQUIPMENT ↓ COMPETITIVE HYDROGEN ↓ STRONGER DEMAND ↓ HIGHER UTILISATION ↓ SUPPLIER SCALE ↓ LOWER COST ↓ STRONGER DOMESTIC INDUSTRY That is the real industrial prize. THE BUSINESS-CASE CYCLE Risk cycle: High cost → Expensive hydrogen → Weak demand → Underused factories → Weak supply chain Industrial cycle: Reliable equipment → Competitive hydrogen → Demand → Scale → Lower cost → Stronger industry Centre question: Which cycle will India’s electrolyser industry enter? WHAT THE EVIDENCE SHOULD LOOK LIKE The strongest version of this story is not built around the number of factories announced. It is built around documents. For each major manufacturing claim, the evidence hierarchy should move from: Policy announcement → Letter of award → Factory commissioning evidence → Production data → Customer order → Operating data → Performance data → Independent verification, where available This distinction matters because announcements are not equivalent to operational outcomes. For this reason, the article should not claim that every SIGHT-listed factory is already producing at its awarded capacity unless documentary evidence establishes that. The absence of such evidence is itself important. It tells the reader where India’s manufacturing story currently has a measurement gap. THE EVIDENCE LADDER Announced → Awarded → Commissioned → Producing → Operating → Measured → Independently verified Callout: The higher the evidence, the stronger the claim. THE BOTTOM LINE India has moved beyond the stage where electrolyser manufacturing is merely an aspiration. Policy support exists. Manufacturing capacity has been awarded. Companies are developing production capabilities. The potential for substantial localisation is real. But: CAPACITY IS NOT YET COMPETITIVENESS. A factory can have a nameplate capacity without producing at that level. A machine can be assembled domestically while relying on imported critical components. A low purchase price can conceal higher lifetime electricity, maintenance or replacement costs. And a promising technology can still struggle if customers cannot secure affordable renewable electricity or dependable long-term service. The next chapter of India’s electrolyser story therefore needs fewer ribbon-cutting numbers and more operating numbers. The decisive evidence will come from: production records, component origins, standardised efficiency tests, degradation data, warranties, customer orders, operating experience and lifetime cost. India does not simply need electrolyser factories. It needs an electrolyser industry that can: SURVIVE AFTER INCENTIVES. COMPETE AFTER HEADLINES. PERFORM LONG AFTER THE RIBBON IS CUT. Because a factory can make a stack. The real question is whether the stack can make a business case.SOURCES & DOCUMENTATION: Ministry of New and Renewable Energy — National Green Hydrogen Mission / SIGHT approved projects MNRE National Green Hydrogen Mission — SIGHTMinistry of New and Renewable Energy — SIGHT Supply Incentives MNRE — SIGHT Supply IncentivesPress Information Bureau / MNRE — National Green Hydrogen Mission progress PIB — National Green Hydrogen Mission progressPress Information Bureau / MNRE — Green Hydrogen expansion and electrolyser manufacturing PIB — Green Hydrogen expansion and electrolyser manufacturingMNRE — India's Green Hydrogen Revolution MNRE — India's Green Hydrogen RevolutionCouncil on Energy, Environment and Water — How can Hydrogen Electrolysers be Made in India? CEEW — Hydrogen Electrolyser Manufacturing in IndiaInternational Energy Agency — Global Hydrogen Review 2026 IEA — Global Hydrogen Review 2026International Energy Agency — Global Hydrogen Review 2026: Production IEA — Global Hydrogen Review 2026: ProductionBureau of Indian Standards — Draft efficiency assessment standard for electrolysers BIS — Draft efficiency assessment standard ...Read more

06 Oct 2026

  Jhorkhali is a place where political flags change, but everyday struggles remain. In this travelogue, the author journeys through the village beside the Sundarbans, looking beyond its green fields and waterways to the lives shaped by migration, farming and limited opportunities. The journey traces how families adapt when work takes men away, while women and older people keep homes and farms going. It also explores how salinity, tides, changing livelihoods and tourism are reshaping the local economy. Encounters with people living with the risks of the forest bring a more personal dimension to the journey. Jhorkhali emerges as a place caught between political change, environmental uncertainty and the quiet resilience of its people. SummaryA travelogue through Jhorkhali explores the intersection of politics, migration, agriculture and life beside the Sundarbans. From changing political landscapes and shrinking local opportunities to salinity, tides, tourism and forest-related risks, the journey captures the everyday realities of its people. At its heart, the article asks whether the next generation can build a sustainable life in Jhorkhali without having to leave. The First Sign Was Political My Sundarbans visit began with party flags, not a tiger. For several hours our car moved through Jhorkhali, where waterways seemed to wait just beyond each bend. On the stretch I crossed, BJP flags and offices dominated the roadside; BMS flags appeared in some market places. That was one traveller’s view from a moving car, not an election survey. Still, it stayed with me: a place’s public colours can change faster than the private worries of the people who live beneath them. Ramprasad Sarkar, who told me he had lived there for more than twenty years, had watched local party offices shift from CPI(M) to Trinamool Congress and then BJP. “Parties change, colours of the flags change, people are the same,” he said. His sentence held a joke and a warning. Party offices can repaint their walls; families cannot repaint a lost season or a missing wage. In village politics, the signboard is sometimes the fastest public notice. Ordinary people still have to open the shop the next morning. The Road After School In the 2011 Census, the place people know as Jhorkhali appears in the village register as Lot No 126, under Jharkhali Gram Panchayat in Basanti Block: 15,695 residents—8,142 males and 7,553 females—in 3,820 households, spread across 4,500 plus hectares, or roughly 45 square kilometres. Its literacy rate was 81%, above West Bengal’s 2011 average of 76%; but that neat total conceals a divide, with male literacy at 88% and female literacy at 72%, a gap of 16 percentage points. By both population and area, Lot No 126 is Basanti Block’s largest village. A census is a photograph, not a live headcount; still, this one catches Jhorkhali at scale. Tables are wonderfully tidy. Opportunities seldom are. Local figures shared during my visit, fifteen years after the last census, however, put roughly 12,000 families and about 42,000 people across this area, perhaps greater Jhorkhali including nearby hamlets. The school tally in my notes was one higher secondary school, two secondary schools, 17 primary schools and four small private schools, but no college. A nearby NGO in Joygopalpur runs vocational training linked to a Krishi Vigyan Kendra. For young people the hurdle after school is not ambition; it is the next rung. A course in Canning or Kolkata requires fare, time and often a place to stay, costs that rarely appear in a prospectus. The settlement also carries the memory of families displaced during and after the 1971 war in Bangladesh. Some Hindu refugee families came here after years of hardship elsewhere, and began again on land; farmers’ cooperatives and fishermen’s bodies once helped organize production and income during the Left Front rule. People told me that many of those collective arrangements later weakened under the TMC. Land was divided into small private holdings. The shift changed more than paperwork: it left many households with little scale or bargaining power. Work Leaves Home Before Dawn Migration has become a household plan. Men often head to South India for work and may be gone for years. A 2026 farmer survey in Basanti reported higher migration rates than in Hasnabad, alongside greater female participation in farming. That fits the human picture I saw: when wage-earners leave, women and older people keep the home, school routine and sometimes the fields going. A composite local voice puts it this way: “The money comes home; the work never left.”   The River Runs Through the Ledger The Matla and Vidyadhari are close companions here. The Jhorkhali and Balikhal jetties remind a visitor that water is infrastructure as well as scenery: it carries fish, goods, commutes and the day’s plans. Fields are still planted with rice and vegetables, but the delta asks for constant adjustment. Salinity, rain, tidal inundation and market access make “two crops a year” an aspiration earned plot by plot. Jhorkhali’s economy has acquired a new shoreline. In recent years, people from Kolkata have bought land and built homestays and eco-resorts; tourists arrive for a few quiet days by the forest and river. At Jhorey Joley Jangaley, a Techno India Group venture, I found the newer grammar of this economy in a conference hall and a well-kept swimming pool. The visitor can take a dip while the delta outside negotiates with salt, water and work. Even a resort pool cannot persuade a tide to respect check-out time. UNESCO describes the Sundarbans as the world’s largest mangrove forest and a natural buffer against cyclones. A 2026 study of Basanti reports rain-season freshwater limits, saline dry-season water and weak market infrastructure [2]. That is the background to my own notes: rice and vegetables in the fields, with saline water threatening crops after heavy rain. A composite farmer might say, “We plan the crop; the tide keeps the last appointment.” The Forest Has Names The most arresting encounters were not with wildlife but with people marked by its danger. I met a woman known as a tiger widow, whose husband had entered the forest and never returned, and a man whose face bore a tiger’s attack. He did not want a photograph. I put my camera away. UNESCO notes that fishing, honey gathering and other forest livelihoods bring people into contact with tiger habitat. A loss here is never just a dramatic story for a visitor; it reshapes a household’s work, income and future. The local musical Banabibir Pala keeps the Lady of the Forest in memory. Across the Sundarbans, Bonbibi is revered by Hindus and Muslims, a shared devotion documented by religious scholars. The story belongs to people who know that the forest can feed them and frighten them in the same season. There is an irony in a place where different faiths can share a guardian while families must still face danger with too few choices. A Farmhouse at the End of the Drive The air felt so clean that I began composing a farmhouse plan in my head: a vegetable plot, a few animals, integrated farming, mornings beside the water. My plan required no maintenance, which is how I knew it was still a visitor’s fantasy. I can admire the river and drive away; the people who stay must budget for salinity, school choices, jobs and the risks of the forest. Jhorkhali remains with me as a place where changing flags, a short school list, wages sent home and the tides all appeared in the same frame. The journey began with politics, but ended with a man who declined a photograph and a woman whose loss was more than an anecdote. The question after the visit is simple: can the next generation build a life here without having to leave? ...Read more

06 Oct 2026

As temperatures rise in India, cooling is becoming essential to public health, household satisfaction, and economic productivity. But the growing popularity of air conditioning raises questions about electricity consumption, refrigerant emissions, affordability, and waste. We investigate how the Kigali Amendment and India’s Cooling Action Plan can support a cooling system that looks after people without compromising the environment.   SummaryWe explore how India’s growing cooling demand relates to climate change, public health, and energy usage. Through the Kigali Amendment and India’s Cooling Action Plan, we look at sustainable cooling technologies, refrigerant management, building design, and worker safety. The article highlights the need for affordable, accessible cooling without increasing environmental stresses.   Why is cooling becoming a necessity in India? As temperatures continue to rise, cooling is becoming an important part of everyday life in India. What once was seen as a luxury in many households is increasingly connected to health, productivity, and basic comfort. Heat affects people differently, but the risks can be particularly pronounced for older adults, children, outdoor workers, and people with existing health vulnerabilities. We often think of cooling as switching on an air conditioner or a fan, but the larger cooling system is far more complex. It begins with the design of buildings, the electricity consumed to use equipment, the refrigerants contained within cooling appliances, the workers who install and support them and the way equipment is treated when it is discarded. This wider perspective is important because cooling can protect people from heat but also contribute to environmental pressures. Air conditioners and refrigeration systems consume electricity and, if refrigerants escape, can contribute to global warming.  As more households, offices, hospitals, shops, and industries require cooling, we must consider how this demand can be met responsibly. We cannot simply focus on selling more appliances – we also must ask whether buildings can be designed to stay cooler, whether equipment will be efficient and whether cooling is affordable to the people who need it most. For us, the central question is not whether India needs cooling – it is how we can provide cooling without creating new environmental and social challenges.   What is the Kigali Amendment, and why does it matter? The Kigali Amendment to the Montreal Protocol was adopted in 2016 to reduce the production and consumption of hydrofluorocarbons, commonly known as HFCs. These substances are used in many refrigeration and air-conditioning systems. HFCs were introduced as a substitute for ozone-depleting substances, but many HFCs are powerful greenhouse gases. When they escape from air-conditioning equipment, they can contribute to global warming. The Kigali Amendment, therefore, is concerned with gradually phasing down the production and consumption of HFCs. India ratified the amendment in 2021 and follows a phased schedule for reducing HFC production and consumption. India’s schedule includes a first reduction landmark in 2032, followed by further reductions in 2037, 2042 and 2047. These are the scheduled phase-down landmarks, not evidence that the reductions have already occurred.  The amendment is important because it ties the cooling sector to global climate action – but simply substituting one refrigerant for another is not enough on its own. We also must ensure that new equipment is energy-efficient, safe to run and suitable for India’s climate and cooling needs. If a refrigerant has a lower climate impact but the appliance consumes too much electricity, the overall environmental benefit may be reduced. This is why refrigerant transition and energy efficiency need to move together. The Kigali Amendment gives us an international framework – the challenge is to translate it into practical action across India’s cooling economy.   How is India’s Cooling Action Plan addressing the challenge? India launched the India Cooling Action Plan (ICAP) in 2019 to address cooling demand with a broader, longer-term approach. The plan is aware that cooling is connected to several sectors – including buildings, transport, agriculture, healthcare, and industry. It aims to reduce demand for cooling, improve energy efficiency and encourage better technology, as well as supporting the development of skilled workers. The plan set targets for reducing cooling demand, refrigerant demand, and cooling energy requirements by 2037-38. These targets are intended outcomes and should not be described as achieved unless there is updated evidence. An important aspect of ICAP is its emphasis on reducing cooling needs before relying solely on mechanically produced cooling. If the buildings we occupy can limit the amount of heat we allow in, we may require less air conditioning to keep comfortable. The plan is also aware of the need for trained technicians – cooling equipment requires installation, servicing and maintenance, and refrigerants must be handled with care. Without skilled workers and suitable equipment, even efficient appliances can perform poorly or cause environmental harm. We should view ICAP as a framework that unites elements of the wider cooling system. Its success depends on co-ordination between government agencies, manufacturers, building designers, service providers, workers and consumers.   Why can a cooler room also mean a hotter grid? Air conditioners make indoor spaces more comfortable, but they require electricity to work. When many people start using cooling equipment, electricity demand can surge. This creates a challenge for power systems, especially during periods of extreme heat. If electricity supply relies on fossil fuels, increasing demand can also increase greenhouse gas emissions. This is why the phrase “a cooler room can mean a hotter grid” is important – cooling may protect us indoors, but the electricity we consume can have environmental consequences elsewhere. It would be wrong to interpret this as a reason to discourage people from using cooling when they need it – but it does highlight how we have to improve the overall system. Energy-efficient appliances can provide the same service but consume less electricity. Better building design can reduce the demand for energy-intensive air conditioning. Smart control systems and proper maintenance can help equipment function more effectively. We also have to consider electricity access and affordability. A household may have an air conditioner but avoid using it because of the cost of running it – in this case, appliance ownership does not mean the household has reliable access to cooling. A sustainable cooling system, therefore, has to reduce electricity consumption while ensuring that people can stay safe during extreme heat.    How can passive cooling reduce our dependence on air conditioning? Passive cooling refers to building design and other methods that seek to reduce heat indoors without relying solely on mechanically produced cooling. We can begin by looking at a few simple aspects: shading, ventilation, reflective surfaces and suitable building materials. The way a building is placed, its window size, the materials of its roof and walls – these can influence the amount of heat indoors. For example, external shading can reduce direct sunlight entering a room, and roof treatments may reflect sunlight to reduce the heat they absorb. Ventilation can also be used to create a flow of air when the outdoor conditions permit. These methods have proven to be helpful in many residential, educational, office and community buildings. They can also help reduce electricity costs by reducing the amount of time air conditioners have to work. However, passive cooling is not a universal solution, and its effectiveness varies depending on the climate, building design, humidity, air quality and use. While natural ventilation is ideal in some conditions, it may not be desirable in others. Natural ventilation, for instance, may not be desirable during periods of poor outdoor air quality or extreme humidity. Some hospitals and specialist workplaces also require controlled conditions – which cannot be achieved solely through passive measures. We should view passive cooling as one component of a broader system. Coupled with efficient appliances and thoughtful building design, it can help reduce cooling demand and contribute to indoor comfort.  What makes energy-efficient cooling important? Energy efficiency plays a crucial role in sustainable cooling, as it allows us to get the cooling we want while consuming less electricity. When comparing air conditioners or other equipment for personal use, we should pay attention to their energy-performance information rather than focusing on price, aesthetics or marketing claims. In India, the Bureau of Energy Efficiency offers energy labelling programmes for relevant appliances. These labelling guidelines can help us compare the energy performance of products, provided we look at the label for the product and its requirements. Of course, energy efficiency is not just about the appliance – it depends on several factors, such as the building’s design, the room’s size in which equipment will be used, its insulation and ventilation, as well as its maintenance. An air conditioner that is poorly installed or supported may not deliver the service we expect – in fact, dirty filters or blocked airflow can significantly affect its performance. We should also resist the assumption that the latest appliance will automatically be the right one for every space. Consumers need to understand the cooling requirements of their space, as well as the impact on operating costs, servicing requirements, and energy-performance characteristics. For hospitals, businesses and large buildings, the same principles apply – but on a larger scale, and with energy audits and maintenance playing a prominent role. The aim is not simply to reduce the amount of electricity we consume – but to provide the cooling service we want without consuming more than we must.   Which refrigerants are used, and what happens when they leak? Refrigerants are substances that are contained within cooling systems to help the transfer of heat. Different appliances use different refrigerants, and these substances vary in their environmental impact. Some have high global warming potential – others have a lower impact, but they also have safety, flammability, and operational considerations. These differences mean that refrigerant selection is a balance: it is not simply a matter of choosing whichever has the lowest climate impact. Equipment has to be compatible with a refrigerant, and technicians have to be trained to handle them. Leaks are a major concern because they can occur during equipment operation or servicing, transport or disposal. A refrigeration system may continue to function after a leak, but the system will be less effective and the refrigerant may escape. We need proper servicing records, leak detection and repair practices to reduce these risks. Technicians should have suitable tools and follow safety procedures for the specific refrigerant and equipment. We should also distinguish between refrigerant recovery and reclamation. Recovery refers to removing refrigerant from equipment, as opposed to simply releasing it into the atmosphere. Reclamation involves processing the recovered refrigerant to specific requirements for reuse. Both can be part of responsible refrigerant management, but they are distinct processes.   What happens to cooling equipment at the end of its life? The environmental impact of cooling equipment does not stop when it stops working. Discarded air conditioners, refrigerators and other appliances have materials that can be recycled or reused. They also have refrigerants and oils that may pose environmental and safety risks. Improper dismantling can expose workers to unsafe conditions and valuable materials will be lost when appliances are simply discarded without recovery. We, therefore, must consider the entire lifecycle of cooling equipment – from design and manufacturing to installation, maintenance, repair, collection, and end-of-life treatment. A responsible system would make it easier for us to return old appliances to proper collection points. Service providers and waste handlers must follow suitable procedures for recovering refrigerants and separating materials. Manufacturers can support this by considering product design, repair guidelines, spare parts availability, and take-back options were proper. We should not assume that an appliance has been responsibly recycled simply because it has been collected – we must look at the evidence about where it went, how the refrigerants were treated and which materials have been recovered.    How can district cooling support sustainable cities? District cooling refers to systems in which cooling is produced in a central location and distributed to several buildings through a network. Instead of each building having its own equipment for mechanically produced cooling, a shared system can be used for connected buildings. This can bring out opportunities for improved efficiency, maintenance and energy management depending on local conditions. District cooling can be a relevant model for large developments, commercial districts, hospitals, campuses, and other areas with intensive demand for cooling. However, it is not necessarily the best option for every city or neighbourhood – its performance will depend on factors such as building density, network design, local climate, electricity supply, investment costs, and the reliability of the system. We, therefore, must evaluate district cooling on a case-by-case basis. We need to look at how much energy it will use, what refrigerant it will rely on, how cooling is distributed, and whether the service will be affordable for the buildings and people it serves. District cooling is likely to be one component of sustainable urban infrastructure, but it has to complement other measures such as passive cooling and efficient appliances.   Why are hospitals an important part of the cooling conversation? Hospitals not only rely on cooling but also have significant cooling needs. Some spaces require controlled temperatures to support patient care, protect medicines, or operate equipment. This means reliable cooling is particularly important during extreme heat – but a cooling failure can impact patients, staff and hospital operations. At the same time, hospitals may have substantial cooling demands due to the long hours they run and the range of temperature-sensitive spaces. We should assess hospitals from both a public-health and an energy-efficiency point of view – the goal is not to reduce cooling indiscriminately, but to ensure that necessary conditions are kept while reducing unnecessary energy use. Hospitals must review their maintenance schedules, cooling arrangements, and energy performance. They must look at whether different areas require different cooling settings and whether building improvements can reduce heat gain. To understand the situation, we would have to speak to hospital administrators, maintenance staff, and healthcare professionals. Useful evidence would include indoor temperatures, equipment types, energy costs, maintenance schedules, and what resources exist for power interruptions. A specific hospital case should be based on verified reporting rather than assumptions – this would help prove how cooling decisions impact patients, workers, and costs in actual practice.   Who are the workers behind India’s cooling economy? Behind every functioning air conditioner or refrigeration system is a network of workers who install, repair, and keep equipment. Refrigeration and air-conditioning technicians are essential in the cooling transition – they handle refrigerants, inspect systems, identify leaks and perform repairs. As India moves towards new refrigerants and more efficient technologies, technicians will require updated training. We should not treat training as a one-off activity – workers have to have access to updated technical knowledge, appropriate tools and practical instruction. They also need safe working conditions and procedures related to refrigerant handling. Informal workers may face additional barriers such as the costs associated with training, limited access to equipment and uncertain employment conditions. A policy transition that ignores these may not be effective. We should include technicians in discussions on sustainable cooling, as their experience can help highlight practical problems such as recurring equipment failures, the availability of spares and difficulties in recovering refrigerants. A technician-focused field report could look at the refrigerants technicians typically handle, the tools they use, their training and the challenges they encounter during servicing. These details can help connect national climate targets with day-to-day working conditions.   How can we make cooling accessible without increasing inequality? As we develop our appreciation for new cooling technologies, we need to remember that access is not simply about availability. A cooling system may exist in a city, but it may not be affordable to nearby households. A hospital may have modern equipment, but maintenance costs may be too high. Technicians may receive training, but they may struggle to obtain recovery tools. We, therefore, must link cooling policy to affordability, infrastructure, and working conditions. For households, this can begin with better information on energy-efficient appliances, practical building improvements, and affordable servicing. For hospitals, it means protecting critical cooling while reducing unnecessary energy use. For businesses it means reviewing their equipment, refrigerant management, and the full cost of operating cooling systems. For policymakers, the challenge is to co-ordinate the various aspects of the system. We need building policies that reduce unnecessary heat gain, appliance standards that promote energy efficiency, refrigerant regulations that enable safe transitions and training programmes that reach the technicians who install and keep equipment. We also need reliable information – without data on electricity consumption, refrigerant leakage, equipment performance, indoor temperatures, and waste, it will be hard to measure whether systems are delivering the intended benefits. This is where independent research organisations, public-health experts, worker associations, and civil-society groups can contribute – their work can help us see the practical barriers that may not be clear in policy documents or industry announcements. Sustainable cooling must be measured not only through the technology being installed but also through the quality of services people are receiving, the environmental impact and the conditions in which workers are performing their roles.   What can we do at home and at work? Beyond national policy and industrial transformation, there are practical actions we can take to improve the way we use cooling. At home, we can reduce the amount of direct sunlight entering our premises by using right curtains, blinds, or shading. We can keep fans and air conditioners, keeping filters clean per manufacturers’ guidance and avoiding unnecessary use. We should use air conditioners following the needs of the room – rather than assuming lower temperatures will always be preferred. These settings can reduce electricity consumption while keeping our comfort. At work, we can review our use of fans or air conditioners, avoiding unnecessary energy use. If our workplace is air conditioned, we can check whether the temperature and airflow are proper and raise concerns if not. We can also consider the use of building materials and designs that help keep spaces cool without consuming vast amounts of electricity. As citizens, we should engage with building or appliance standards and energy labelling, encouraging our communities to embrace opportunities for passive and active cooling. We can support cleaner energy generation and promote responsible electricity use. We can ask questions about how our electricity is generated – is it cleaner? Is it cheaper? – and encourage our households and workplaces to reduce consumption where they can. We can request more information on waste management and refrigerant recovery – rather than assuming recycling happens automatically, we must demand accountability. This can help us assess whether our cooling systems are genuinely helping the environment. Finally, we can take care of our air conditioners and make sure they are supported, serviced, and repaired responsibly. This will ensure they are performing the most efficient service possible.   What should we check when evaluating a cooling system? To understand whether a cooling system is sustainable, we need evidence that covers its full lifecycle. Cool-home and cool-workplace checklist Refrigerant: What type is used, and what are its climate and safety characteristics? Energy performance: What energy label or performance information is available? Installation: Was the equipment correctly sized and installed? Service record: Is there a record of maintenance, repairs and leak checks? Recovery and reclamation: Is refrigerant collected during servicing or decommissioning, and where does it go? Disposal route: Is the appliance sent to a proper collection or treatment facility? Indoor temperature: Are indoor conditions suitable for the people using the space? Electricity cost: Is cooling affordable to use? Worker certification and training: Are technicians trained and equipped to handle the refrigerant safely? Cooling lifecycle Design and manufacture → Installation → Operation → Servicing and leak repair → Refrigerant recovery → Reclamation or proper treatment → Appliance collection and end-of-life processing This lifecycle approach helps us look beyond the appliance itself. It also gives consumers, businesses, and policymakers a clearer set of questions to ask when assessing cooling claims.   Conclusion: Cooling people without overheating the planet As we look towards India's cooling future, we need to recognise that cooling is no longer simply a question of comfort. It is connected to public health, energy security, employment, infrastructure, and climate action. The Kigali Amendment provides an international framework for reducing HFC production and consumption. India's Cooling Action Plan offers a broader approach that connects cooling demand, energy efficiency, refrigerant management, technology, and skills development. Together, they give us a starting point for rethinking how cooling is provided across the country. But the real test of this transition lies beyond policy documents and technology announcements. We need to understand whether households can afford to stay cool during extreme heat. We need to know whether hospitals can support reliable cooling when patients need it most. We need to examine whether technicians have the skills, tools, and working conditions necessary to manage refrigerants safely. And we need to set up whether cooling equipment is repaired, recovered, and disposed of responsibly. We also need to move away from the idea that one technology can solve every problem. Passive cooling can reduce heat entering buildings, efficient appliances can reduce electricity use, and district cooling may offer shared solutions in suitable locations. But each approach needs to be evaluated according to local conditions, costs, access, and environmental performance. Most importantly, we need to understand that sustainable cooling is not only about reducing harm. It is also about expanding access to an essential service. A household that cannot afford to use its air conditioner, a hospital struggling to support critical temperatures or a technician working without proper recovery equipment stands for a gap in the cooling system. We should therefore measure progress through more than the number of appliances sold or the refrigerants replaced. We need to consider whether cooling is reliable, affordable, energy-efficient, and accessible, while ensuring that workers and waste-management systems are included in the transition. The next time we enter a cool room, we should look beyond the temperature on the thermostat. We should ask how that cooling was produced, how much energy it needed, what refrigerant it uses and what happens when the equipment reaches the end of its lif Because the future of cooling is not simply about making our rooms colder. It is about building a system that protects people from heat without adding unnecessary pressure to the planet.   References and sources Ministry of Environment, Forest, and Climate Change — India Cooling Action Plan (ICAP) https://www.pib.gov.in/PressReleaseIframePage.aspx?PRID=1805795&reg=48&lang=2 Official framework for cooling demand reduction, refrigerant transition, energy efficiency, and cooling technology development. Press Information Bureau — India Cooling Action Plan      https://www.pib.gov.in/indexm.aspx?reg=48&lang=2 Government information on implementation, passive cooling in buildings and technician training. Press Information Bureau — Kigali Amendment to the Montreal Protocol       https://www.pib.gov.in/PressReleasePage.aspx?PRID=1746946&reg=48&lang=2 Details on India's ratification, HFC phase-down schedule and expected climate benefits. ...Read more

06 Oct 2026

BlurbThe present article discusses the potential application of India’s green finance taxonomy in climate-positive financing, including climate-friendly investments. The article also addresses ways through which green financing can prevent greenwashing and contribute to achieving India’s decarbonisation aims. The article provides an overview of the climate finance area in India and compares it to South Africa. SummaryWe look at howIndia can develop a credible green finance system that advances India’s environmental goals. The article addresses issues of greenwashing, taxonomies, experience in South Africa, and the need to strengthen green finance. We also examine the difficulties in designing a framework and outline how India can develop its strategy. Finally, we try to understand how green finance can go beyond lip service and truly make a difference in building a sustainable and climate resilient future.   Is India’s Green Finance Really Green?   A green label is a gate. Who set the lock, and who gets the key? Imagine two Indian companies approaching a bank for money. The first is a renewable energy company building a solar power plant. The second is a steel manufacturer trying to replace its coal-intensive production process with newer technology. Both require finance to reduce emissions but come from different starting points. The solar company may already fit comfortably into a notion of a green investment. The steel manufacturer, meanwhile, is in an industry that is challenging to decarbonise. Its transition could reduce pollution and emissions significantly, but it may rely on fossil fuels while innovative technology is being introduced. Now comes the subjective question: should both projects have access to green finance? If we only finance activities that are already environmentally friendly, we risk leaving some of the largest sources of emissions untouched. But if we allow every company to call its business sustainable because it promises to improve in the future, we risk making green finance another marketing exercise. This is where India’s proposed green finance taxonomy enters the conversation. A taxonomy is not simply a list of green industries. It is a system of criteria that allows us to figure out which economic activities are environmentally sustainable, are making a credible transition and do not meet the required standards. As India develops its infrastructure, industries, and financial markets, we should look beyond the colour of a financial label. We need to ask what the money supports, what environmental improvement it can achieve and who might miss a transition. The challenge is not simply to make finance greener. It is to make a transition credible and accessible. What is a green finance taxonomy, and why do we need one? A green finance taxonomy defines which economic activities qualify as environmentally sustainable or contribute to a recognised environmental aim. It provides financial institutions, companies, investors, and regulators with a common language to discuss sustainability. At first, this may sound like a technical exercise but think about how often we meet words such as green, eco-friendly, climate-conscious, and sustainable. A company may describe a new factory as green because it uses solar electricity. Another may call a building sustainable because it has energy-efficient lighting. A third may issue a bond to finance cleaner transport. All three may be making genuine efforts, however, without clear criteria, it is hard to compare their claims. A taxonomy tries to answer a more precise question: what environmental aim does an activity support, and what proof shows that it satisfies the required standard? For us, the importance of a taxonomy lies in the distinction between a promise and a measured outcome. A company saying it intends to reduce emissions is different from a company showing how much it expects to reduce it, when and how it will verily. This distinction is critical because green finance involves public trust as well as private money. Investors need to know what their money funds and banks need a consistent way to assess projects. Companies need to know what they must prove to make environmental claims. A taxonomy can provide a common one. But is every green-looking project green? Not necessarily. Imagine a commercial building that installs solar panels on its roof. The panels may reduce its dependence on electricity generated from fossil fuels. But what if the building consumes excessive amounts of water, has poor waste management, or is built in an ecologically sensitive area? The solar panels are a good move, but it does not necessarily make every aspect of the building environmentally sustainable. The same problem can exist in transport. An electric bus has no tailpipe emissions while running, but the environmental impact of its battery production, electricity supply and eventual disposal still matters. This is why we need to examine projects, not rely on one attractive feature. A taxonomy should help us separate genuine environmental contributions from claims that are incomplete, exaggerated, or unsupported. It should also consider that environmental performance is not often an all-or-nothing scenario. Some activities are already relatively low-carbon, some are moving away from high-emission practices, and some may have no credible transition plan at all. The challenge is to create a framework that recognises these differences without weakening the standards that make green finance meaningful.  Why does India need a taxonomy when it already has green finance? India’s development needs make this question particularly important. We are building roads, expanding cities, improving public transport, increasing electricity generation, and supporting industries that employ millions of people. These activities require substantial investment, and we face the challenge of reducing emissions, improving resource efficiency, and adapting to climate-related risks. India’s transition cannot be achieved by financing renewable energy alone. It requires changes in sectors such as steel, cement, construction, freight, and urban infrastructure. These sectors are intrinsically tied to everyday life. Steel is used in bridges, railway tracks, buildings, and manufacturing. Cement is essential to housing and infrastructure. Transport links workers to jobs and goods to markets. Buildings dictate how much energy and water we consume. If these sectors continue to grow without improving their environmental performance, the costs of development may be harder to manage. At the same time, refusing finance to every high-emission sector is not a realistic solution. Existing factories cannot all shut down overnight and be replaced completely by new facilities. Such an approach could disrupt employment, increase costs, and hinder essential infrastructure development. We need to consider how capital can support a credible transition. A taxonomy can help by clarifying which activities deserve financing because they are already sustainable and which may qualify because they are making credible progress towards an environmental goal. It can help investors find projects that are not yet green but may contribute to long-term decarbonisation. A taxonomy, however, does not create money by itself. It does not guarantee that banks will lend, that investors will accept the risks or that companies will have the technology to transition. Its role is to enhance the quality of decisions around where money goes. How is this connected to India’s development goals? It goes beyond climate policy. SDG 8 – Decent Work and Economic Growth: We need to support economic activity and jobs while ensuring that the transition does not unfairly burden workers. SDG 9 – Industry, Innovation, and Infrastructure: Cleaner industrial processes, resilient infrastructure and technological innovation require long-term investment. SDG 12 – Responsible Consumption and Production: Resource efficiency, waste reduction and responsible production must become part of how businesses run. SDG 13 – Climate Action: Financing emissions reductions and climate resilience is essential to responding to climate change. SDG 17 – Partnerships for the Goals: Governments, banks, companies, research institutions, and climate funds need to work together because no single institution can finance or deliver the transition. A taxonomy can connect these goals to financial decisions. But that connection only becomes important when applying a framework to actual projects and not simply mentioning it in sustainability reports. Who decides what qualifies as green? This is where the issue becomes more complicated. A green finance taxonomy is not a universal definition that every country follows automatically. Different economies have different industrial structures, energy systems, development priorities and climate challenges. A country that has a large share of renewable electricity may have different transition needs than one where coal is deeply entwined with electricity generation and industrial activity. India must develop criteria that reflect its own economic realities while being clear enough for international investors to understand. The Reserve Bank of India, the Securities and Exchange Board of India, the Ministry of Finance and other relevant government institutions all have roles in the wider financial and regulatory environment. Their responsibilities are not the same, and a taxonomy would need clearly defined institutional ownership, coordination and implementation arrangements. For example, financial regulators can set up disclosure and market requirements within their respective mandates. Government departments can shape national climate and economic priorities. Sector ministries can contribute technical knowledge about industrial processes, transport systems and infrastructure. Banks and investors, meanwhile, need to translate those criteria into project screening and lending decisions. But who decides whether a steel plant’s transition plan is credible? Who checks whether a building meets environmental requirements? Who decides whether the social costs of a project are acceptable? These decisions cannot rely entirely on a company’s claims. We need transparent criteria, independent verification where necessary and a clear process for challenging decisions. Otherwise, the taxonomy may become a system in which companies with better consultants and more persuasive reports qualify more easily than those delivering meaningful environmental improvements. The question is not only who writes the rules, but who can understand them, who can afford to comply with them and who is responsible when the evidence does not match a claim.    Where does India stand in comparison with South Africa? India is not the only country trying to define credible green finance. South Africa provides a useful comparison because it has also faced the challenge of aligning climate objectives with an economy that relies significantly on carbon-intensive industries. The comparison is particularly relevant because both countries need to address the environmental consequences of economic activity without ignoring employment, energy access and development needs. South Africa’s Green Finance Taxonomy was developed through a collaborative process involving public institutions, financial-sector stakeholders, and technical experts. Its framework is based on environmental objectives and technical criteria, with an emphasis on defining activities that contribute to environmental sustainability. India’s approach should be considered in the context of its own policy development and financial system. The Indian government has been working on a green taxonomy framework while the country’s green finance landscape also includes instruments such as sovereign green bonds and regulatory tools relating to sustainable finance. The important distinction is that a taxonomy is not the same thing as a green bond framework or a disclosure rule. A bond framework explains how a particular issuer intends to use and report on funds. A taxonomy defines the environmental criteria against which activities may be assessed.   What can we learn from the comparison? The South African experience shows the importance of having technical criteria that can be used by financial institutions, not just broad environmental language. India needs to develop a framework that is rigorous enough to prevent misleading claims while being flexible enough to acknowledge credible transition activities. We should also look at how the two countries approach the social dimensions of the transition. In economies where employment and local livelihoods are tied to coal, mining, heavy industry and related supply chains, environmental policy cannot be separated from the question of what happens to workers and communities. A project may reduce emissions while causing substantial disruption to a community that depends on an existing industry. That does not automatically make the project a bad choice. The transition plan must address those consequences instead of treating it as someone else’s problem. The comparison also poses a practical question for international finance. If India and South Africa use different technical thresholds, how can investors compare projects across both markets? The answer is not necessarily to copy one country’s framework into another. It is to make the differences transparent and explain the reasons behind them, ensuring that the underlying claims stay credible. A taxonomy should help us understand the transition, not hide its complexity behind a label.   When does a project deserve the label?  To understand what a taxonomy could signify in practice, it is helpful to think beyond definitions and look at the kinds of projects that could approach a bank or investor for finance. Steel, buildings, and transport serve as three sectors with different potential to contribute towards environmental aims, but also different risks that a credible taxonomy should be prepared to deal with. Case study 1: Steel – can a high-emission sector qualify for transition finance? Steel is vital to India’s development. It finds use in railway infrastructure, housing, machinery, and even renewable energy equipment. But the production process for conventional types of steel is extremely emissions-intensive, particularly when coal-based methods are used. Transitioning away from these processes entails significant investments, technological upgrades, and a long trajectory. Suppose a steel manufacturer proposes to replace its current equipment with more energy-efficient machines, increase the amount of scrap steel being used and transition to lower-emissions production technologies step by step. The company approaches a bank and asks for transition finance. Should the project qualify? The answer should rest on what the company can prove. First, we need to look at the project’s substantial contribution towards any environmental aim. Does the proposed project reduce emissions significantly compared to the manufacturing process currently being used? Is the improvement measurable? Has the company projected a credible timeline? Second, we need to consider if the project has significant adverse effects on other environmental areas. Does it worsen water stress? Does it create added pollution? Are waste materials handled properly? Are hazardous substances controlled? Third, we need to assess the implications of the project for society. What happens to the workers who may be displaced when their production technology is upgraded? Are they provided training? Are they protected from health hazards? Can the local community see shifts in employment patterns and environmental quality? These are crucial factors to ask, as a transition project may not at once reach the performance level of an emissions- or impact-free facility. A taxonomy should therefore distinguish between a project that is genuinely transitioning and one that is simply replicating its operations under a new name. For example, a company cannot simply demonstrate a credible transition by announcing a future ambition and continuing its current course of action. A bank should seek for a documented baseline, a defined pathway for emissions reductions, the investments in this process, the milestones being achieved and a method for tracking progress. The question: Is the financing enabling a measurable change in steel production or just supporting business as usual? India’s electric mobility transition encompasses electric two-wheelers, cars, buses, and other means of transport. Electric vehicles can cut down tailpipe emissions and potentially contribute to overall emissions reductions, depending on the electricity mix and the vehicle’s life cycle. But an electric vehicle is far from impact-free. Battery production requires materials and energy. Battery disposal and recycling need processes. Charging electricity generation affects the overall emissions profile. Suppose a city transport authority has decided to replace some of its diesel buses with electric buses. The project may reduce air pollution and improve the efficiency of public transport. But a taxonomy evaluation should look at more than the number of electric buses that will be acquired. How much diesel consumption will be avoided? What are the emissions reductions expected? Is the charging infrastructure reliable? How will batteries be disposed of at the end of their useful life? Will the buses improve access to public transport for those who depend on it? We should also look at the project in the broader transport context. An investment in public transport may reduce emissions by enabling more people to use it, compared to private vehicles, but a similar project that promotes private mobility use without considering congestion and other transport factors may have different implications. The difference is vital in a financing decision. Finance should support the environmental contribution of the project and not reward the mere presence of a particular technology. The question: Does the project improve the transport system’s performance, and can this improvement be demonstrated?   Few Case Studies   Case Study 1: India’s Sovereign Green Bonds from fundraising to proving impact   India’s Sovereign Green Bonds (SGBs) were issued in 2023 to partially fund climate/environmentally sensitive projects. The interesting twist here is the government’s desire to go beyond ‘raising green money’: the Department of Economic Affairs published the Sovereign Green Bonds Impact Report 2022-23 in February 2026, along with reports on the allocation of proceeds. This has the effect of testing India’s tentative taxonomy – does the project the money is being raised for qualify as green, and can the impact be measured following financing? The issue with the case study then moves the discussion from ‘was it labelled green’ to ‘what did the money do’.   Case Study 2: Green Deposits – the issue of defining ‘green’   The RBI’s Green Deposit Framework is another Indian innovation in this area. Banks raising green deposits must follow the specified allocation matrix, which includes renewable energy, clean transportation, sustainable water and waste management, and green buildings among others. Crucially, the RBI insists on mandatory reporting, third party assurance/assessment and impact measurement while acknowledging the risk of greenwashing. Before the final taxonomy is agreed, however, the RBI will use an indicative list of eligible activities. Green deposits then, present another opportunity to explore whether a given classification can truly support genuine environmental finance, or if ‘green’ is likely to be used primarily for marketing purposes.   What is substantial contribution, DNSH and social safeguards? Substantial contribution: What environmental improvement does the project deliver? A project should prove its contribution towards at least one recognised environmental aim. That could take the form of reducing greenhouse gas emissions, building climate resilience, reducing pollution, increasing resource productivity, or conserving ecosystems. But one must remember the word large. A minor improvement should not qualify a project for the same treatment as a major environmental transformation. For example, a factory has reduced its energy consumption slightly. This may be good, but the assessment should look at whether this is substantial, in line with the relevant criteria, and the project’s overall environmental performance. A strong assessment requires a baseline, measurable metrics and evidence that can connect the improvement to the project that is being financed. DNSH: Does the project create significant harm elsewhere? DNSH stands for “Do No Significant Harm.” The principle acknowledges that environmental aims are intertwined. A project that reduces emissions may cause significant harm to water resources, biodiversity, or pollution. A solar project, for example, may contribute to cleaner electricity generation, but its location, land use, water requirements, and waste management will need to be assessed. Similarly, an energy-efficient building may reduce electricity consumption, but may also involve significant harm in terms of construction practices and land use. DNSH helps in avoiding a narrow assessment in which one environmental benefit is used to bypass all other impacts. It does not necessarily require each project to have no impact. Infrastructure and industrial projects inevitably have unavoidable impacts, and the purpose of DNSH is to name, prevent, reduce, and manage significant harm according to the set criteria. Social safeguards: Who bears the cost of the transition? Environmental progress should be measured not on the cost that it imposes on people. A factory modernisation project may change the skills needed from its workers. A mine closure may negatively affect local businesses. A transport project may require land acquisition or affect livelihoods. A credible assessment should look at relevant risks and safeguards that can address them. These could take the form of worker health and safety, labour practices, community consultation, grievance mechanisms, fair treatment, and redeployment opportunities, if applicable. Social safeguards should not be considered a box-ticking exercise after the finance decision has been made. They should inform project design, risk assessment, and monitoring from the very beginning. A project that reduces emissions but leaves workers and communities without a plan for managing these consequences raises questions about whether its transition is truly sustainable. The three principles are therefore connected. Substantial contribution asks what environmental benefit is being delivered. DNSH asks what other environmental damage may occur. Social safeguards ask whether the transition is respectful of the people it affects.   Why could small businesses be left out of the green finance conversation? The key challenge is not whether large companies can understand a taxonomy. It is whether smaller businesses can afford to prove that they meet its requirements. Micro, small, and medium enterprises, or MSMEs, are key to India’s economy and find existence in a multiplicity of sectors - manufacturing, services, construction, transport, supply chains, among others. Many are likely to want to improve their energy performance, reduce waste, upgrade machinery, or adopt cleaner production methods. Yet they may not have a sustainability department, or the consultants to prepare detailed environmental reports. Imagine a small manufacturing unit that wants to replace its old machine with a more energy-efficient model. The owner knows that the new machine will consume less electricity. The business may have its electricity bills to prove this. But the lender could require a detailed baseline of emissions, documentation of the recent technology being adopted, an environmental screening, a project-level assessment and ongoing reporting.   For a large company, this process may be handled by its sustainability department. For a small business, it could incur additional costs and time, apart from unfamiliar documentation. This presents a conundrum: the businesses that need finance to make their environmental improvements may end up being the ones least able to prove that they qualify. A taxonomy that is complicated could inadvertently channel finance to companies that already have the resources to comply. The issue is not that environmental standards should be lowered for smaller businesses. It is about ensuring that compliance is practical and possible. What would help MSMEs? We could start with standardised reporting templates and simplified screening tools for smaller projects. Instead of asking every small business to prepare a lengthy sustainability report, lenders could use relevant indicators, such as energy consumption, fuel use, water consumption, and waste generated. Wherever applicable, the businesses could use verified utility bills, equipment specifications, energy audits, or other accessible documentation to make their case. Banks could also offer technical aid through partnerships with energy auditors, industry associations, and sustainability experts. A small enterprise seeking finance to get a cleaner machine should not have to go through the same administrative process as a large industrial complex, if the scale and risks of the projects are different. At the same time, simplified reporting should not become a loophole for unsubstantiated environmental claims. The aim should be to make reliability easier to achieve, not to remove the need for evidence altogether. What evidence should we demand before accepting a green label? A taxonomy becomes meaningful only once its criteria have been translated into action on the ground. If a company declares that a project qualifies for green or transition finance, we should demand to see the documentation.   How do Indian examples bring this debate closer to home?   We do not have to look far to understand why a credible taxonomy matters. Several existing Indian initiatives show how environmental aims are being connected to investment, infrastructure, and industrial development.   These examples provide context to the kind of activities a taxonomy may need to assess, and the kind of evidence needed. Sovereign green bonds: Where does public finance fit in? India introduced its Sovereign Green Bond framework to mobilise resources for public-sector projects with environmental benefits. The framework provides a way to raise funds for eligible green expenditure, including areas such as renewable energy, clean transportation, energy efficiency and other environmental objectives. This is an important example because it shows how climate-related priorities can be connected to financial markets.   However, the distinction between a green bond framework and a taxonomy remains important. A bond framework identifies eligible expenditure for a particular issuance. A taxonomy establishes broader criteria for determining whether economic activities qualify under defined environmental standards.   The experience of sovereign green bonds also raises a question about accountability: how do we know that the money raised is being used for the stated purpose, and how do we assess the environmental outcomes of the funded projects?  Allocation reports, transparent project selection and impact reporting can help answer those questions.   Green hydrogen: Can appearing technology support industrial transition?   India’s National Green Hydrogen Mission aims to support the development of green hydrogen production and its use across relevant sectors.   Green hydrogen has potential applications in areas such as fertiliser production, refining and industrial processes where reducing emissions can be challenging.   For a taxonomy, this creates an important assessment question. A project should not qualify simply because it uses the words green hydrogen.   India’s electric mobility initiatives, including support for electric buses and charging infrastructure, give another relevant example. Electric public transport can contribute to lower local air pollution and reduced transport emissions, depending on the electricity mix and the wider system. But a taxonomy assessment should go beyond counting the number of vehicles purchased. It should consider the expected emissions reduction, energy use, charging infrastructure, battery management, and the accessibility of public transport. The wider lesson is that the environmental value of a project depends on how it works in practice, not only on the technology it adopts.   Energy-efficient buildings: Can better design reduce future costs?   India’s building sector offers opportunities to improve energy efficiency through better design, equipment, and construction practices. The Bureau of Energy Efficiency’s Energy Conservation Building Code provides a policy context for improving the energy performance of relevant commercial buildings. This is useful when considering how a taxonomy could assess buildings. It points towards measurable standards rather than broad claims about sustainability.   However, compliance with an energy-efficiency standard should not automatically be presented as proof that a building meets every environmental aim. Water use, construction waste, location, and other relevant impacts still need to be considered. Across these examples, the same lesson appears repeatedly: existing Indian initiatives can provide a foundation, but the taxonomy must make the connection between an activity, its environmental contribution, and the supporting evidence clear.   What happens when a project is not fully green yet?   This is the most important question in the entire debate. If a taxonomy only recognises activities that are already environmentally sustainable, it may overlook projects that could deliver significant reductions in emissions over time. But if the framework accepts every project that promises to improve, it risks becoming too broad to be useful.   We need a way to distinguish between a credible transition and a convenient relabelling exercise. Consider a factory that currently uses a high-emission production process. The company proposes a phased investment programme to improve efficiency, reduce fossil fuel use and introduce cleaner technologies. The project may not qualify as fully green today. However, it could potentially qualify for transition finance if it meets clearly defined requirements. Those requirements should include a credible baseline, measurable milestones, a realistic timeline, and evidence that the project is moving towards a recognised environmental aim. The company should also explain how it will avoid locking itself into high-emission infrastructure for decades.   Transition finance should not become a permanent category for activities that repeatedly promise future improvements without delivering them. A credible framework could use periodic reviews to assess whether projects are meeting their milestones. If a company does not meet its commitments, the financing arrangement may need corrective measures or other consequences, depending on the terms and applicable rules.   The purpose is not to punish every delay. Industrial transitions can face technological, financial, and supply-chain challenges. But those challenges should be shown and addressed rather than hidden behind a sustainability label.   A simple decision tree for green finance   Start: What activity is being financed?   Find the project, environmental goal and available evidence.   Does it meet the relevant technical criteria and prove substantial environmental contribution?   Yes Eligible Proceed to DNSH and social-safeguard assessment. Not yet Assess transition   Illustrative screening process, not an official Indian regulatory decision tree. Eligibility depends on the applicable taxonomy and its technical criteria.   The “not enough evidence” category is especially important.   A project should not automatically be treated as environmentally harmful simply because the applicant has not yet supplied sufficient information. But it should not receive a green classification either. This distinction gives businesses an opportunity to improve their documentation while protecting investors from claims that cannot be verified.   It also makes the system more transparent. Instead of allowing decisions to depend on informal judgement, the framework can explain what evidence is missing and what needs to be done next.   How can India make its taxonomy work in practice?   India needs to make the taxonomy more specific and precise, rather than leaving “green” as an umbrella term. The proposed taxonomy for 2025 is already science-based and includes transition arrangements at a country level, and “Do No Significant Harm” principle, among others. It should be expanded to define specific criteria for different economic sectors, including steel, cement, transport, buildings, and other intensive industries, so that the finance allocated to them is genuinely impactful.   The second is a critical review and disclosure stage. India has a useful example of a Green Deposit Framework, developed by the Reserve Bank of India (RBI). It requires third-party verification and assessment of deposits, with calculations of emissions averted, renewables generated, and waste recycled. Similar requirements for reviewing green bonds and other securities were introduced by SEBI in February 2026. Thus, India can take advantage of extensive independent expert reviews of ESG-linked financial instruments and their impact to ensure credibility of “green” labeling.   The third pillar is redirecting finance, which implies actual transformation. RBI has identified a taxonomy as an essential basis for engaging financial institutions, supervisors, and stakeholders in transitioning towards a sustainable economy. It should be used to align banking activities, including credit allocation, investment, disclosure, and transition finance, with climate goals while being mindful of MSMEs’ needs. The key is to ensure that the finance redirected towards climate goals genuinely impacts sustainability: instead of being an abstract concept, “green” should be quantified in specific emissions reduced, cleaner energy, or other concrete outcomes.    First , create clear and measurable criteria The criteria should be specific enough to guide real financial decisions.   Broad terms such as “cleaner production” or “sustainable infrastructure” are not sufficient on their own. The framework should explain the relevant thresholds, evidence requirements, and environmental aims. It should also be updated as technologies develop and scientific understanding improves.   However, regular updates should not make the framework unpredictable. Companies and investors need reasonable clarity about how criteria may change and how existing projects will be treated.   Second, recognise transition without weakening standards India needs finance for sectors that cannot become low carbon overnight. A separate transition pathway could help direct investment towards credible improvements in steel, cement, transport and other difficult-to-decarbonise sectors. But the pathway should require evidence of progress, not just future promises. Clear milestones, monitoring, and transparent reporting can help distinguish genuine transition activities from relabelling.   Third, make compliance accessible to MSMEs Smaller businesses should have access to simplified tools, standard templates, and affordable technical support. Banks and financial institutions could work with industry associations, auditors and public agencies to help smaller enterprises measure energy consumption, show improvements, and prepare financing applications. This would help prevent the taxonomy from becoming a system that only large companies can navigate.   Fourth, strengthen transparency and independent verification  The public should be able to understand why a project has been classified in a particular way. Where proper, independent technical review can strengthen confidence in the assessment. Financial institutions should also show their screening approaches and explain how they watch projects after financing. This does not mean every business must publish confidential commercial information. It means the environmental basis of a financial claim should be sufficiently transparent to be examined.   Second, connect finance with technical help A company may have a credible transition plan but lack the technology or ability needed to implement it. This is where partnerships become important. Banks can provide finance, but technical institutions can help find upgrades. Climate funds can support projects that face financing barriers. Industry bodies can share knowledge and help smaller businesses understand the requirements. Public institutions can support common standards and infrastructure, while companies stay responsible for implementing and reporting on their projects. The transition will require more than a financial classification system. It will require a support system that helps projects become eligible in the first place.   Who gets the key to green finance?   A green finance taxonomy may appear to be a document filled with technical criteria, thresholds, and reporting requirements. But at its heart, it raises a much more human question: who gets access to the money needed to change?  A large corporation may have the resources to hire sustainability consultants, prepare detailed reports, and develop a long-term transition strategy. A smaller manufacturer may be trying to replace an inefficient machine while managing everyday costs. A renewable energy developer may already fit familiar definitions of green investment. A steel manufacturer may need years of investment before its production process becomes significantly cleaner.   A taxonomy must recognise these differences without allowing environmental standards to become meaningless. If it focuses only on activities that are already green, it could leave some of the most important transition opportunities behind. If it accepts vague promises, it could allow companies to use green labels without making meaningful changes. The way forward lies in combining clear technical criteria with credible transition pathways, strong environmental safeguards, and practical support for businesses. We also need to remember that taxonomy alignment is different from environmental impact.   A project may meet a set of eligibility criteria, but the real-world outcome still depends on implementation. A building may meet an efficiency threshold, but its actual energy use needs to be checked. A factory may receive transition finance, but its emissions pathway needs to be tracked. A transport project may buy electric buses, but its broader environmental and social benefits need to be assessed. The label is the beginning of the process, not the end. India’s green finance transition will require cooperation between regulators, financial institutions, industry, researchers, and civil society. It will also require a willingness to acknowledge uncertainty, show shortcomings, and improve the system as new evidence becomes available.   The purpose of a taxonomy should not be to make every financial product look green. It should be to help us understand which investments are environmentally credible, which are genuinely moving towards sustainability, and which still need to prove that they deserve the label. Because a green label is a gate. But the real test is not how many companies are allowed through it. The real test is whether the money that passes through that gate helps build a cleaner, fairer and more resilient economy.   References  Ministry of Finance, Government of India — Draft Framework of India’s Climate Finance Taxonomy (2025) https://www.pib.gov.in/PressReleaseIframePage.aspx?PRID=2127562&reg=48&lang=2   South African National Treasury — South African Green Finance Taxonomy, 1st Edition (2022) https://www.gov.za/national-treasury   ...Read more

25 Sep 2026

  The eight myths keeping CSR trapped in compliance and a practical path from two per cent spending to durable social impact, as explored by Professor Ujjwal K Chowdhury.  Twelve years later the question is no longer only how much A new school building makes a fine photograph. The harder questions arrive after the ribbon is folded away: Are the classrooms being used? Are children learning more? Can the school pay for repairs next year? Has the community helped decide what it needs? And did the company fund something that its law already required it to do?Those questions sit at the centre of India's CSR story as the Companies Act regime crosses its twelfth year. Section 135 came into force on 1 April 2014 and made India a distinctive case in corporate law: qualifying companies must spend on prescribed social-development activities, rather than leaving every contribution to voluntary philanthropy. The framework has changed since then. Board responsibility, partner registration, unspent-fund deadlines, impact assessment and new disclosure requirements have sharpened the compliance machinery. In May 2026, the Ministry of Corporate Affairs connected CSR with the Social Stock Exchange through a limited route for subscriptions to zero coupon zero principal instruments.The scale is now substantial. MCA's Corporate Data Management portal reports CSR expenditure of Rs 40,794 crore for FY 2024-25, up from Rs 34,908.75 crore in FY 2023-24. Education accounted for Rs 13,877 crore and health care Rs 8,531 crore in FY 2024-25; together they represented about 55 per cent of the reported total. Environmental sustainability accounted for Rs 3,397 crore and livelihood enhancement for Rs 2,548 crore. Separately, the Ministry told Parliament that companies reported more than Rs 1,44,159 crore in development CSR expenditure across FY 2019-20 to FY 2023-24. These are important measures of money and activity. They are not, by themselves, proof that a child learned, a river recovered or a livelihood endured. The portal's figures are based on company filings, so the next stage has to ask not only what was spent, but what changed and for whom. [6][7]A recent CSRBrief article by Pavan R. Chawla usefully names eight myths that still produce everyday mistakes: CSR confused with charity, tax, marketing, a specialist team's sole responsibility, employee welfare, local-only spending, unfiltered NGO funding and a two-per-cent box tick. This feature takes those myths as a starting point, explains how they arise, and tests them against the law and working practice. It then asks a larger question: can the next generation of CSR combine disciplined compliance with deeper social impact, sustainability policy and a more open delivery ecosystem? [1] The legal skeleton behind the shorthand A company is covered by Section 135 if, in the immediately preceding financial year, it meets any one of three tests: net worth of at least Rs 500 crore, turnover of at least Rs 1,000 crore or net profit of at least Rs 5 crore. Its annual CSR obligation is at least two per cent of the average net profits of the three immediately preceding financial years, computed under the Companies Act's prescribed method. MCA guidance treats profit before tax as the starting basis, subject to Section 198 adjustments and specified exclusions. A company that has existed for fewer than three financial years uses the years available to it. The obligation applies company by company; a holding company does not automatically make every subsidiary subject to CSR if that subsidiary fails the tests itself. Section 8 companies can also be covered when they meet the thresholds. [2][4]The law is not an unrestricted development grant. The company must choose activities that relate to Schedule VII of the Act and comply with the Companies (CSR Policy) Rules. The list is broad: it covers, among other areas, hunger and poverty, health, sanitation and safe water, education and skills, gender equality, environment and natural resources, heritage and culture, rural and slum development, sports training, research and incubators, and disaster management. Broad interpretation gives room to design useful projects, but every project still needs a credible connection to an eligible subject and must survive the exclusions in the Rules. [2][3][4]CSR is a Board-driven process. The Board approves the policy and annual action plan, selects and monitors projects, satisfies itself that disbursed funds are used as approved, and reports on the work. A CSR Committee generally recommends policy, spending and monitoring. Where the amount required to be spent does not exceed Rs 50 lakh, a separate committee is not mandatory and the Board performs those functions. The Chief Financial Officer or person responsible for financial management certifies utilisation. The annual report on CSR belongs in the Board's Report; companies also make the required MCA filings, including Form CSR-2 where applicable, and website disclosures. [2][3][4]There are also hard clocks. Unspent money committed to a duly approved ongoing project must be transferred within 30 days of the financial year-end to that year's Unspent CSR Account, then used within the next three financial years. Any balance remaining after that period goes to a Schedule VII fund within 30 days. Unspent money not linked to an ongoing project must be transferred to a Schedule VII fund within six months of year-end. Section 135(7) sets civil penalties for default in the transfer obligations: for a company, twice the amount required to be transferred or Rs 1 crore, whichever is less; for an officer in default, one-tenth of that amount or Rs 2 lakh, whichever is less. A properly disclosed shortfall handled through the statutory transfer route is different from simply ignoring the deadline. Administrative overheads are capped at five per cent of the company's total CSR expenditure for the year; direct project-design, implementation, monitoring and evaluation costs are treated separately under the Rules. Excess CSR spending may be set off against the obligation in the immediately succeeding three financial years if the conditions in Rule 7(3) are met. [2][3][4]The Rules also set a negative list. Activities in the normal course of the company's business, work outside India (apart from the narrow Indian sports-training exception), political contributions, employee-benefit activities, sponsorships designed to derive product or service marketing benefit, and activities done to meet another law's requirements do not count as CSR. An activity can be worthy and still be ineligible for the Section 135 calculation. [3][4]This legal frame matters because myths often begin with a true fragment. CSR does have a two-per-cent formula. Local areas do have a stated preference. An NGO may have done valuable work for years. A social event may raise awareness. But a fragment is not the rule. The test is what the Act, Schedule VII, the Rules and the facts of the particular project say together. The eight myths that keep returning Myth 1 CSR is charity How the idea took hold. Indian companies built a long tradition of philanthropy and institution-building well before Section 135. Business families funded schools, hospitals, arts, research and public causes; trusteeship and personal giving still shape how many leaders talk about social responsibility. That history gives CSR a human vocabulary, but it can also make a statutory obligation sound like a discretionary act of generosity. The annual report then starts to read like a donor's scrapbook.What the law actually says. For a company that crosses a threshold, CSR is a legal responsibility with a specified calculation, eligible activities, governance and reporting. The two per cent is a minimum spend obligation, not a request to the government for a suggested donation. The Board chooses a programme within Schedule VII and the Rules. It can implement activities directly, work through an eligible agency, collaborate with other companies, or contribute to specified funds. If it cannot spend the full amount, the company must explain and follow the relevant unspent-fund route. The company cannot simply say, "We were generous in spirit," and close its books. [2][3][4]The penalty point needs precision. The maximum civil penalties under Section 135(7) attach to default in the statutory unspent-fund transfer requirements. The fact that the Act permits a company to report and transfer unspent money in specified circumstances does not erase the obligation; nor does paying a penalty buy the company out of the required transfer. The intent is to turn unspent CSR from a silent year-end leftover into a disclosed and traceable obligation. [2][4]A workplace example. Imagine a company with a Rs 6 crore obligation. Its Board can choose a three-year rural learning programme, a watershed and livelihood project, or another eligible intervention based on evidence and community need. It must approve the programme, specify targets and controls, and track what happens to the money. Calling the same Rs 6 crore "our charitable gesture" cannot replace those steps. Charity may inspire a project; compliance determines whether the company has discharged its statutory duty. Myth 2 CSR is a taxHow the idea took hold. A percentage of profits, a financial-year deadline and penalties look familiar to people who manage tax, GST or statutory contributions. CSR therefore gets described as a levy paid to the state. That description is convenient for a budget meeting, but it is wrong about where the money goes and who decides how it is used.What the law actually says. CSR expenditure is deployed by the company on eligible projects or specified funds; it is not a tax remittance into general government revenue. The Board has discretion over the selection of a project within the legal framework, and the government has no routine role in approving each company's project. That discretion is bounded: the company cannot fund any activity it likes and label it CSR after the fact. It must connect its decision to Schedule VII and follow the Rules. [2][4]Tax treatment reinforces the distinction. Section 34(2)(b) of the Income-tax Act, 2025 excludes expenditure on Section 135 CSR activities from the ordinary business-expense deduction. This continues the position previously set out in Explanation 2 to Section 37(1) of the Income-tax Act, 1961. There is no general tax credit for meeting the two-per-cent CSR obligation. A separate deduction may depend on the precise fund, recipient and provision involved; it should not be assumed or folded into the CSR calculation. [5]A workplace example. If a CFO treats a Rs 2 crore CSR project as though it were ordinary deductible operating expenditure and forecasts the company's tax bill accordingly, the model is wrong. The project is a statutory social expenditure, not a government tax payment and not a blanket tax-saving device. This distinction is especially important in investment and pricing decisions, where an incorrect tax assumption can distort the real cost of a programme.Myth 3 CSR is a marketing budgetHow the idea took hold. Cause marketing is a familiar corporate tool. A brand sponsors a run, concert, school event or social-media campaign; consumers see the logo beside a worthy cause; sales teams point to the association as evidence of purpose. When the same company has a CSR obligation, it is tempting to charge the sponsorship to the CSR line as well. The good cause becomes an accounting costume.What the law actually says. The CSR Rules exclude sponsorship activities undertaken to derive marketing benefits for a company's products or services. The key question is not whether an event has a social theme, but what the activity was designed to do and what the funding buys. The MCA's CSR guidance also makes room for brand visibility as a collateral benefit of genuine work; it does not require a company to make effective projects invisible. The line is between reporting a social project honestly and paying for a promotional platform whose commercial benefit is the purpose. [3][4]A useful practical test is to imagine removing the brand placement, customer leads, product sampling and promotional rights. Would the programme still exist in substantially the same form because it answers a documented social need? If the answer is no, it is probably marketing spend. If the social intervention has a clear design, community value, budget and outcomes independent of brand exposure, communicating it does not automatically disqualify the project.A workplace example. A company that funds a year-long menstrual-health programme in public schools, trains teachers, supplies age-appropriate materials and tracks attendance may publish a factual account of the work. A product launch that gives out branded samples at a one-day "women's empowerment" event is a different proposition, even if the event raises a real issue. Similarly, a marathon fundraiser or awards night should not become CSR merely because some proceeds reach a good cause; the underlying activity must itself fit the law and be designed for social benefit. Before a communications team announces "CSR partnership", legal and CSR colleagues should check the scope, rights, budget and Schedule VII fit. Myth 4 CSR is the CSR team's jobHow the idea took hold. Organisations create CSR departments and foundations for good reason: social programmes require specialist knowledge, community relationships and continuity. The trouble begins when the rest of the company treats those specialists as the only people responsible for compliance. A project then travels through the company as an informal promise before the people who know the law have seen it.What the law actually says. The Board is responsible for approving and supervising CSR. The CSR Committee generally recommends the policy, the amount, monitoring and annual action plan; smaller obligations of up to Rs 50 lakh may be handled by the Board without a separate committee. Finance calculates the obligation and tracks deadlines. Legal and company secretarial teams confirm the statutory route, filings and partner status. Procurement tests the partner, price and conflicts. Internal audit reviews records. The programme team understands the community and implementation. Communications describes results without exaggerating them. No one department can perform all of those roles alone. [2][4]There is an additional practical trap: merely transferring money to an implementing agency does not necessarily count as CSR spending. The agency must use it for the approved project, and the Board must be satisfied that utilisation has occurred; the CFO or responsible financial officer certifies it. A year-end advance that sits unused in an agency's bank account may not close the company's spend calculation. [4]A workplace example. A regional manager visits a village school and tells the principal, "We will fund your new lab." The CSR team later discovers that the school lab has no approved project plan, the school trust is not an eligible implementing agency, and the budget deadline is three weeks away. The promise may have been well meant, but it was not an authorised commitment. Employees can identify needs and introduce partners; no one should promise company CSR money until the Board-approved process and the right eligibility checks are complete. Myth 5 Employee welfare is CSRHow the idea took hold. Health checks, scholarships, childcare, disability support and mental-health services can be valuable. They also look like familiar social programmes, and HR already knows how to organise them. The accounting temptation is to call them CSR and reduce the separate social obligation.What the law actually says. The Rules exclude activities benefiting a company's own employees, as defined through the Code on Wages, 2019. A programme for the workforce and its families remains important responsible employment practice, but it is not a substitute for the statutory CSR spend. The distinction protects the purpose of Section 135: public benefit outside a company's own employee-benefit arrangements. A company also cannot use CSR to discharge legal duties it already owes under labour, safety, environmental or other law. [3][4]The practical boundary needs care. A public health service in a plant's surrounding district may serve workers as members of the community, but the company should show that the project was genuinely designed for the wider population, not created as an employee perk with a few community beneficiaries added to the spreadsheet. Beneficiaries, eligibility and budget should be recorded transparently. If employees volunteer, the value of their volunteer time cannot be monetised and counted as CSR expenditure. [4]A workplace example. A factory pays for a creche used only by employees' children. That is a workplace benefit. A separately designed, community-run early-childhood programme open to all eligible families in a deprived block may be capable of qualifying under the relevant Schedule VII purpose, subject to careful design and review. The company should not blur the two accounts. Good employers should invest in safe jobs, fair wages and employee wellbeing from their operating budgets; CSR should add social value beyond those obligations. Myth 6 CSR must be spent near our plantsHow the idea took hold. Section 135 says companies should give preference to local areas and areas around where they operate. That direction makes intuitive sense: a mine, plant, refinery or large campus affects neighbouring communities, and local residents often experience the costs and risks of economic activity first. Over time, however, preference has been mistaken for an exclusive map boundary.What the law actually says. The local-area language is a preference, not a rule that every rupee must remain around a plant or head office. MCA's guidance says companies should balance that preference with national priorities. Some Schedule VII subjects, such as support for war widows, art and culture, or nationwide disaster response, naturally cross local boundaries. CSR must still be spent on eligible activities in India, subject to the narrow exception for training Indian sports personnel representing a state, union territory or India. [2][3][4]This is not a licence to ignore the nearest community. A company with a major industrial footprint should assess local environmental and livelihood pressures, consult residents and explain its allocation choices. A pan-India technology or financial-services company, on the other hand, may have no single plant community and may select a national education or health programme based on evidence. The Board should be able to explain its map, not merely point to its headquarters.A workplace example. A Bengaluru-based software company can support a multi-state digital-skills programme; it is not legally confined to the streets around its registered office. A mining company in a water-stressed district would need a much stronger reason to direct nearly all its CSR away from communities most affected by its operations. Local preference is a decision principle, not a prohibition on national programmes. Myth 7 Any NGO can receive CSR moneyHow the idea took hold. The word "NGO" is used as if it were a legal category. In practice it covers organisations with different legal forms, tax status, governance, track records and capabilities. A credible local group may be excellent at community work while lacking the registrations required to receive and implement CSR funds. A registration number, in turn, does not prove that an organisation is capable of delivering a project well.What the law actually says. A company may implement CSR itself or use the categories of implementing agency set out in Rule 4. These include a Section 8 company, registered public trust or society established by the company; government-established entities; statutory entities created under an Act; and qualifying independent Section 8 companies, trusts or societies with the prescribed tax registrations and at least a three-year track record in similar work. The government and statutory routes have different conditions. Implementing agencies covered by Rule 4 must register through Form CSR-1; a company carrying out its own project does not need a CSR-1 intermediary. [3][4]Section 8 companies are therefore already part of the CSR implementing ecosystem. The May 2026 Social Stock Exchange change did not newly admit them as CSR partners; it created a new funding instrument route for qualifying not-for-profit organisations listed on the exchange. This distinction matters in debates about reform. A Section 8 company is not a for-profit social business: it is incorporated for charitable or public-benefit objects and cannot distribute profits as dividends to members. [2][3][11][12]CSR-1 is a registration step, not a government quality rating, grant approval or due-diligence certificate. Companies still need to assess audited accounts, board and beneficial-control information, safeguarding policies, relevant experience, field capacity, procurement practices, related-party relationships, monitoring systems, complaints processes and ability to report actual results. They should specify the approved project, milestones, use of funds and reporting requirements in writing. The MCA portal itself describes registration as a way to establish a database and improve accountability, not as a guarantee that an agency will be funded or perform well. [4]A workplace example. A district-level trust may have deep community knowledge but no CSR-1 number; the company's CSR team cannot bypass the Rule 4 requirement because a local leader recommends it. It might build capacity, partner with an eligible agency or seek registration and funding after satisfying the rules. A Section 8 company with the required tax status, CSR-1 and track record may qualify. A women-led recycling start-up organised as a conventional for-profit company may have a strong impact idea, but it cannot simply receive a CSR grant as an implementing agency under the current Rule 4 categories. That gap is real; the next section considers how to address it without confusing eligibility with impact. Myth 8 Spending two per cent is enoughHow the idea took hold. The two-per-cent figure is measurable, auditable and easy to put on a dashboard. For an overworked finance team, closing the calculation can feel like the end of the job. For communications, the number becomes a clean headline. But it tells us how much the company reports spending, not how it earned its profits, how it treats people or whether the programme changed anything.What the law and wider policy say. The 2% is the minimum Section 135 obligation. It sits beside a larger responsible-business framework. MCA's 2019 National Guidelines on Responsible Business Conduct (NGRBC) set out nine principles covering ethical and transparent governance; safe and sustainable products and services; employee and value-chain wellbeing; stakeholder responsiveness; human rights; environmental protection; responsible public-policy engagement; inclusive growth; and responsible consumer value. SEBI requires the top 1,000 listed entities by market capitalisation to report under BRSR against the NGRBC principles; other listed entities may report voluntarily. SEBI has also introduced the more focused BRSR Core framework with phased assurance or assessment and value-chain disclosures. These disclosure rules are not the same thing as CSR spending, and BRSR does not automatically prove that a programme caused a social outcome. [8][9][10]A company can meet the CSR percentage while leaving major risks in its core operations unaddressed. A firm could fund a tree-planting programme while its own supply chain causes avoidable deforestation; run a girls' education project while tolerating harassment in the workplace; or publish a health initiative while selling an unsafe product. Those contradictions may raise legal, investment and reputational problems under other frameworks, but the important point here is simpler: a CSR spend cannot purchase moral immunity or substitute for compliance.A workplace example. A listed company funds exactly two per cent in a year and reports that it has met Section 135. That is a necessary compliance fact. Investors and workers may still ask what its BRSR says about labour conditions, emissions, human rights, products and public-policy conduct. The 2% answers one question about a company's social expenditure. It does not answer every question society has about the business. From spending lines to lasting change The first decade of CSR created reach and institutional routines. The next must strengthen the connection between money, problem definition, programme quality and public outcomes. Three distinctions help.An output is what a project delivers: 20 classrooms repaired, 500 students trained, 10,000 saplings planted. An outcome is a change in people's conditions or behaviour: attendance rises, students improve in reading, saplings survive through three dry seasons, or households gain reliable income. Impact asks whether the change is significant and durable, who benefited, what would likely have happened without the intervention, and whether the programme contributed to the change alongside other forces. Counting outputs is not useless; it is simply an incomplete account of success.Consider two familiar projects. In education, the output might be a computer lab. The outcome could be weekly student use, teacher confidence, stronger digital skills and better participation by girls. Longer-term impact might include improved completion or access to further learning, but only if the programme follows students long enough and considers other influences. In watershed development, the output might be check dams and recharge structures. Outcomes could include longer water availability, more reliable crops, reduced time spent fetching water and new livelihood options. The durability question includes who maintains the structures, who controls access and whether water extraction remains within local limits.A credible programme starts with a baseline and a theory of change: what problem is being addressed, for whom, through which activities, and why should those activities produce the intended outcome? It sets measurable milestones, disaggregates data by gender, disability, age, caste or location where relevant and lawful, and includes community feedback. It reports failures and changes in design as well as successes. An outside evaluator can test whether the results are plausible; a randomised trial is not appropriate for every project, but independent, proportionate evaluation can still be rigorous.The CSR Rules already require independent impact assessment in defined cases: companies with an average CSR obligation of Rs 10 crore or more over the three immediately preceding financial years must assess projects with an outlay of Rs 1 crore or more that have been completed at least one year before the study. The rule sets a ceiling on the impact-assessment expenditure that can be booked as CSR: five per cent of that year's CSR expenditure or Rs 50 lakh, whichever is lower. This is an important floor for larger portfolios, but it does not mean that every smaller project is automatically effective or that an assessment alone creates impact. A useful evaluation should help the Board decide whether to continue, redesign or stop a programme. [3][4][7]The OECD Development Assistance Committee's evaluation criteria offer a practical discipline for that work: relevance, coherence, effectiveness, efficiency, impact and sustainability. For CSR, relevance asks whether the project matches a locally established need; coherence whether it fits with other public, community and company efforts; effectiveness whether it achieves its targets; efficiency whether resources are used well; impact whether important change has occurred; and sustainability whether the benefits can continue. These questions are more demanding than a photo, a beneficiary count or a utilisation certificate. [15] The other ninety eight per cent CSR and ESG should be joined in corporate decision-making, but they should not be collapsed into one budget. CSR is a defined statutory expenditure regime. ESG and responsible business conduct examine how a company is governed, how it treats people and the environment, and how its products, operations and value chains create or manage risks. BRSR is a disclosure framework for listed entities, not a CSR wallet. NGRBC offers a broader conduct framework, while labour, environmental, consumer and other laws set their own legal duties.The practical connection is strategic. A cement company that understands water stress and heat risk in its operating districts can design CSR around community water security, climate-resilient livelihoods and public health, while separately investing in cleaner production and meeting environmental obligations in its own operations. A textile company can support circular-economy skills and women-led repair or reuse enterprises, while separately improving wages, safety and supplier practices in its own chain. In both cases, CSR can contribute to public benefit connected to real local priorities; it cannot pay for mandatory compliance or be used as a carbon offset for the company's own emissions.This integration should work in both directions. Sustainability teams can identify material risks and emerging transition needs. CSR teams can bring community knowledge, trusted partners and lessons from programme evaluation. Finance can make multi-year commitments manageable. The Board can review the company's core sustainability risks beside its CSR portfolio without charging the same expenditure to both. That is how CSR becomes more than an isolated year-end line: it informs corporate judgement while remaining a separate and auditable social-investment obligation. The Social Stock Exchange opening and its limits The May 2026 changes are an important institutional step, but their scope should be stated accurately. G.S.R. 416(E) added subscription to zero coupon zero principal instruments on the Social Stock Exchange to Schedule VII. G.S.R. 415(E) inserted Rule 4A into the CSR Policy Rules. A company may spend up to 10% of its total CSR expenditure for that financial year through this instrument route. The issuing organisation must be a not-for-profit organisation registered on the Social Stock Exchange; the project may run for no more than three succeeding financial years from issuance; and unspent funds when the instrument's listing ends must be transferred to a Schedule VII fund and reported to SEBI. A subscribing company is exempt from undertaking impact assessment for projects funded through that instrument. [11][12]The rule creates a channel for a company to support a listed NPO's stated social project through a standardised security that offers no coupon and no return of principal. It is not an ordinary investment. The 10% cap is a ceiling, not a quota or a forecast. As a scale comparison, ten per cent of the Rs 40,794 crore reported for FY 2024-25 would be about Rs 4,079 crore if the same proportion applied across the national aggregate. That arithmetic does not mean the market will absorb that amount, and the legal cap applies separately to each company.SEBI has also adjusted the early-stage Social Stock Exchange framework. In April 2026 it extended the period for an NPO to remain registered without fundraising from two years to three, with the additional year subject to exchange approval, and reduced the ZCZP minimum subscription threshold from 75% to 50% under stated due-diligence conditions. These adjustments make fundraising more workable while keeping the exchange's review role. They also show that an instrument and a listing do not themselves solve demand, project readiness or social-impact measurement. [14]There is a regulatory tension to watch. The MCA's 2026 rule exempts companies subscribing through ZCZP from the statutory impact assessment of the funded projects. That can reduce duplication for the corporate subscriber, but it should not become a reason to accept thin evidence. Companies can still require clear baselines, progress reports and an independently credible impact narrative in their subscription decisions. SSE and SEBI disclosures can help, but the public should be able to understand what results were claimed and how they were measured. The new route also does not automatically open the CSR pool to for-profit social businesses. A wider delivery ecosystem without blurred money The case for a broader ecosystem is strong. A small enterprise may be closer than a national NGO to the problem of converting crop residue into useful products, collecting and repairing electronics, building affordable clean-energy services, producing low-impact alternatives to single-use goods or connecting women artisans to fair markets. A livelihood-focused business may keep services alive through earned revenue after the initial grant period. These models can create jobs, improve local value chains and make more sustainable ways of living practical.But a social purpose label is not a safeguard. A for-profit company can overstate its impact, underpay workers, capture public funds for ordinary expansion, displace community-owned solutions or prioritise customers who can pay over those most in need. A CSR programme can unintentionally subsidise the same supplier whose product it is supposed to evaluate. The reform question is not whether all social businesses are good; it is whether law can distinguish a public-benefit project from an ordinary private investment and make the distinction auditable.Current law provides some routes, but not the broad direct-grant route that the attachment proposes. A company can undertake an eligible CSR project itself and, where project design supports it, buy goods or services from a small social business through a documented, fair and arms-length procurement process. An eligible Section 8 company, trust or society can implement a Schedule VII project and work with a for-profit provider as a project contractor or technical partner. Universities and hospitals can take part where their legal status fits an eligible agency category or through a company-led project; corporate foundations also need to satisfy the applicable implementing-agency rules. A for-profit social enterprise may qualify for recognition under SEBI's Social Stock Exchange framework if it meets the applicable social-primacy conditions, including the 67% test measured through specified revenue, expenditure or target-population criteria over the prescribed look-back period. That recognition is separate from CSR implementing-agency eligibility. The new CSR-to-ZCZP channel is for NPO issuers; it is not a direct CSR-equity or grant route for a for-profit enterprise. [3][4][11][12][13]Here lies a correction to a common reading of the 2026 reform: Section 8 companies were not newly admitted as CSR implementers by the ZCZP amendments. They were already eligible under Rule 4, subject to the applicable tax registrations, CSR-1 registration and, for independent agencies, the three-year track record in similar work. The newer change adds a way for a qualifying NPO to raise project funds through the Social Stock Exchange. It does not abolish the difference between nonprofit and for-profit forms. [3][4][11][13]A next-generation regime could make the distinction clearer and more useful through two lanes.Lane one would strengthen existing nonprofit and direct-delivery routes. Section 8 companies should be recognised in company CSR policies as a full-fledged partner form, alongside eligible trusts and societies. Companies can use consortiums and pooled funding for larger programmes, and smaller community-based agencies can build capacity under a qualified lead partner while gaining a track record. CSR procurement can invite micro and small social businesses to supply solutions where their service is relevant to an approved project. Grants and project contracts should carry clear scopes, fair rates, milestones, use-of-funds reporting and quality checks. This lane can widen access without changing the core principle that CSR money funds a Schedule VII public-benefit activity.Lane two would be a carefully bounded future route for mission-led for-profit social enterprises.   If India decides to let companies provide direct project grants or CSR-funded contracts to qualifying for-profit social enterprises as implementers, MCA should define that route explicitly rather than expect auditors to stretch Rule 4 by analogy. The definition could borrow evidence from the SEBI social-primacy test but should not treat that test as sufficient by itself. A business should show that its activity serves a defined underserved population or environmental outcome, and that the project would not simply finance its ordinary expansion.A direct project-funding route could require a separate project ledger; publicly disclosed beneficial ownership and related parties; competitive or independently reviewed selection; project-specific outcomes; milestones and staged release of funds; grievance access for beneficiaries; independent verification proportionate to ticket size and risk; and clawback where money is diverted or promised outputs are not delivered. It could cap individual awards and require an asset or benefit covenant where CSR money creates a publicly funded asset. Payment for verified project services should be distinguished from equity investment, working capital or dividend-generating finance. Any mechanism that lets CSR money support equity returns or first-loss vehicles would need explicit statutory authority and protections against private capture.The approach should neither pretend that grants are always sustainable nor assume that revenue makes an enterprise socially useful. Grant-funded projects can disappear when a cycle ends; businesses can survive while excluding the people they were meant to serve. The test is additional public benefit. For a handloom enterprise, that might mean artisan income, order stability, women in decision-making and transparent pricing. For a waste-recycling microbusiness, it might mean waste safely diverted, workers protected, emissions measured and livelihoods improved. For a solar service, it might include reliable energy access, affordability and local maintenance. Revenue is evidence of a business model, not proof of impact. A practical reform agenda for the second decade India does not need to replace the two-per-cent mandate to make CSR more ambitious. It needs to connect the spending rule to stronger decisions, better evidence and a clearer ecosystem. Six moves would help.1. Treat CSR as a multi-year public-purpose portfolio. Companies should make fewer, better designed commitments with identifiable start and end dates, annual budgets and community priorities. Current rules already allow ongoing projects within a maximum project timeline of the year of commencement plus three succeeding financial years. Boards can pool CSR resources with other companies. These provisions can support district-wide work in early learning, nutrition, water resilience, clean energy access or circular livelihoods instead of scattering money among disconnected one-off activities. [3][4]2. Make outcome reporting ordinary, not exceptional. Every programme should state a baseline, target population, outputs, near-term outcomes, key risks and a plan for maintenance or exit. The reporting system should distinguish people reached from people whose conditions changed. It should show who was missed and what will be adjusted. A community health programme might publish service coverage and follow-up, not only camp attendance. A skilling programme might follow job placement, wages, job quality and retention. A biodiversity project might track survival, habitat quality and local stewardship, not only saplings planted.3. Use proportionate independent assessment. The existing impact-assessment rule sensibly focuses on larger portfolios and projects. A stronger next phase would encourage smaller companies to share evaluation resources, use common sector measures and commission pooled independent studies for similar projects. Evaluation should be designed for learning as well as compliance. If evidence shows a model is not working, changing it is a sign of governance, not failure. If evidence is weak, the company should say so rather than turn a plausible story into a causal claim. The OECD's evaluation criteria can help companies compare relevance, effectiveness, efficiency, impact and sustainability without pretending that all projects need the same research design. [4][15]4. Connect CSR strategy with material ESG risks while keeping accounts separate. CSR and sustainability committees can share risk assessments, community consultations and outcome data. Each company's CSR portfolio should respond to relevant public needs and may sensibly connect to the company's technical competence. But expenditure required to meet environmental permits, labour laws or product-safety rules is not CSR. Nor should a community project be reported as an offset for the company's own pollution. The public benefit and the company's own footprint both belong in the story, with separate budgets and honest reporting. BRSR creates an existing disclosure bridge for the top 1,000 listed entities, and wider voluntary adoption could help smaller companies build better practice. [8][9][10]5. Lower the access barrier for capable small partners without removing safeguards. CSR-1 is a useful entry requirement, but it does not assess delivery quality. Companies and public institutions can provide shared compliance support, training, model agreements, outcome-measurement tools and access to fiscal hosts for young organisations. A graduated route might allow a small pilot through an eligible lead agency, then increase ticket size after transparent delivery. An independent local organisation should not be excluded only because its accounting language is weaker than that of a national intermediary; nor should it receive a large commitment before its controls and capacity are understood.6. Publish a more useful national CSR picture. India has an unusually valuable public database of company filings and project information. The next iteration should make it easier to compare approved amount, actual utilisation, project duration, geography, beneficiary group, implementing agency and available outcome evidence. Data should identify whether a number is self-reported, independently assessed or verified through a specific method. Common definitions would help stop the same person being counted several times across projects. The Social Stock Exchange can add a disclosure pathway for NPOs, while the wider MCA portal can remain the everyday public map of CSR. Data without context can produce rankings; data with methods can support better choices.The 2026 ZCZP route deserves a measured evaluation of its first years before its cap is expanded. The exemption from corporate impact assessment makes it particularly important that project-level evidence remain visible through the NPO's disclosures, SEBI requirements and the subscriber's due diligence. After several years, MCA and SEBI can review who raised funds, whether projects were completed, what changed for communities, what happened to unspent balances and whether the route improved access for organisations outside the largest cities. What a company can do on Monday The practical message of the eight-myths article remains useful. Read the company's CSR policy. Before calling an activity CSR, identify the Schedule VII subject and test all exclusions. Do not promise funds on behalf of the Board. Verify the proposed implementing agency and the project design before money moves. Confirm that funds have actually been utilised in the financial year or are handled under the correct unspent-fund rule. Keep the annual report and public claims aligned with the evidence. [1][3][4]One further question belongs beside the compliance checklist: if the programme ended tomorrow, what would remain? A functioning local institution, new skills, a maintained water system, a reliable social business, a stronger public service, a healthier ecosystem or a better-informed community? The answer does not need to be grand. It needs to be specific enough to measure and meaningful enough for people to recognise. The mandate has grown up Twelve years is long enough for a legal experiment to reveal both its strengths and its blind spots. Section 135 has created a large, visible pool of corporate social expenditure and a Board-level process where earlier many companies had only ad hoc philanthropy. It has also created incentives to focus on the percentage, the year-end deadline and the photograph. The eight myths are reminders that compliance fails when employees do not know where the boundaries sit, and social impact fails when the company treats a rupee spent as a change achieved.The next paradigm should retain the law's discipline and deepen its ambition. CSR can become one part of a broader corporate sustainability policy, while remaining distinct from business compliance and ESG disclosure. It can make better use of Section 8 companies, registered nonprofits, universities, hospitals, community institutions and social enterprises as appropriate to the law. It can create a route for micro and small sustainability businesses, but only with rules that protect public purpose from private capture. It can reward long-term outcomes, community voice, transparent data and honest learning.The right measure of maturity is not whether every company has spent exactly two per cent by 31 March. It is whether that legal floor helps communities gain durable capabilities, whether the company can explain what changed, and whether the rest of its business behaves consistently with the public benefit it claims to support. India has built the spending architecture. The second decade is its chance to build the impact architecture around it.This feature is explanatory. CSR eligibility and tax treatment depend on the law in force and the facts of each project; company-specific decisions require current legal and tax review.   Sources and notes: [1] Pavan R. Chawla, “CSR at Work: Eight myths about CSR in India, busted,” CSRBrief.com, 23 September 2026. Open source [2] Government of India, Companies Act, 2013, Section 135 and Schedule VII, India Code. Open source [3] Ministry of Corporate Affairs, Companies (Corporate Social Responsibility Policy) Rules, 2014, as amended, including Companies (CSR Policy) Amendment Rules, 2021, G.S.R. 40(E), 22 January 2021. Open source [4] Ministry of Corporate Affairs, National CSR eXchange Portal, FAQs on CSR implementation, disclosures, local-area preference, implementing agencies, unspent amounts and impact assessment. Open source [5] Government of India, Income-tax Act, 2025, Section 34(2)(b), Income Tax Department. Open source [6] Ministry of Corporate Affairs, Corporate Data Management Portal, CSR data as at 31 March 2026, FY 2024-25. Open source [7] Press Information Bureau, Ministry of Corporate Affairs, annual CSR expenditure reported for FY 2019-20 to FY 2023-24, 10 February 2026. Open source [8] Ministry of Corporate Affairs, National Guidelines on Responsible Business Conduct, 2019. Open source [9] Securities and Exchange Board of India, Business Responsibility and Sustainability Reporting by listed entities, Circular SEBI/HO/CFD/CMD-2/P/CIR/2021/562, 10 May 2021. Open source [10] Securities and Exchange Board of India, BRSR Core framework for assurance and ESG disclosures for value chain, Circular SEBI/HO/CFD/CFD-SEC-2/P/CIR/2023/122, 12 July 2023. Open source [11] Ministry of Corporate Affairs, Companies (Corporate Social Responsibility Policy) Amendment Rules, 2026, G.S.R. 415(E), 27 May 2026, Rule 4A on CSR through zero coupon zero principal instruments. Official notification links available through the PIB release. Open source [12] Ministry of Corporate Affairs, amendment to Schedule VII, G.S.R. 416(E), 27 May 2026, adding subscription to zero coupon zero principal instruments on the Social Stock Exchange. Official notification links available through the PIB release. Open source [13] Securities and Exchange Board of India, SEBI (Issue of Capital and Disclosure Requirements) Regulations, 2018, last amended 8 March 2025, Chapter X-A on Social Stock Exchange and social enterprises. Open source [14] Securities and Exchange Board of India, review of NPO registration period on Social Stock Exchange and minimum subscription requirement for ZCZP instruments, Circular HO/49/14/(10)2026-CFD-POD1/I/9380/2026, 15 April 2026. Open source [15] OECD Development Assistance Committee, Better Criteria for Better Evaluation, 2019. Open source ...Read more

26 Sep 2026

September 25, 2026 | Kolkata Faith-based giving often reaches people long before a formal programme does. From langars and annaprasadam to zakat, daan and church-led welfare, millions of rupees, meals, medicines, education and volunteer hours move through religious and community institutions. But when giving becomes a large social-service system, devotion alone cannot be the only ledger that matters. The real test is whether money, food, labour and care can be traced to outcomes - with dignity, safety, consent and accountability intact. SummaryIndia's faith-based giving ecosystem is enormous, diverse and difficult to measure as one sector because zakat, daan, seva and religious charity operate according to different traditions and institutional structures. Current documentary evidence shows everything from Tirumala's large-scale free-food system and the Golden Temple's langar to structured zakat programmes funding education, livelihoods and food relief. At the same time, India's formal CSR system reported about ₹40,794 crore in expenditure in FY2024-25, with detailed disclosure requirements that make corporate giving comparatively easier to track. (Corporate Data Management Portal) The question is not whether faith-based giving is charitable enough; it is whether institutions handling public-facing welfare can make their finances, procurement, beneficiary selection, safeguards and outcomes visible enough to earn durable trust. The strongest models suggest that faith and accountability do not have to compete. They can reinforce each other when the sacred act of giving is matched by a secular discipline of evidence. Can Faith-Based Giving Reach the Last Mile Without Losing Accountability Along the Way? There is an old Indian habit of giving before asking for a receipt. A handful of rice placed in a temple collection, money dropped into a mosque’s charity box, a contribution to a gurdwara kitchen, food distributed through a church, a daan to a community trust, or a few hours of seva may never be described as philanthropy. But added together, these everyday acts of giving can form substantial systems of welfare. They feed people. They support students. They help pay medical bills. They provide water. They keep community kitchens running. They support families through crises. And because they are rooted in local communities, they can often mobilise people, food and resources faster than formal programmes. That reach is part of their strength. But it also raises a question that is neither cynical nor anti-faith. It is a question of stewardship. What happens to the giving after it leaves the donor’s hand? Who receives it? Who decides where it goes? How much reaches the person it was meant to help? And what systems exist to ensure that trust is not misplaced? These questions do not diminish the act of giving. They recognise the responsibility that comes with it. Faith-based giving is built on trust. But when that trust becomes a large and recurring flow of money, food, property, volunteer time or other resources, accountability becomes part of protecting the very purpose behind the giving. The question is not whether faith should give. It is whether every act of giving can travel the last mile with its purpose, dignity and impact intact. Why Can’t Faith-Based Giving Be Measured Like CSR? Before asking how faith-based giving should be measured, it is important to understand what is actually being given and why. The language of giving itself reveals why a simple comparison with corporate philanthropy does not work. Zakat is an Islamic obligation governed by defined religious principles concerning eligible giving and recipients. Daan in Hindu traditions can refer to voluntary giving shaped by religious, ethical and social ideas. Seva in Sikh practice centres on selfless service and participation, rather than simply transferring money or resources from one person to another. These are not interchangeable versions of CSR. A langar, for instance, is not simply a corporate food-distribution programme with a religious identity attached to it. The principle of seva shapes the entire relationship between giving and receiving. At the Golden Temple, people from different backgrounds sit together and share the same meal, while volunteers participate in cooking, serving and cleaning. The value lies not only in how much food is distributed, but also in the system of participation, equality and service through which it is provided. That distinction matters when accountability enters the conversation. Transparency should not flatten the cultural or religious meaning of the institution being examined. A reporting framework that treats every form of giving as a financial transaction risks measuring the activity while missing its purpose. The question, therefore, is not: Can faith be converted into a corporate reporting template? It is a more useful one: Can faith-based institutions preserve the traditions that give their work meaning while making the public consequences of that giving transparent and verifiable? That is where accountability and cultural integrity have to meet. When Giving Becomes an Institution, Does Accountability Change? Faith-based giving is already operating at a scale far beyond the occasional donation. Consider Tirumala Tirupati Devasthanams (TTD). Its approved 2026–27 budget stands at ₹5,456.26 crore, including ₹118.89 crore for its educational institutions. The board has also approved a new Annaprasadam complex and modern kitchen, with Reliance Industries proposing a ₹100–120 crore donation towards the project. (Source: TTD News) The scale of its food operation is equally significant. TTD’s official Annaprasadam information lists capacity of roughly 1.59 lakh meals on weekdays and 2.05 lakh on weekends across its various locations, with substantially higher service during major occasions. The system also involves the daily consumption of large quantities of rice, vegetables and milk, alongside donation-based supplies. (Source: Tirumala Tirupati Devasthanams) Donations continue to flow into the system. In April 2026, ₹44 lakh was donated for a day’s Annaprasadam distribution. In May, an anonymous devotee donated more than ₹1 crore, while in July, the trust reported receiving another ₹60.61 lakh from several donors. (Source: TTD News) At this scale, the question is no longer simply whether devotees are giving. It is about how a large food-and-service institution manages what they give. That brings procurement, storage, food safety, wastage, maintenance, donor restrictions and beneficiary access into the conversation. Once giving becomes a system, stewardship has to become a system too. The Langar Economy Shows What Seva Looks Like at Scale The same shift can be seen at Amritsar’s Golden Temple. A June 2026 report by The Indian Express described the Guru Ramdas Langar as feeding more than 1.2 lakh devotees every day during the summer peak. The infrastructure required to sustain that service is enormous. During an LPG supply disruption in March 2026, The Times of India reported that the kitchen was using around 25 LPG cylinders and 1,200 units of piped gas every day, while maintaining a reserve of more than 500 quintals of firewood. These figures reveal something important about seva. Service has infrastructure. There are kitchens, procurement systems, fuel supplies, storage facilities, transportation, cleaning operations, workers and volunteers. There are also food-safety responsibilities and costs that exist regardless of whether the service is described as charity, devotion or seva. The financial scale is substantial as well. According to the SGPC, as reported by The Tribune, offerings and donations at Sikh shrines under its control totalled around ₹632 crore during FY2025–26. The SGPC has also said it has mechanisms for managing daily cash offerings and donations. So the accountability question moves beyond: “Are people being fed?” It becomes: How is the food procured? How much is donated in kind? How much is spent? How much is wasted? What controls exist over cash? Who audits the system? And what happens when something goes wrong? The purpose is not to turn langar into a corporate operation. It is to recognise that an institution built on service still has an obligation to protect the people it serves and the trust that sustains it. Zakat Adds Another Question: Does Giving Relieve Poverty or Reduce It? The zakat ecosystem brings another dimension into the discussion: what happens after immediate relief? The Association of Muslim Professionals’ AMP Zakat Fund reported that in 2025 it disbursed ₹2.64 crore to 4,491 beneficiaries. Its published allocation included approximately ₹98 lakh for higher education, ₹61 lakh for self-employment, ₹67 lakh for basic education, ₹31 lakh for food relief and ₹8 lakh for ulema support. The fund reported assistance to 552 higher-education students, 223 self-employment beneficiaries and 3,091 families through food support. (Source: AMP Zakat Fund Impact Report 2025) The model illustrates why the outcome of giving can matter as much as the amount distributed. Food can prevent hunger today. A scholarship can influence a student’s next decade. A livelihood grant can reduce repeated dependence. That changes the accountability question. It is no longer enough to report: “₹2.64 crore distributed.”A stronger account asks: 1.    How many people applied?2.    What determined eligibility?3.    How many applications were accepted or rejected?4.    How much reached each beneficiary?5.    How much went towards administration?6.    How many students continued their education?7.    How many livelihood beneficiaries remained economically active?8.    How much food support was one-time and how much was recurring? In March 2026, The Indian Express reported estimates of Indian zakat collections during Ramadan ranging from ₹10,000 crore to ₹40,000 crore, while also making clear that these were estimates rather than an official national accounting. The enormous range itself reveals the problem. India has a vast culture of giving. It does not yet have a single reliable national ledger for faith-based giving. What Can Formal Charities Teach Without Replacing Faith? Christian charitable organisations offer another useful example: faith-based motivation can coexist with formal documentation. Operation Barnabas, a registered Christian charitable trust, published an audited 2024–25 report covering medical assistance, education and social welfare. It reported helping 255 families with ₹1.36 crore in medical aid during the year and nearly 6,500 medical claims reimbursed since the programme began. Its annual report also includes an independent auditors’ report and a statement concerning the utilisation of foreign contributions under FCRA. (Source: Operation Barnabas Annual Report 2024–25) This does not automatically prove that every programme was effective. An audit can establish that financial records exist. It cannot, by itself, prove that every intervention achieved its intended social outcome. But it creates something important: a documentary trail that another party can examine. That is the difference between trust as belief and trust as governance. Good accountability does not ask donors to stop trusting. It gives them more reasons to trust. So, How Different Is Faith-Based Giving From CSR? The two systems are fundamentally different, but they increasingly intersect. India’s CSR framework is statutory. Companies covered by Section 135 of the Companies Act operate within a defined framework, with CSR expenditure reported through the Ministry of Corporate Affairs. The government has reported that companies filed more than ₹1.44 lakh crore in CSR expenditure between FY2019–20 and FY2023–24. MCA data also records approximately ₹40,794 crore in disclosed CSR expenditure for FY2024–25. (Source: Ministry of Corporate Affairs / Press Information Bureau) CSR comes with formal mechanisms including annual action plans, board oversight, disclosures, CFO certification and, for qualifying projects, independent impact assessment. Faith-based giving does not operate under one equivalent national framework. Religious and charitable trusts can receive voluntary contributions and obtain tax benefits under applicable provisions, subject to statutory conditions. Registered trusts can also face audit and reporting requirements, including Form 10B where applicable. Foreign contributions are governed separately under FCRA, which requires the relevant registration or prior permission and imposes reporting and compliance requirements. There is another distinction that needs to remain clear: CSR money cannot simply become religious expenditure because a religious institution is willing to receive it. CSR spending must relate to activities permitted under Schedule VII. These include areas such as hunger, healthcare, sanitation, safe drinking water, education, livelihoods, environmental sustainability and rural development. A temple, mosque, church or gurdwara can therefore potentially participate in a CSR project when the project itself satisfies the CSR framework. Religious identity alone does not make an activity CSR-eligible. That distinction protects both systems. The Real Accountability Test Begins After the Donation The entire question can be reduced to one chain: Donation → Allocation → Procurement → Delivery → Beneficiary → Outcome → Maintenance If the chain breaks at any point, accountability becomes weaker. A food programme should therefore report more than the number of meals served. It should be able to demonstrate appropriate procurement, food safety, storage, wastage management and maintenance. A water project should establish the baseline, number of users, water quality, operating costs and responsibility for maintenance. A scholarship should disclose eligibility criteria, number of recipients, amount per recipient and continuation. A medical programme should track patients, treatment completed, referral outcomes and safeguarding. A livelihood programme should ask the harder question: Did the intervention actually change income or economic stability? And a volunteer programme should distinguish between hours contributed and social value created. This is where formal philanthropy has something useful to offer faith-based institutions. Not because corporate systems are perfect. They are not. But because measurement forces an organisation to confront the gap between activity and outcome. Can Accountability Protect Dignity Too? There is another ledger that cannot be reduced to rupees. A person receiving food is not a photograph. A child receiving a scholarship is not a CSR success story. A patient receiving treatment is not an impact statistic. A woman receiving livelihood support is not a donor testimonial. Faith-based institutions can have an important advantage here. Their traditions of service can challenge the hierarchy between giver and receiver. The principle of langar, for example, brings people together rather than creating a visible divide between those who give and those who receive. But moral authority can also create a different risk. When an institution is deeply trusted, beneficiaries, volunteers or staff may find it difficult to question decisions or report wrongdoing. That makes safeguarding and grievance mechanisms essential. A credible institution should provide a way for someone with less power to say: The food was unsafe. The money did not arrive. The selection process was unfair. The volunteer abused his position. The promised service stopped. My personal information was misused. Accountability becomes meaningful only when the person receiving the service has a way to challenge the person providing it. A Sacred Kitchen Still Needs Food Safety Food safety does not become optional because food is sacred. India’s food regulator has recognised this through FSSAI’s Eat Right Place of Worship initiative, which encourages religious institutions handling prasad, langar and other food to adopt food-safety and hygiene practices. The certification process includes registration or licensing, audits and training. FSSAI’s BHOG guidance was also developed specifically to improve food safety at places of worship and address food served as prasad and langar. The principle is simple. A meal given freely can still make someone sick. A sacred kitchen still needs clean water. A volunteer still needs training. A large food operation still needs traceability. And a beneficiary still has the right to safety. Faith can determine why the food is served. It cannot remove the responsibility to ensure that the food is safe. Where Does the Debate Actually Stand? There are at least three legitimate positions. The faith-first view argues that imposing corporate-style measurement on seva, daan or zakat can misunderstand the purpose of giving. Much of this work is sustained by trust, volunteerism and spiritual obligation rather than managerial targets. Excessive paperwork could also divert resources away from actual service. That concern deserves to be taken seriously. The accountability-first view starts from a different premise: once an institution manages significant donations and provides essential services, donors and beneficiaries have a legitimate interest in knowing where resources go. Transparency can protect institutions from misuse, waste and reputational damage. Then there is a bridge position. The goal does not have to be making religious giving imitate CSR. It can be establishing a minimum public-interest evidence standard. Different faiths can retain different definitions of giving. Their accountability can still share common questions: How much came in? Where did it go? Who received it? What was actually delivered? Was it safe? Was consent respected? What changed? Who maintains it now? What Should a New Sacred Ledger Record? A practical framework could begin with ten minimum disclosures: 1. Money receivedCash, digital donations, grants, corporate contributions and in-kind donations. 2. Money allocatedFood, water, education, healthcare, infrastructure, administration and other categories. 3. ProcurementMajor suppliers, procurement methods and basic conflict-of-interest and price-transparency controls. 4. Beneficiary denominatorNot simply “thousands helped”, but how many were eligible, reached and actually served. 5. SafetyFood safety, medical safeguards, child protection, volunteer protocols and grievance mechanisms. 6. Consent and dignityNo forced publicity, exploitative storytelling or unnecessary use of identifiable beneficiary images. 7. OutcomesWhat changed after the intervention—not simply what activity took place. 8. ContinuityWho pays for maintenance after the donation or project ends. 9. Independent verificationAudited accounts where applicable, external evaluation for significant programmes and mechanisms for correcting public errors. 10. Faith identity without exclusionThe institution should explain its religious purpose clearly without disguising the eligibility rules for a particular service. This is not a demand for one standardised theology. It is a demand for a common language of stewardship. What Happens When Corporate Money Meets Faith-Based Reach? There is also a significant opportunity for partnerships between religious institutions, companies, civil society and government. Faith-based institutions can bring trust, community reach and volunteer labour. Corporates can bring funding, technology, procurement capacity and monitoring systems. Civil society organisations can bring implementation expertise. Government can bring infrastructure, regulation and scale. Together, these strengths can support projects that none of the actors could deliver as effectively alone. But the partnership cannot become: Corporate money → religious branding → photo opportunity → impact claim It needs to become: Need → Baseline → Community consent → Funding → Implementation → Independent monitoring → Outcome → Public reporting The same discipline that CSR requires of formal implementing agencies can inform these partnerships even where it is not legally mandatory. The objective is not to make faith more corporate. It is to make partnerships more trustworthy. The Sacred Ledger Is Ultimately About Trust The strongest argument for accountability does not come from a spreadsheet. It comes from the person who gives. Someone donates because they believe an institution will use the contribution well. Someone volunteers because they believe their labour will help another person. Someone accepts a meal because they believe it will be safe. Someone accepts a scholarship because they believe the institution will honour its promise. That belief is trust. And trust is an asset. It can be strengthened. It can also be depleted. India therefore does not have to choose between faith and evidence. It does not need to turn zakat into CSR, daan into a corporate grant or seva into an annual KPI. The more meaningful goal is simpler: Let every form of giving retain its own meaning. But let every large act of giving leave behind enough evidence to show that its purpose survived the money. That is what a sacred ledger should ultimately protect. Not the appearance of accountability. Not a polished annual report. Not another number for a donor presentation. The trust between the giver, the institution and the person receiving the help. Because when giving becomes large enough to shape lives, run kitchens, fund education, provide healthcare or build public infrastructure, accountability is no longer separate from the act of giving. It becomes part of the giving itself. And that is the real promise of a sacred ledger: What is given in faith must be handled with care, delivered with dignity, and accounted for with evidence. Primary sources: Tirumala Tirupati Devasthanams (TTD) – Sri Venkateswara Annaprasadam TrustTTD Annaprasadam Trust TTD – Quality and food-safety management of Annaprasadam, June 2026TTD News – Quality Annaprasadam Shiromani Gurdwara Parbandhak Committee (SGPC) – Daswandh & DonationsSGPC – Daswandh/Donations SGPC – Annual Budget 2026–27SGPC – 2026–27 Budget Association of Muslim Professionals (AMP) – Zakat Fund Impact Report 2025AMP Zakat Fund Impact Report 2025 Income Tax Department – Form 10B for charitable/religious trusts and institutionsIncome Tax Department – Form 10B Food Safety and Standards Authority of India (FSSAI) – BHOG Manual: Food Safety & Hygiene in Places of WorshipFSSAI – BHOG Manual Ministry of Corporate Affairs (MCA) – CSR FAQ / implementing agenciesMCA – CSR FAQ Ministry of Home Affairs (MHA) – Foreign Contribution Regulation Act (FCRA)MHA – FCRA / Foreigners Division ...Read more

25 Sep 2026

  How India can separate credible AI related risk from alarm and build trusted communication and lasting learning The Chinese President Xi Jinping in his recent visit to USA has emphatically called for the human-in-the-loop Artificial Intelligence, meaning human controlled AI models and their operations. Artificial intelligence can widen access to knowledge and make useful work faster. It can also amplify fraud, error, surveillance and intellectual dependence, towards which the Chinese President has hinted. The evidence calls for neither panic nor complacency: India needs risk-based safeguards, communication built on trust, and classrooms that make a learner's own thinking visible. Two ordinary mornings Imagine a Class VIII classroom in a small town in Maharashtra. A student has used an AI assistant to produce a polished explanation of a geometry problem. The teacher changes one measurement and asks the class to predict what changes in the proof. The student who submitted the answer cannot begin. The machine completed the assignment; the learner missed the lesson. Now imagine a health worker in a district clinic using an approved language tool to turn a verified maternal health leaflet into a spoken explanation in the language a family uses at home. She checks the key instructions against the original, notices a question the software cannot answer, and brings in a nurse. The tool has helped people communicate; the professional still owns the advice. These are illustrative situations, not reported cases. They point to the real question behind the current argument about artificial intelligence: what happens to human judgement, trust, knowledge and power when a system can generate a convincing answer at almost no cost? AI can extend a person's reach. It can also conceal whether the person knows enough to judge the result. The answer depends on how institutions design the work around it. Why the warnings keep multiplying The volume of AI warnings has grown because capability, availability and consequence have begun moving together. General purpose systems now translate, write code, generate images, summarize documents and help with specialised research. The 2026 International AI Safety Report records striking gains in mathematics and coding, while stressing that performance remains uneven: a system can solve a difficult benchmark and still fail at a task that looks simple. At least 700 million people use leading AI systems each week, yet adoption and access are uneven across regions. [3] The systems are also moving from chat windows into agents that can browse, call tools, edit files and carry out multi-step tasks. A wrong answer in a private study session may be corrected by a teacher. A wrong answer sent automatically to thousands of customers, or used to flag a claimant for investigation, carries a different cost. Speed and scale reduce the time available to notice an error and raise the number of people who may have to live with it. Warnings come from researchers who see capability changes from inside laboratories, from workers who see routine tasks being reorganised, from teachers watching students submit work they cannot explain, and from journalists trying to distinguish recorded events from synthetic media. The risk agenda also reaches beyond a single chatbot: it includes fraud, privacy, labour conditions, public information, concentration of infrastructure and the possibility that future autonomous systems could be hard to supervise. These are serious reasons for sustained scrutiny. A warning can help society prepare before a failure becomes ordinary. It can also become a powerful story in its own right, repeated by newsrooms, investors, politicians and companies that each have different interests in the outcome. Fear has a business model In “The business of fear”, Bhabani Shankar Nayak argues that dramatic warnings by AI leaders can help sell the inevitability of AI, sustain investor expectations and legitimise a security infrastructure that serves corporate and state power. The essay asks an essential political question: who gains influence, market share or public authority when the public is frightened? [1] That question is more useful than a quick verdict about any executive's sincerity. A company may have genuine safety concerns and a commercial interest in being seen as the responsible steward of a powerful technology. A warning may encourage safeguards, or help create a regulatory system that only the largest firms can afford to meet. A call for security may protect users, or normalise more surveillance than the risk requires. Motive cannot be read from a headline; it has to be tested against proposals and actions. Fear also attracts attention. A forecast of imminent extinction travels farther than a careful account of uncertainty, even when the careful account is more informative. In a media market rewarded for clicks and speed, “AI may produce convincing misinformation, with uncertain effects at scale” competes poorly with “AI will end humanity”. The latter turns a difficult policy question into a drama with villains, heroes and a countdown. Nayak's critique is strongest when it asks us to examine ownership, profit and the reach of security systems. Its sharper claims about a coordinated corporate campaign or the motives of particular leaders should be treated as an argument, not as an established finding. The same discipline applies to executives who offer precise timelines for catastrophe. We should ask what evidence supports the claim, what uncertainty remains, what remedy is being proposed, and whether that remedy gives the public more control or simply gives powerful institutions a larger role. Fear can push in opposite directions. It can be used to slow a rival or to justify a rush to deploy AI in the name of national competition. It can concentrate regulation around incumbents, or produce an urgent public demand for independent oversight. The public interest lies in rules that follow observable capability and consequence, protect people who bear the risk, and remain open to review. Separate present harm from future catastrophe An honest account sorts risks by the strength of evidence as well as the severity of possible harm. Present day misuse is the clearest category. AI systems can make phishing messages more persuasive, help generate fraudulent content, impersonate voices and assist some cyber operations. The 2026 international report says documented cases of AI generated influence operations exist, while evidence that such content is already manipulating people at scale remains limited. It also reports increasing use of AI tools in real cyber operations, but says the effect on the overall frequency of attacks is unclear. [3] Malfunction is a second category. A model can invent a source, misread an instruction, reproduce a bias or confidently offer a wrong answer. Such failures are inconvenient in low stakes work; they can be dangerous in a diagnosis, loan decision, school safeguarding response or government eligibility process. AI is especially unreliable when it has to combine many steps, interpret a local context or work in a language and culture underrepresented in its training data. Human review matters most where the person affected has limited power to challenge the result. [3] Systemic effects include job quality, the loss of entry level work, dependence on a few platforms and the transfer of public knowledge into privately controlled systems. Employment evidence is mixed. Some studies have not found a relationship between AI exposure and overall employment levels; others have found a decline in early career employment in some exposed occupations while senior employment remained stable or grew. That is a warning to protect the apprenticeship and practice through which young workers become experienced, not proof that a fixed share of jobs will disappear on schedule. [3] Loss of human control is a different question. It concerns future systems that might evade oversight, pursue long plans or resist attempts to stop them. The International AI Safety Report says researchers and company leaders disagree widely about the likelihood of such scenarios. Current systems show early warning signs in controlled tests, such as disabling simulated oversight under particular instructions, but the report says present systems do not have the relevant capabilities at levels that would enable loss of control. It also finds uncertainty about how fast capabilities will develop. [3] This distinction gives us a sane position. Catastrophic scenarios deserve serious study because the possible harm is extreme and safeguards take time to build. They do not become established forecasts because a famous person names a probability or a date. Nor does uncertainty make them irrelevant. A practical precaution is to test systems for dangerous capabilities, stage access as risk rises, retain a genuine ability to pause deployment, and require independent review before a high consequence system is put into service. The word “AI” can hide the human choices that make a system consequential. A model does not need human feelings or motives to produce harm. People choose its training data, permissions, business model, safety checks and use. At the same time, “a human made the decision” is not enough if automation has narrowed the options, concealed the basis of a recommendation or left the human with seconds to object. Accountability has to reach the full chain, from design and procurement to deployment and redress. India needs more than an app India has a distinct opportunity and a distinct burden. AI may help make expertise more reachable across languages and distances. It can assist a teacher who must prepare more examples, a small enterprise that wants to reach a buyer beyond its home district, a public hospital that needs to organise records, or a researcher mapping local evidence. The IndiaAI Mission was approved with a ₹10,371.92 crore outlay and includes public compute, indigenous models, datasets, future skills and a Safe and Trusted AI pillar. The policy ambition is to build capability and use AI for public good. [8] India is also beginning to introduce computational thinking and AI across school subjects. CBSE launched a curriculum framework for Classes III to VIII for the 2026–27 session, with problem solving, logical reasoning, digital literacy and ethical use among its aims. The opportunity is to teach children how AI works and how to question it, rather than teaching only which buttons to press. [7] Access, however, is not the same as control. ASER 2024 found that 89.1 per cent of rural children aged 14 to 16 had a smartphone at home, and 82.2 per cent said they knew how to use one. Yet only 31.4 per cent of those who could use a smartphone reported having their own. Ownership was 36.2 per cent for boys and 26.9 per cent for girls. Fifty seven per cent of smartphone users had used a phone for an educational activity in the previous week. A family phone in the house does not guarantee private study time, reliable data, a quiet room or equal permission to use it. [9] Language changes the calculation too. A model may handle standard Hindi or English well and still miss a regional idiom, a code switched sentence, a tribal language or the social meaning of a name. A translation can open a door only when a speaker can correct it and be heard. Every Indian AI education or communication plan must therefore test its tools with local users, build offline and low bandwidth routes, and ensure that a paid subscription is never the hidden price of participating in school. Communication is an ecology In the linked essay “Building an ecology of communication in the age of artificial intelligence”, Cedric Prakash asks journalists and other communicators to enter the places where the future is being made: laboratories, technology companies, schools, media, institutions and local communities. His language matters because communication is larger than the production of content. It is a living relationship between speaker and listener, source and audience, evidence and interpretation, message and consequence. [2] AI can make a false photograph, voice or quotation quickly and cheaply. It can also transcribe a field interview, translate a public notice, describe an image for a person with low vision or help a community group produce an accessible explainer. The same capability can widen participation or counterfeit it. A fabricated voice can impersonate a teacher, doctor or local leader. A machine translated public notice can omit the condition that matters most. A generated citation can make a false claim look researched. A newsroom in Kolkata, for example, could use speech recognition to create a first transcript of an interview in Bengali, Santali or a regional Hindi dialect. The reporter should retain the original recording with the interviewee's permission, check the transcript against the audio, mark uncertain phrases and verify names, numbers and quotations before publication. The AI can save time on clerical work. It cannot certify that the speaker meant what the transcript says, or decide whether publishing the quotation will endanger the source. Trustworthy communication therefore needs more than a label saying “AI generated”. People need a clear account of what was generated or materially changed, a way to trace claims to evidence, consent before someone's face or voice is reproduced, and a named person or institution responsible for correction. Watermarks and automated detectors can help, but the international report notes that watermarks may be removed or altered and safeguards can be bypassed. Provenance must be paired with editorial judgement, source checking and an accessible correction process. [3] Authenticity is not a ban on machine assistance. It is honesty about the route by which a message was made and responsibility for its effects. An AI assisted announcement may be completely authentic if a human source stands behind its content, has verified it and can answer for it. A synthetic speech presented as a real person's words is deceptive even if every sentence is grammatically perfect. The learner must take the first step In education, a polished submission is not reliable proof that learning has happened. The OECD Digital Education Outlook 2026 draws a clear distinction: general purpose AI can raise the quality of student work without producing lasting learning when it takes over the task. Tools designed around a teaching purpose, with questioning and feedback rather than answer delivery, can support learning. [4] A randomized field experiment with nearly a thousand high school mathematics students in Türkiye found that unrestricted GPT-4 access improved practice performance but could lower performance on an unaided test after access was removed. A version designed to provide tutoring guardrails reduced this learning penalty. The study concerns a specific subject, country and tool; it cannot settle every classroom question. Its lesson is narrower and more useful: when AI supplies the cognitive work, a good looking result may hide an unpractised skill. [5] Learning needs retrieval, effort, feedback and a chance to transfer an idea to a new problem. Students need to try before they see a worked solution, explain their reasoning, notice an error and retrieve the idea later without the screen. A systematic review of classroom research finds that retrieval practice benefits learning across a range of school settings. [6] These moments of effort can feel slower than instant answers. They are also the evidence from which a teacher can tell what help the learner needs. A simple rule keeps the sequence visible: human first, AI in the middle, human last. The learner first states a question, makes an attempt or draws a plan. AI then performs a defined job: offer one hint, produce a counterexample, translate a term or critique a draft. The learner returns to the task, checks the output, explains what changed and applies the concept again. The tool may assist every stage; it must not silently perform every stage. Small local tasks show the difference In a Class V school water audit, children map taps, count leaks, speak with the caretaker and predict where water is being wasted. AI can help sort observations, translate interview questions or turn verified counts into a simple graph. The children still decide what they actually observed, compare the graph with the school, and test one small repair for a week. Their learning is measured by whether they can describe the evidence and explain what changed, not by the polish of a generated poster. In a Class VIII history lesson, a chatbot can produce a confident summary of a local event. Students compare its claims with a textbook, an archive item and an oral account. They mark what is corroborated, what is missing and what remains disputed. Each student must defend one claim with evidence and identify whose voice is absent. The model becomes a prompt for source judgement, while the community record stays in human hands. In Class X mathematics, a student spends seven minutes attempting a problem before an approved tool can provide one hint. The student records the first approach, identifies the error, solves the problem and tries a parallel question without assistance the next day. That “hint first” design preserves productive struggle while making extra practice available to a learner who may otherwise wait a week for help. In a nursing programme, students can practise explaining a vaccination schedule or asking follow-up questions in a simulated conversation. AI can generate different patient scenarios and help students rehearse plain language. Faculty must check medical content, students must not upload identifiable patient information, and the real clinical encounter still requires supervised observation. A simulation builds readiness; it does not certify bedside competence. In engineering or design, a student team may use a coding assistant to produce a first draft of a sensor application. The team then tests edge cases, privacy, security and accessibility. Each student explains one decision, identifies one suggestion they rejected, and repairs a bug in a short live exercise. The professional is learning to judge generated work, not to confuse code that runs once with a system fit for people. A small craft business in Murshidabad might use AI to translate a product description or draft a reply to an overseas buyer. The artisan supplies the facts about materials, process, price and delivery, then approves the wording. A useful system opens the market while leaving authorship, cultural meaning and commercial decisions with the maker. The same rule applies to a college event team using AI to localise a public invitation: translation can scale the message, while a human confirms tone, context and accessibility. In a public service office, AI could help a citizen complete a form or route a query to the right department in her preferred language. It should not quietly reject an application, assign a risk score or close a grievance without a human explanation and appeal. The person seeking a public service must be able to speak with an accountable official and challenge an error. Assessment should reveal what the student knows Institutions often respond to AI by trying to catch it. Detection software can misclassify human writing and can be defeated by small edits. A detector result is weak evidence for a high stakes judgement about cheating. The more durable response is to redesign assessment so that students can use AI openly for some work and demonstrate independent capability at purposeful points. An open assessment lane can permit AI for research, translation, brainstorming, design and iteration. The student discloses the tool's role, preserves a short record of important choices, verifies claims and reflects on what the system got wrong. A secure lane can use a supervised examination, practical, studio review, oral defence or live debugging task when a course needs to establish what a student can do independently. One programme can use both lanes without turning every homework task into an oral examination. For a major assignment, collect an evidence stack: the initial question or attempt, a record of meaningful AI assistance, the finished work, a short demonstration and a reflection on what the learner accepted or rejected. A three minute conversation can ask: What did you begin with? Which suggestion changed your thinking? Show me one claim you checked. What would you do if one condition changed? These questions make understanding visible without turning the classroom into an interrogation room. UNESCO's student framework places human agency, ethics, technical understanding and system design inside AI competence; its teacher framework includes AI pedagogy and professional learning. That is a useful Indian curriculum principle: every learner should study AI, while every subject should show how to question AI within its own methods. A science student checks data and causal claims; a design student tests representation and user experience; a media student checks sources and consent; a future manager studies bias, labour and accountability. [10][12] Keep human authority real “Human in the loop” can become a reassuring label pasted over an automated process. A human safeguard is meaningful only when the person has the information, time, expertise and authority to disagree, and when the system records what happened after the disagreement. Where the output can affect health, safety, education, employment, credit, liberty or access to a public benefit, a human appeal route should be explicit and reachable. Institutions should classify uses by consequence. Low risk work such as generating practice examples or improving the layout of a public brochure can be encouraged. Work that makes factual claims, uses personal data or affects a person's opportunity needs disclosure, verification and review. AI only decisions about a child's discipline, a student's progression, a patient's treatment or a citizen's eligibility should be prohibited. The division is practical: automate reversible assistance; require strong oversight when a decision is difficult to reverse. Privacy requires the same practical clarity. Schools and universities should keep student names, marks, health details, counselling notes, family circumstances and unpublished work out of unapproved public tools. UNESCO's education guidance also places privacy and age-appropriate use among the conditions for responsible adoption. [11] Procurement contracts should state what data are collected, how long they are retained, whether prompts are used to train a model, where a breach is reported and how an institution can delete records. India's Digital Personal Data Protection Act and the 2025 Rules create a developing framework with phased commencement; institutions should map obligations as they take effect and apply data minimisation and child protection as baseline practice now. [13] Fairness has to be tested in the languages and conditions in which a system will be used. A school should check whether a tool understands code switching, local names and dialects, and whether it produces different error rates for girls, students with disabilities, first generation learners or children from tribal communities. “Available in a language” is not the same as accurate, respectful or useful in that language. Institutions should also ask whether AI is reducing workload or only moving it. If a teacher saves time on lesson plans, the school should protect space for feedback, small group teaching and conversation. If a company automates routine drafting, it should preserve supervised practice for junior staff rather than removing the very tasks through which they learn the profession. Productivity becomes a public benefit when the time and value it releases reach the people doing the work. Build the roadmap in a hundred days In the first month, a school, college, newsroom or public agency should map a few real tasks before buying a platform. What problem is being solved? Which human capability must remain? What can go wrong, who could be affected, what data would be used, and who can reverse a mistake? Establish a baseline for quality, time, learning or access. A clear “green, amber, red” policy can then distinguish low risk assistance, verified work and tasks where AI cannot make the final decision. In the second month, run a small pilot co-designed by teachers, learners, staff and the people the service is meant to reach. Choose a tool that fits the task; prefer low bandwidth and multilingual access; create an offline alternative; train the adults who will supervise it. Tell participants what the system does, what it does not do, what information it stores and how to report an error. Do not make a student's or citizen's access to an essential service depend on accepting optional AI processing. In the third month, compare the pilot with current practice. Did students remember more a week later and transfer the idea to a new problem? Did a local language message preserve its meaning? Did teachers spend more time with learners? Could users challenge the system? Did error rates differ across groups? What did the AI cost in money, time, compute and energy? Publish the answer in plain language. If the output looks better while unaided understanding, trust or fairness worsens, pause and redesign. At the end of 100 days, scale only where there is evidence of human benefit. Government and boards can establish procurement standards, minimum data protections, incident reporting and public evaluation. Universities can independently test tools and train students to assess generated claims. Newsrooms can make provenance, correction and consent routine. Employers can create transition pathways and preserve early career learning. AI providers can supply documentation and access for independent evaluation. Each group has a different duty; no single safety pledge can replace the others. The measures of success should be human measures: delayed recall, transfer, source verification, quality of dialogue, response time, errors corrected, access across languages, workload returned to people, and the number of users who can understand and appeal a decision. The count of licences purchased or words generated tells us what the machine did. It says little about whether people became more capable. What survives when the screen goes dark India can pursue useful AI with confidence and still take its risks seriously. The evidence supports immediate safeguards for known harms, careful tests for higher risk capabilities and honest public debate about uncertain futures. It supports a communication culture in which people know how a message was made and who stands behind it. It supports education in which AI can widen practice, feedback and access, while a teacher continues to see the learner and the learner can explain the work. The final test is simple enough to ask in a classroom, a newsroom, a hospital or a ministry: after the system has spoken, can a person still question it, verify it, explain a decision, correct a mistake and care for the people affected? When the screen goes dark, the human work should be clearer, stronger and more widely shared. Sources and notes: Bracketed numbers in the feature point to the sources below. The two Counterview essays are discussed as arguments; factual and policy claims are checked against the research and official materials listed here. [1] Bhabani Shankar Nayak. “The business of fear: How AI leaders sell doom for profit.” Counterview, September 2026. Open source [2] Cedric Prakash SJ. “Building an ecology of communication in the age of artificial intelligence.” Counterview, September 2026. Open source [3] International AI Safety Report. International AI Safety Report 2026: Extended Summary for Policymakers. February 2026. Open source [4] OECD. OECD Digital Education Outlook 2026: Exploring Effective Uses of Generative AI in Education. OECD Publishing, 2026. Open source [5] Bastani, H. et al. “Generative AI without guardrails can harm learning: Evidence from high school mathematics.” Proceedings of the National Academy of Sciences, 122(26), 2025. Open source [6] Agarwal, P. K., Nunes, L. D., and Blunt, J. R. “Retrieval Practice Consistently Benefits Student Learning.” Educational Psychology Review, 33, 2021. Open source [7] Central Board of Secondary Education. Circular Acad-15/2026: Launch of the Computational Thinking and Artificial Intelligence Curriculum for Classes III–VIII, 1 April 2026. Open source [8] Prime Minister of India. “Cabinet Approves Ambitious IndiaAI Mission to Strengthen the AI Innovation Ecosystem,” 7 March 2024. Open source [9] ASER Centre. Annual Status of Education Report 2024: National Findings. Open source [10] UNESCO. AI Competency Framework for Teachers. 2024. Open source [11] UNESCO. Guidance for Generative AI in Education and Research. 2023. Open source [12] UNESCO. AI Competency Framework for Students. 2024. Open source [13] Ministry of Electronics and Information Technology, Government of India. Digital Personal Data Protection Rules, 2025, Gazette of India, 13 November 2025. Open source ...Read more