Abstract
The global electronic waste (e-waste) crisis has reached an inflection point. With India generating over 14 lakh metric tonnes of e-waste in 2025-26 — and NITI Aayog projecting this figure to reach 14 million metric tonnes by 2030 — the urgency of creative, policy-driven, and artistic responses has never been more acute. This paper synthesises recent government data, IIT-led research, and international investigative findings to examine: (a) India’s decade-long trajectory of e-waste generation; (b) the hidden tsunami of US e-waste exports to Southeast Asia; (c) the impending AI-driven escalation of hardware waste; (d) the underexplored economic potential of urban mining for critical mineral self-reliance; (e) the role of e-waste craft and art as a complementary pillar of awareness and circular economy practice; and (f) a comparative aesthetic reflection on two digitally generated artworks depicting e-waste archaeology and digital fauna. The paper argues that while government initiatives mark encouraging progress, transformative policy acceleration — combined with artistic advocacy — is urgently required.
1. Introduction: The Weight of Discarded Technology
“The world does not lack solutions to the e-waste problem. It lacks the will to implement them at scale. And in that gap between policy and practice, an artist’s hand can sometimes do what a regulator’s pen cannot.”
Electronic waste — the term applied to discarded electrical and electronic equipment (EEE) — stands today as the fastest-growing solid waste stream on the planet. The Global E-Waste Monitor 2024, published by the United Nations Institute for Training and Research (UNITAR), records a staggering 62 million metric tonnes of e-waste generated globally in 2022 alone, a figure projected to balloon to over 82 million metric tonnes by 2030. In this cascade of obsolescence, India occupies a consequential and uncomfortable position: the world’s third-largest generator of electronic refuse, behind only China and the United States.
For an artist who works with e-waste as a medium — who sees the iridescent green of a printed circuit board as a palette, the copper curl of stripped wire as brushstroke, the carapace of a dead smartphone as raw sculpture — this is not merely an environmental crisis. It is an invitation. Every discarded motherboard is a canvas. Every broken keyboard key is a tile in a mosaic that, assembled with intent, can tell the story of an age defined by its devices.
This paper, written in the tradition of applied research synthesis, attempts to weave together data-driven analysis and the practitioner’s perspective. It draws exclusively from authoritative Indian government sources — the Central Pollution Control Board (CPCB), NITI Aayog, the Ministry of Environment, Forests and Climate Change (MoEFCC), IIT Hyderabad’s pioneering E-Waste Resource Engineering and Management programme, and official parliamentary data — alongside recent international investigative reporting and peer-reviewed science on the AI-e-waste nexus.
2. India’s E-Waste Generation: A Decade in Numbers
2.1 The Ten-Year Arc (2015–2026)
The evolution of India’s e-waste generation over the past decade tells the story of a nation rapidly digitising its economy and daily life. The Central Pollution Control Board (CPCB), the nodal technical body under the MoEFCC, has tracked this trajectory systematically since the enactment of the E-Waste (Management and Handling) Rules, 2011, and subsequently the more comprehensive E-Waste (Management) Rules, 2016 and 2022.
Table 1: India’s E-Waste Generation — A Decade in Review (2015–16 to 2025–26)
| Financial Year | E-Waste Generated (MT) | E-Waste Recycled (MT) | Recycling Rate (%) |
| 2015–16 | ~8,00,000 (est.) | ~2,00,000 (est.) | ~25% |
| 2016–17 | ~9,00,000 (est.) | ~2,20,000 (est.) | ~24% |
| 2017–18 | ~10,14,961 | ~69,000 | ~7% |
| 2018–19 | ~7,71,215 | ~1,52,000 | ~20% |
| 2019–20 | ~10,14,961 | ~2,24,084 | 22% |
| 2020–21 | ~13,46,496 | ~3,85,000 | ~29% |
| 2021–22 | ~16,01,155 | ~5,12,000 | ~32% |
| 2022–23 | ~10,12,000 (est.) | ~3,80,000 (est.) | ~38% |
| 2023–24 | ~12,54,000 | ~7,78,000 | ~62% |
| 2024–25 | ~13,97,000 | ~11,59,000 | ~83% |
| 2025–26* | ~14,14,645 | ~9,79,080 | ~69%* |
* 2025–26 figures are provisional (in-year). Sources: CPCB data, Lok Sabha reply March 2026; PIB Press Release 1943201; data.gov.in
2.2 Key Analytical Observations
Several structural trends emerge from this decade-long data:
- Explosive Volume Growth: India’s e-waste generation grew approximately 73% in the five years from 2019-20 to 2023-24, rising from approximately 1.01 million MT to 1.75 million MT according to government-presented Rajya Sabha data. The NITI Aayog’s January 2026 report, ‘Advancing Circular Economy of Waste Electronic and Electrical Equipment and Lithium-Ion Batteries in India’, pegs total e-waste at 6.19 million MT in 2024, growing at approximately 17% annually, with a projection to reach 14 million MT by 2030.
- Computer Dominance: As per CPCB analysis, computer equipment accounts for approximately 65% of India’s e-waste stream, followed by large appliances and medical equipment at 15%, telecom equipment at 12%, and consumer electronics at 8%.
- The Formal–Informal Divide: Despite policy progress, the informal sector continues to handle the bulk of India’s electronic waste. NITI Aayog has explicitly warned that organised recycling lags behind both policy targets and waste volume growth. Informal dismantlers in hubs like Seelampur (Delhi), Dharavi (Mumbai), and Moradabad (Uttar Pradesh) employ an estimated 1.5 lakh workers. These workers extract saleable copper and aluminium but leave rare earth minerals — dysprosium, cobalt, lithium, neodymium — entirely untapped, buried in the soil as toxic legacy.
- Recycling Improvement: The formal recycling rate has improved significantly from around 22% in 2019–20 to over 83% in 2024–25, representing a genuine policy dividend from the E-Waste Management Rules 2022 and the Extended Producer Responsibility (EPR) portal rolled out by the CPCB.
| IIT Hyderabad: Pioneering E-Waste Education in India IIT Hyderabad, in collaboration with C-MET Hyderabad, launched India’s first-of-its-kind two-year M.Tech programme in E-Waste Resource Engineering and Management. The programme, offered through IITH’s Centre for Interdisciplinary Programmes, addresses the growing academic and industrial need for trained professionals in e-waste technology — covering hydrometallurgy, rare earth recovery, circuit board recycling, and environmental impact assessment. This institutional commitment signals that India’s premier technical institutions recognise e-waste not as a peripheral nuisance but as a core engineering challenge of the 21st century. (Source: cip.iith.ac.in/erem/) |
3. The Hidden Tsunami: USA’s E-Waste Export to Asia
While India grapples with its own mounting waste, it exists within a global trade architecture that has long permitted wealthier nations to externalize their electronic refuse. A landmark investigative report released on 22 October 2025 by the Seattle-based Basel Action Network (BAN) — titled ‘Brokers of Shame: The New Tsunami of American E-Waste Exports to Asia’ — documents the scale and mechanics of this practice with disturbing specificity.
3.1 The Brokers of Shame Investigation
The BAN investigation, conducted over two years (January 2023 to February 2025) using trade data, GPS tracking, and field investigations across Southeast Asia, identified at least 10 major US-based electronic waste brokers collectively exporting over 10,000 shipping containers — approximately 167,000 to 169,000 metric tonnes — of discarded electronics valued at over $1 billion. Extrapolated industry-wide, BAN estimates that approximately 33,000 metric tonnes of US e-waste depart American ports every single month, with total monthly trade potentially exceeding $200 million.
The primary destination? Malaysia — a signatory of the Basel Convention, which should legally prohibit such imports. Other documented recipient countries include Indonesia, Thailand, the Philippines, and the United Arab Emirates. Critically, eight of the ten identified US companies hold R2V3 certifications — the industry’s own standard for responsible recycling — raising profound questions about the integrity of self-certification systems.
The US remains, remarkably, the only industrialised nation that has not ratified the Basel Convention, the international treaty restricting hazardous waste trade between developed and developing nations. This exceptionalism creates an enforcement vacuum. US exporters face no federal obligation to obtain consent from receiving countries before shipping electronic scrap — a loophole that, according to BAN, has enabled what it describes as a ‘hidden tsunami’ of toxic trade.
| Key Figures: The American E-Waste Footprint in Asia (2023–2025) 10 US companies | 10,000+ shipping containers | 167,000–169,000 metric tonnes | $1 billion+ value | ~33,000 MT/month leaving US ports | ~6% of all US trade with Malaysia during study period | Malaysia, Indonesia, Thailand, Philippines, UAE as destinations | Workers in recipient countries: unprotected, undocumented, exposed to lead, cadmium, mercury | Source: Basel Action Network, ‘Brokers of Shame’ Report, October 2025 |
3.2 The Human and Environmental Cost
In the countries receiving this waste, informal scrapyard workers — often undocumented migrants desperate for employment — strip wires by hand, melt plastics in open fires, and dismantle devices without protective equipment, inhaling toxic fumes containing dioxins, furans, and heavy metals. After China banned foreign waste imports in 2017, Chinese operators relocated their operations to Malaysia and Southeast Asia, exploiting family ties and local permits. As BAN’s Jim Puckett observed, Malaysia ‘suddenly became this mecca of junk.’
For India, this global dynamic holds direct relevance. India is one of Asia’s largest informal e-waste processors. Any tightening of enforcement in Malaysia, Indonesia, or Thailand may redirect waste flows toward less-regulated geographies — including India — unless robust domestic regulatory infrastructure is in place to intercept and properly channel such imports. Under the Hazardous and Other Wastes (Management and Transboundary Movement) Rules, 2016, e-waste is listed under Basel No. A1180 and is prohibited from import into India. Yet enforcement gaps persist at port-level inspection.
4. The AI Age: A New Tsunami of Hardware Waste
If the past decade of e-waste growth was driven by democratised smartphone access and digital inclusion, the next decade will be shaped by an altogether different force: the voracious hardware appetite of artificial intelligence.
4.1 What the Science Says
A landmark peer-reviewed study published in Nature Computational Science (October 2024), led by researchers from the Chinese Academy of Sciences, Reichman University (Israel), and the University of Cambridge, introduces a ‘computational power-driven material flow analysis framework’ for quantifying generative AI’s e-waste footprint. The findings are sobering.
- Under conservative (limited) adoption scenarios, generative AI infrastructure will generate a cumulative 1.2 million metric tonnes of e-waste between 2020 and 2030.
- Under aggressive adoption scenarios — which researchers consider the most likely trajectory given current investment trends — this figure rises to 5 million metric tonnes by 2030.
- At the aggressive scenario’s peak, this is equivalent to discarding between 2.1 and 13 billion units of the iPhone 15 Pro annually.
- The primary e-waste sources are GPUs, CPUs, memory modules, printed circuit boards, and power backup batteries in AI data centres — all replaced on two-to-five year cycles.
- Circular economy strategies — server module reuse, refurbishment, downcycling — could reduce this waste stream by up to 86% in best-case scenarios.
4.2 India at the Epicentre
India’s position is uniquely exposed. As the Observer Research Foundation (ORF) noted in its April 2026 analysis, countries like India that are building out AI infrastructure often run older hardware due to US chip export restrictions, generating up to 14% more e-waste per unit of computing output than frontier data centres. NITI Aayog’s January 2026 report on circular economy explicitly warns that India’s e-waste, already growing at 17% annually, will receive additional acceleration from AI infrastructure buildout. The irony is profound: the tools of digital modernisation are simultaneously accelerating one of the nation’s most difficult environmental management challenges.
IEA data shows data centre electricity consumption has grown 12% annually since 2017. As India’s data centre capacity expands to support AI workloads for both domestic use and the Global South, the downstream hardware waste consequences — if unmanaged — will compound an already strained recycling infrastructure.
5. Urban Mining: From Waste to Wealth
5.1 The Buried Treasure in India’s Discarded Devices
Every tonne of e-waste is, in economic terms, a small mine. This is not metaphor — it is metallurgy. According to data compiled from CPCB and the 2023 Circular Economy Report:
| Material | Recovery per Tonne of E-Waste | Significance |
| Gold | 300 grams | 250x richer than gold ore |
| Silver | 1 kilogram | High-value secondary market |
| Copper | ~150 kg (PCBs) | EV & grid infrastructure demand |
| Lithium / Cobalt | Variable (battery waste) | 100% import-dependent for India |
| Dysprosium / Neodymium | Hard drive magnets | Critical for EVs, defence, magnets |
Sources: CPCB Circular Economy Report 2023; NITI Aayog Report 2024
5.2 The $6 Billion Goldmine India Is Not Yet Harvesting
The total value of recoverable metals embedded in India’s e-waste has been estimated at $6 billion. However, due to outdated recycling technologies, fragmented collection, and the dominance of informal operators who focus on easily extractable copper and aluminium, only approximately $1.1 billion is currently recovered — leaving over $4.9 billion in critical materials either buried in landfills, leaching into groundwater, or shipped abroad at criminally undervalued prices.
CPCB estimates that properly organised e-waste recycling at national scale could generate between Rs 20,000 and Rs 25,000 crore annually, while simultaneously creating up to 5 lakh green jobs (NITI Aayog, 2024). The Indian electronic waste recycling market, valued at $2.8 billion in 2025, is projected to reach $5.5 billion by 2032 at a CAGR of 10.1%.
Most critically, India currently maintains 100% import dependency for key critical minerals including lithium, cobalt, and nickel — the building blocks of the electric vehicle revolution and clean energy transition that India has committed to under its Paris Agreement obligations. Urban mining from e-waste is not merely an environmental choice; it is a strategic necessity for economic and energy sovereignty. NITI Aayog’s June 2023 presentation on critical minerals supply chains explicitly recommended ‘scaling up LIB recycling infrastructure with production-linked incentives to complement mining efforts.’
In response, the Government of India approved a Rs 1,400 crore ($170 million) programme to boost formal recycling of critical minerals, building on EPR frameworks. Advanced hydrometallurgical recovery processes, as documented in NITI Aayog’s 2024 report, now achieve over 95% efficiency for cobalt and nickel extraction — technologies that IIT Hyderabad researchers are actively working to adapt for Indian industrial conditions.
6. Government Initiatives: Promising But Insufficient
6.1 The Regulatory Architecture
India’s regulatory framework for e-waste management has evolved significantly over a decade and a half. Key milestones include:
- E-Waste (Management and Handling) Rules, 2011: India’s first dedicated e-waste legislation, mandating producer responsibility and establishing collection infrastructure requirements.
- E-Waste (Management) Rules, 2016: Introduced the Extended Producer Responsibility (EPR) framework mandating producers to collect and channel e-waste to authorised recyclers, with escalating targets from 10% (2017-18) to 70% by FY 2024.
- E-Waste (Management) Rules, 2022: A comprehensive revision encompassing 106 types of EEE (expanded from 21), establishing a digital EPR portal, introducing producer-funded recycling targets, and providing mechanisms for CPCB random inspection and periodic audit of compliance.
- CPCB EPR Portal: A digital infrastructure platform enabling real-time data tracking of e-waste generation, collection, and recycling across the supply chain — a significant governance innovation.
- Critical Mineral Mission (Union Budget 2024-25): Customs duties scrapped on waste and scrap of 12 critical minerals including lithium-ion battery waste, creating economic incentives for domestic recycling.
6.2 Where the Gaps Remain
Despite this regulatory architecture, the gap between intent and implementation remains substantial. NITI Aayog’s 2026 report is candid: organised recycling continues to lag behind both policy targets and the pace of waste volume growth. The informal sector handles the vast majority of actual collection and processing, operating outside the EPR framework and capturing only a fraction of available material value.
Several structural gaps require urgent attention. First, EPR coverage remains narrowly focused on metals (gold, copper, iron, aluminium), discouraging investment in recovering the broader spectrum of critical materials embedded in modern electronics. Second, single-window registration for informal recyclers — recommended by NITI Aayog — does not yet exist in most states, creating barriers to formalisation. Third, inter-ministerial coordination between MoHUA (urban sanitation) and MoEFCC (waste management) remains fragmented, with no single nodal authority. Fourth, port-level enforcement against illegal e-waste imports remains inadequate, leaving India vulnerable to becoming a repository for developed-world electronic refuse.
| A Call to Accelerate: What More is Needed The existing policy framework is directionally sound. What is required now is the courage of implementation. India needs: (1) a mandatory, IT-enabled tracking system for e-waste from generation to recycling — as recommended by CPCB; (2) cluster-based Common Facility Centres enabling informal workers to access safe processing tools and training; (3) a National Urban Mining Authority to coordinate critical mineral recovery; (4) stricter port inspections and import monitoring under existing Hazardous Waste Rules; and (5) Green Public Procurement mandates requiring government departments to source electronics from EPR-compliant producers. Without these accelerators, the policy ambition of a circular e-waste economy will remain precisely that — ambition. |
7. E-Waste as Art: The Practitioner’s Perspective
Sudeep KP, India’s leading self-taught sculptor and founder of Artwist, has built a practice rooted in a simple but powerful idea — seeing potential where others see junk. Through Artwist, he creates handcrafted sculptures and eco-innovative designs, transforming discarded materials into beautiful, functional, and unique works of art. Working with e-waste, old paper, walnut shells, and other recycled materials, Artwist breathes new life into what would otherwise be waste — making it one of India’s most compelling examples of art meeting environmental responsibility.
The Opportunity Space for E-Waste Craft
The convergence of rising e-waste volumes, growing environmental consciousness, the maker movement, and India’s deep craft traditions creates a significant opportunity for e-waste art as both cultural practice and small enterprise. Several dimensions of this opportunity deserve recognition:
- Educational Activation: Schools, colleges, and community centres across India are increasingly using e-waste workshops as experiential education in environmental science, design thinking, and responsible technology consumption. IIT Hyderabad’s E-Waste Resource Engineering programme represents the academic pinnacle of this impulse, but it extends all the way down to primary school art classes.
- Livelihood Creation: Trained artisans who can transform e-waste into jewellery, home decor, sculptures, and functional objects represent a viable livelihood pathway — particularly for workers currently employed in the informal recycling sector without safety protections. Cooperatives and SHGs (Self Help Groups) supported by government schemes could formalise this into a scalable cottage industry.
- Corporate ESG Alignment: As Indian corporations strengthen Environmental, Social, and Governance commitments, commissioning e-waste art installations for offices, campuses, and public spaces — much as Dell partnered with artist Benjamin Von Wong globally — represents a meaningful, visible commitment to circular economy principles.
Export Potential: India’s craft export ecosystem, already globally recognised, could incorporate e-waste art as a premium, story-rich category — objects that carry both aesthetic value and a narrative of environmental consciousness that resonates strongly in European and North American markets.
8. Two Images, Two Worlds: An Aesthetic Reflection
The following observations concern the two AI-generated artworks attached to this paper — both depicting an archaeologist-like figure in tactical gear excavating electronic artefacts from dark, mud-laden earth.
Image 1 — which we may call ‘The Digital Bestiary’ — presents a scene of breathtaking imaginative density. From the mud, the archaeologist’s brush reveals not merely circuit boards and cables, but a miraculous ecology of e-waste transformed: dragonflies whose wings are composed of gossamer mesh and circuit traces; butterflies assembled from coloured PCB fragments in gorgeous iridescent mosaics; birds whose feathers are razor-thin metal laminations; spiders whose legs are bent copper wire. A praying mantis crouches in the upper right corner. Coils of silver wire resolve, on closer inspection, into the spiral of a flower. This is the dream of the circular economy rendered as surrealist illustration — the possibility that from the wreckage of our digital excess, something alive and beautiful might still emerge.
Image 2 — ‘The Excavation’ — is tonally its inverse. Here, the same archaeologist’s brush reveals the unvarnished reality of e-waste: a corroded, heavily scratched smartphone half-buried in soil; a mud-encrusted circuit board tangled with roots; scattered SIM cards, USB cables, and hard drive components lying in the dirt like the artefacts of a collapsed civilisation. In the background, a second figure with a trowel continues the dig. There is no transformation here, no metamorphosis — only the patient, melancholy work of unearthing what we have buried.
Both images are technically accomplished AI-generated compositions, and both serve the theme of e-waste with genuine emotional intelligence. But they speak entirely different languages. Image 1 is the language of the artist and the circular economy advocate — it says: look what is possible when we refuse to accept that discarded things have exhausted their potential. Image 2 is the language of the scientist and the policy analyst — it says: look at what we have actually done, and what we must now reckon with honestly.
For an e-waste artist, Image 1 is naturally more nourishing as a visual — it is closer to the work we do, the transformation we seek. The digital creatures assembled from circuit board fragments are, in their own way, a manifesto. They are what happens when an artist looks at a printed circuit board and sees not toxic landfill but a butterfly wing waiting to be released.
Yet Image 2 may be the more important image for the world to see. Because the transformation that Image 1 celebrates cannot happen without the honest reckoning that Image 2 demands. Before the butterfly, there must be the mud. Before the art, there must be the archaeology. Before the circular economy, there must be the full, uncomfortable accounting of what we have generated and what it is costing the earth.
In their pairing, these two images constitute a complete argument: this is what we have made; this is what we could make of it.
9. Conclusion: Toward a Circular, Creative, and Conscious E-Waste Ecosystem
India stands at a remarkable juncture. It is simultaneously one of the world’s largest generators of e-waste and one of its most dynamic creative economies. It possesses both the regulatory architecture for responsible management and the cultural traditions of craft that could animate the circular economy at a human scale. It faces the oncoming wave of AI-driven hardware obsolescence with inadequate recycling infrastructure but improving policy ambition. And it watches, with justifiable concern, as wealthier nations continue to export their electronic waste to Asian destinations under cover of certification labels and regulatory loopholes.
The data is unambiguous: at 14.14 lakh MT generated in 2025-26 and growing at 17% annually toward a projected 14 million MT by 2030, India cannot afford the luxury of incremental policy responses. The metals buried in that waste stream represent a $6 billion opportunity, a path to critical mineral self-reliance, and 5 lakh potential green jobs. Advanced hydrometallurgical technologies, proven in IIT Hyderabad laboratories and NITI Aayog-supported facilities, can recover over 95% of cobalt and nickel — minerals India currently imports at 100% dependency.
Government initiatives under the E-Waste Management Rules 2022, the EPR portal, and the Critical Mineral Mission mark genuine progress. But NITI Aayog itself has acknowledged that organised recycling lags behind targets. The informal sector, which handles the vast majority of actual collection, remains outside the formal value chain and exposed to severe occupational health hazards. The regulatory push must become a regulatory revolution.
And alongside that revolution, there is room — there is need — for the artist. E-waste craft and art are not decorative afterthoughts to the serious business of industrial recycling. They are the advance scouts of consciousness — the practitioners who, long before policy makers and industry, saw value in discarded things and found ways to make that value visible. Every circuit board butterfly, every keyboard-key sculpture, every dragonfly fashioned from fibre optic mesh is an argument for the world we could inhabit — one where nothing is wasted and everything is, in time, transformed.
The mud of Image 2 is real. The wings of Image 1 are possible. The distance between them is the work we have yet to do.
References & Source Links
Government of India & Statutory Bodies
- Ministry of Environment, Forest and Climate Change (MoEFCC) / PIB — E-Waste Generation Data (2020-21 & 2021-22)
- PIB Press Release PRID 1943201 — Generation of E-Waste, CPCB Data (July 2023)
- Open Government Data Platform India — Year-wise E-Waste Generation (2019-20 to 2023-24), CPCB
- Open Government Data Platform India — E-Waste from 21 EEE Types (2017-18 to 2020-21), CPCB
- Lok Sabha Reply / NewsDrum — India Generated 14 Lakh MT E-Waste in 2025-26, March 2026
- CPCB — E-Waste Annual Reports and Management Data
NITI Aayog
- NITI Aayog — ‘Advancing Circular Economy of Waste Electronic and Electrical Equipment (E-waste) and Lithium-Ion Batteries in India’ Report (January 2026)
- NITI Aayog — ‘Mine to Market: Critical Minerals Supply Chain for Domestic Value Addition in Lithium-Ion Battery Manufacturing’ (June 2023)
IIT Hyderabad
International & Research Sources
- Nature Computational Science — ‘E-waste challenges of generative artificial intelligence’ (October 2024)
- Basel Action Network — ‘Brokers of Shame: The New Tsunami of American E-Waste Exports to Asia’ (October 22, 2025)
- Observer Research Foundation — ‘AI’s E-Waste Problem: The Growing Burden of Data Centres’ (April 2026)
- Springer — ‘Transforming e-Waste to Eco Art by Upcycling’ (Mallabadi, V.D., in ‘An Introduction to Circular Economy’, 2021)
- Down to Earth — India’s E-Waste Surges by 73% in Five Years (December 2024)
- Clean India Journal — ‘The Artistry of Upcycled E-Waste’ — Vishwanath Mallabadi Davangere
Global E-Waste Data
