India’s 47 Million Tonne Scrap Equation: The Structural Deficit That Will Define How India Makes Steel for the Next Decade

Somewhere between the quarterly earnings calls and the mill price circulars, the Indian steel industry quietly consumed approximately 45–47 million tonnes of steel scrap in FY2025-26. That figure — roughly 27.8% of India’s 169.2 million tonne crude steel output — doesn’t generate headlines. It should. Because buried inside this number is the most consequential strategic challenge facing India’s steel sector over the next decade: where the metallics will come from as we attempt to double production to 300 million tonnes by 2030.

The scrap deficit is not a logistics problem. It is not a policy failure. It is a structural feature of a fast-growing steel economy with a young in-use steel stock — and understanding it properly is essential for anyone making technology, capacity, procurement, or carbon compliance decisions in Indian steel.

The FY26 Production Picture: 169.2 Million Tonnes, Three Routes, One Uncomfortable Truth

India produced 169.2 million tonnes of crude steel in FY2025-26, a 10.7% increase over the previous year, according to provisional data released by the Joint Plant Committee (JPC) on April 8, 2026. The country regained its position as a net exporter of steel, with finished steel exports surging 35.9% to reach 6.6 million tonnes while imports fell 31.7%. Finished steel consumption reached approximately 164 million tonnes, reflecting 8% year-on-year growth driven by infrastructure, construction, and manufacturing demand.

But India’s steel industry is not one industry. It is three parallel industries, each with distinct economics, technology, and raw material dependencies — and the aggregate production number conceals a structural split that defines everything about India’s scrap equation.

The BOF (Basic Oxygen Furnace) route — the integrated mills operated by Tata Steel, JSW Steel, SAIL, AMNS India, and a handful of other large producers — accounted for approximately 72.8 million tonnes, roughly 43% of national output. This route starts with iron ore and coking coal in blast furnaces, producing hot metal (pig iron) that is then refined to steel. Scrap is used in BOF operations, but as a supplementary coolant — typically 10–15% of the metallic charge.

The EAF (Electric Arc Furnace) route accounted for approximately 32.2 million tonnes, about 19% of output. EAFs melt scrap and DRI using electric power, and are the primary vehicle for scrap consumption in India’s organised sector. However, unlike US and EU EAFs that run on 90–100% scrap, most Indian EAFs operate on mixed charges of 40–60% scrap and 40–60% DRI.

The IF (Induction Furnace) route — India’s vast, geographically dispersed secondary steel ecosystem — produced approximately 64.3 million tonnes, a remarkable 38% of national output. This is the sector that most policy discussions underappreciate. Induction furnaces operate across hundreds of clusters — Raipur, Mandi Gobindgarh, Muzaffarnagar, Jalna, Bhavnagar, Salem, and more — employing millions and producing the TMT bars, wire rods, and structural steel that build India’s houses, bridges, and roads.

The IF sector, along with smaller EAF producers, is where India’s scrap story truly plays out. These producers don’t operate blast furnaces. They don’t have captive iron ore mines. Their metallics — the raw material they melt to make steel — come from two sources only: steel scrap and sponge iron (DRI). And the balance between these two inputs is the axis on which India’s entire metallics economy rotates.

Mapping the Scrap Balance: Where 45–47 Million Tonnes Comes From

Estimating India’s total scrap consumption requires assembling data across all three production routes, each with different scrap intensities. The 45–47 million tonne estimate is derived from JPC production figures cross-referenced with typical metallic charge compositions reported by manufacturing companies across routes.

BOF operations typically use scrap as approximately 10–15% of the metallic charge, primarily as a coolant in the oxygen converter. At roughly 72.8 MT of BOF crude steel and an average 12% scrap charge, BOF scrap consumption is approximately 8–9 MT.

EAF operations in India run approximately 40–60% scrap with the balance as DRI. At 32.2 MT crude steel and roughly 50% scrap in the average charge, EAF scrap consumption comes to approximately 14–16 MT.

Induction furnaces operate with varying scrap-to-DRI ratios driven by relative pricing — when scrap is cheap relative to sponge iron, IFs increase their scrap proportion and vice versa. At 64.3 MT crude steel and roughly 35–40% scrap in the charge, IF scrap consumption is approximately 20–24 MT.

The aggregate across all three routes: approximately 45–47 million tonnes of total scrap consumption.

The cross-verification through apparent consumption confirms this range. JPC FY26 data records net scrap imports of 7.7 million tonnes. If total consumption was 45–47 MT and imports were 7.7 MT, then domestic scrap generation was approximately 38–39 MT. This implies a domestic generation-to-crude-steel ratio of approximately 23% — meaning India generates about 23 kg of recoverable steel scrap for every 100 kg of crude steel it produces. Approximately 84% of India’s scrap requirement is currently met domestically. The remaining 16% is imported, primarily from the UAE (approximately 26% of imports), UK (17%), USA (14%), and Saudi Arabia (9%).

The JPC Data That Reveals Everything: Why the Secondary Sector Is the Story

The JPC FY26 production data contains a breakdown that every steel professional should study closely, because it reveals the structural dependency that defines India’s scrap economics.

Steel Majors — the integrated producers — accounted for 96,469 thousand tonnes (57%) of crude steel, produced 89,753 thousand tonnes of hot metal, but generated only 15,270 thousand tonnes of DRI. They are overwhelmingly blast furnace operators. Their metallics are dominated by hot metal from iron ore, supplemented by purchased scrap and modest captive DRI.

The remaining producers — the secondary sector — accounted for 72,758 thousand tonnes (43%) of crude steel but produced only 6,756 thousand tonnes of hot metal (a fraction of the majors) while generating 45,034 thousand tonnes of DRI. This means the secondary sector produces 75% of India’s total DRI output.

This is the structural reality beneath the aggregate numbers: India’s secondary steel sector — which produces 43% of the nation’s steel and employs the vast majority of the industry’s workforce — runs almost entirely on scrap and DRI. It has negligible access to hot metal. Its entire business model depends on the availability and affordability of these two metallics.

When scrap prices spike (as they did during the Hormuz crisis, with domestic HMS prices rising ₹1,500–2,000 per MT), the secondary sector feels it first and hardest. When DRI prices rise (as they have with the MOIL manganese ore hike feeding into ferroalloy costs), the pressure compounds. The major integrated producers, insulated by their hot metal self-sufficiency, can absorb these cost swings far more easily.

This asymmetry — 57% of production insulated from scrap economics, 43% fully exposed to it — is the defining structural feature of India’s steel industry. And it is getting more pronounced, not less, as the secondary sector grows to meet India’s construction and infrastructure demand.

Three Structural Realities the Industry Must Confront

1. India’s Scrap Intensity Trails the World — and Physics Explains Why

India’s scrap-to-crude-steel ratio of approximately 28% trails the global average of roughly 32% and stands at barely half the levels achieved in the EU (approximately 56%) and US (approximately 70%).

The explanation is not policy failure. It is physics — specifically, the physics of the steel lifecycle.

Every tonne of steel ever produced exists in one of three states: in active use (buildings, vehicles, machinery, infrastructure), in transition (being recycled or processed), or lost (corrosion, landfill, unrecoverable waste). Steel generates scrap only when it reaches end-of-life — when a building is demolished, a vehicle is retired, a pipeline is decommissioned, or an appliance is discarded.

Developed economies have been industrialising and accumulating steel for 100–150+ years. The US has an estimated in-use steel stock of approximately 90–100 tonnes per capita. The EU is similar. These massive, mature stocks generate abundant obsolete scrap every year because buildings constructed 50 years ago are now being demolished, vehicles manufactured 15 years ago are being scrapped, and industrial equipment installed decades ago is being replaced.

India’s in-use steel stock is estimated at only 7–8 tonnes per capita. We have simply not been consuming steel at meaningful scale for long enough. India’s steel consumption inflection began in the early 2000s — meaning the bulk of steel ever consumed in this country is locked inside structures less than 25 years old. Buildings built in 2005 will not be demolished for another 30–50 years. Vehicles purchased in 2015 still have 10–15 years of road life. Railway tracks laid in 2010 are designed for 50-year service lives.

This is not a gap that policy can close in the near term. It is a physical reality that will evolve slowly over the coming decades as India’s in-use stock matures and begins generating the volumes of obsolete scrap that developed economies enjoy. Until then, India’s domestic scrap generation will grow — but incrementally, perhaps 3–5% per year, constrained by the age profile of the national steel stock.

2. Scrap Imports Will Balloon to ₹45,000–68,000 Crore by FY30

If India reaches the National Steel Policy’s target of 255 MT crude steel production by 2030, and scrap intensity holds at approximately 28%, total scrap demand would reach roughly 70 MT. Even with optimistic assumptions about domestic generation growing to 50–55 MT (implying a significant acceleration from current levels), the import gap reaches 15–20 MT — roughly double to triple FY26’s 7.7 MT.

At current international scrap prices of approximately $350–400 per tonne CIF India, annual imports of 15–20 MT would represent a foreign exchange outflow of $5.3–8.0 billion — approximately ₹45,000–68,000 crore at current exchange rates.

This is a balance-of-payments story that will eventually demand policy attention. India already spends over $150 billion annually on crude oil imports. Adding $5–8 billion for steel scrap — a raw material that, unlike oil, India could theoretically generate domestically — would be a significant and growing line item in the current account deficit.

The Hormuz crisis has already demonstrated the supply vulnerability of this import dependence. The UAE — India’s largest scrap supplier at 26% of imports — ships through the very Gulf routes that were disrupted. Business Standard reported that India’s ferrous scrap imports during April–October 2025 climbed 45% year-on-year to 5.7 million tonnes, reflecting pre-crisis restocking, but the February–March 2026 disruption likely constrained full-year volumes. Any extended disruption to Gulf shipping directly threatens the metallics supply to thousands of Indian induction furnaces.

The Vehicle Scrappage Policy and Steel Scrap Recycling Policy 2019 were designed to address part of this gap. Their implementation has been inadequate. As of 2025, fewer than 50 authorised vehicle scrapping centres were operational nationwide. India has approximately 300 million registered vehicles, with an estimated 30–40 million beyond their useful life. At 800–1,200 kg of recoverable steel per vehicle, this represents 24–48 MT of scrap locked in vehicles that should have been retired.

3. The DRI Ratio Is India’s Bridge — and Its Carbon Burden

Here is the number that makes India’s steel industry unique in the world: the DRI-to-crude-steel ratio of 35.6%.

The JPC data confirms that India produced 60,304 thousand tonnes (60.3 MT) of sponge iron/DRI in FY26 — the highest in the world by a wide margin. The secondary sector alone produced 45,034 thousand tonnes (45.0 MT) of this DRI, confirming that sponge iron is the primary metallic for India’s IF and smaller EAF operations.

This DRI is predominantly coal-based — produced in coal-based rotary kilns spread across Chhattisgarh, Odisha, Jharkhand, Karnataka, and other states with accessible coal and iron ore. Coal-based DRI is one of the more carbon-intensive metallics in steelmaking. While gas-based DRI (as produced by Essar/AMNS and some other units) has a significantly lower carbon footprint, the vast majority of India’s DRI output is coal-based.

The DRI ratio is both India’s salvation and its burden. It is what keeps the metallics balance closed despite insufficient domestic scrap — every tonne of DRI substitutes for scrap that doesn’t exist in sufficient quantities. Without 60 MT of DRI, India’s secondary sector would face a raw material crisis that would cripple 43% of national steel production.

But the carbon implications are severe. India’s average steel sector emission intensity is approximately 2.0–2.5 tonnes of CO₂ per tonne of crude steel — significantly higher than the EU average of 1.4–1.8 tonnes. A substantial portion of this gap is attributable to coal-based DRI. As CBAM begins imposing carbon costs on Indian steel exports to Europe, and as domestic climate commitments tighten, the coal-DRI model faces an increasingly hostile regulatory environment.

Why India Cannot Copy the EU/US Decarbonisation Playbook

The global narrative for steel decarbonisation — driven by EU policy and exemplified by projects like H2 Green Steel in Sweden — centres on the “shift to scrap-EAF” pathway. The logic is elegant: replace carbon-intensive blast furnaces with electric arc furnaces running on recycled scrap, powered by renewable electricity. Scrap-based EAF steelmaking produces approximately 0.4 tonnes of CO₂ per tonne of steel — roughly 75% less than the BF-BOF route.

This pathway works in the EU and US because of their scrap abundance. With 55–70% scrap intensity, these economies have more scrap available than they can consume domestically — the US exports approximately 15 MT of scrap annually. Their EAFs can run on nearly 100% scrap, and their electrical grids have sufficient renewable capacity (or credible pathways to it) to power the furnaces.

India’s situation is the inverse. Our scrap intensity of 28% is less than half the level needed to support a full EAF transition. Doubling it to 56% (EU levels) would require generating approximately 95 MT of domestic scrap annually — a physical impossibility given our in-use stock age profile. Even the National Steel Policy’s ambitious target of 70–80 MT total scrap supply by 2030 (domestic + imports) falls short of what a full EAF transition would require.

India’s decarbonisation pathway must therefore be fundamentally different. It will likely proceed through three overlapping phases. In the near term over the next 5 years, maximising scrap utilisation from every available source (vehicle scrappage, construction demolition, industrial end-of-life) while transitioning coal-based DRI to gas-based DRI where natural gas infrastructure exists. In the medium term over 5 to 15 years, scaling hydrogen-based DRI as green hydrogen costs decline with renewable energy expansion and electrolyser manufacturing scale-up. In the long term beyond 15 years, approaching EU/US scrap intensities as India’s in-use steel stock matures and begins generating 60–80 MT of obsolete scrap annually.

This is a 20–30 year transition, not a 5-year sprint. And it requires India to develop technology, policy, and infrastructure pathways that don’t yet exist at the required scale in any country.

Five Levers for Closing the Gap by 2030

Lever 1: Transform the Vehicle Scrappage Policy from announcement to execution. India’s 30–40 million end-of-life vehicles represent the single largest untapped scrap reservoir. The policy needs mandatory scrappage for commercial vehicles beyond 15 years (not just fitness testing), financial incentives substantial enough to override the resale value that keeps old vehicles on the road, and a scaled-up network of authorised scrapping centres — 500 minimum nationwide, not the current 50. At full execution, this could generate 4–5 MT of additional annual scrap by FY28-29.

Lever 2: Organise the construction and demolition waste stream. India demolished and rebuilt more floor space in the last decade than most countries build in a generation. Every demolished structure contains recoverable steel — rebar, structural sections, roofing sheets, pipes. Currently, most flows through informal channels with poor recovery rates. Integrating steel scrap recovery requirements into municipal demolition permits and mandating C&D waste processing at designated facilities could add 3–5 MT of high-quality domestic scrap annually.

Lever 3: Transition coal-based DRI to gas-based DRI, then to hydrogen. Since India’s DRI dependence is structural and unavoidable, making DRI cleaner is as important as increasing scrap supply. Gas-based DRI reduces CO₂ emissions by approximately 60% versus coal-based. Hydrogen-based DRI, the ultimate goal, eliminates process CO₂ entirely. JSW, Tata Steel, and AMNS India are all piloting green hydrogen for steelmaking — but commercial-scale deployment is 5–10 years away and depends on green hydrogen reaching $2 per kg (current costs are $4–6). Use SteelMath’s Scrap-to-Steel Production Cost Calculator to model how input changes affect production economics.

Lever 4: Build strategic scrap import infrastructure. If 15–20 MT of imports are inevitable by FY30, India needs dedicated scrap handling infrastructure at major ports, long-term supply agreements with scrap-surplus economies (US, EU, Australia, Japan), and quality-grading and environmental compliance systems that prevent contaminated or hazardous scrap from entering the country. The Hormuz crisis demonstrated how quickly Gulf-origin scrap supply can be disrupted — diversification across geographies is essential.

Lever 5: Develop a secondary sector technology upgrade programme. India’s 64.3 MT IF sector is the largest consumer of scrap and DRI, yet operates on technology that is 20–30 years behind the best available. Energy-efficient induction furnace designs, improved slag practices, and better scrap preparation (shredding, sorting, impurity removal) can increase yield and reduce the total metallics required per tonne of output. A government-supported technology upgrade scheme — similar to the PLI for specialty steel — could improve the sector’s resource efficiency by 5–10%, effectively “creating” 3–5 MT of metallics capacity without additional raw material.

What This Means for Every Steel Professional in India

For secondary steel producers (EAF/IF operators): The scrap deficit is your most important strategic risk. It determines your raw material cost, your operating margins, and ultimately your viability. Diversify your metallics sourcing — don’t depend solely on one scrap supplier or one DRI source. Build inventory buffers during periods of lower prices. Monitor Gulf shipping conditions (the Hormuz crisis disrupted your scrap supply chain) and domestic DRI pricing (the MOIL manganese ore hike flows through to sponge iron costs via ferroalloy prices). Use our Scrap Yield Calculator to optimise your charge mix.

For integrated steel majors: The scrap deficit creates opportunity. Captive scrap processing capacity — investing in collection, shredding, and preparation infrastructure — gives you preferential access to a tightening resource. Several global majors (Nucor, Steel Dynamics, Gerdau) have built competitive advantages through backward integration into scrap. Indian majors who do the same will have a structural cost advantage as scrap prices trend higher.

For steel traders and scrap dealers: The 15–20 MT import requirement by FY30 is a massive business opportunity. Building reliable supply channels with overseas scrap sources, investing in quality assurance and logistics, and positioning yourself as a bridge between international scrap markets and Indian IF/EAF consumers is a decade-long growth story. Our Scrap Grades Guide covers the classification system you need to master.

For policy makers and industry bodies: The scrap deficit is the binding constraint on India’s steel growth trajectory. Without addressing it through aggressive vehicle scrappage implementation, organised C&D waste recovery, and strategic import infrastructure, the 300 MTPA capacity target will face a raw material bottleneck that no amount of iron ore or DRI alone can resolve.

For sustainability and carbon professionals: India’s decarbonisation pathway runs through the scrap question. More scrap means less DRI, which means less coal consumption, which means lower emissions per tonne. Every additional million tonnes of domestic scrap generated saves approximately 1.5 million tonnes of CO₂ (by displacing coal-based DRI). The scrap gap is a carbon gap — and closing it is the single most impactful near-term decarbonisation lever available to the Indian steel industry.

Frequently Asked Questions

How much steel scrap does India consume annually?

India consumed approximately 45–47 million tonnes of steel scrap in FY2025-26, representing roughly 27–28% of its 169.2 million tonne crude steel output. Approximately 38–39 million tonnes (84%) was generated domestically, while 7.7 million tonnes was imported (JPC FY26 actual data). India is the world’s fourth-largest scrap consumer after China, the EU, and the US.

Why can’t India follow the EU/US model of scrap-based EAF steelmaking?

India’s scrap intensity of approximately 28% is less than half the EU level (56%) and well below the US (70%). This gap is structural, not cyclical — India’s in-use steel stock is only 7–8 tonnes per capita versus 90–100 tonnes in developed economies. Most steel ever consumed in India is still in active use in buildings, vehicles, and infrastructure less than 25 years old. Domestic scrap generation cannot scale fast enough to support a full EAF transition. India’s DRI ratio of 35.6% — the highest globally — bridges the gap, but creates a different decarbonisation challenge.

How much steel scrap will India need by 2030?

The National Steel Policy 2017 targets 70–80 million tonnes of total scrap supply by 2030 to support the 255 MT crude steel production target. If domestic generation reaches 50–55 MT (optimistic), annual imports would need to reach 15–20 MT — roughly double to triple FY26 levels. At current international prices, this represents a foreign exchange outflow of ₹45,000–68,000 crore annually.

What is the split between major and secondary producers in India?

JPC FY26 data shows Steel Majors produced 96,469 thousand tonnes of crude steel (57%) with 89,753 thousand tonnes of hot metal and 15,270 thousand tonnes of DRI. The remaining producers (secondary sector) produced 72,758 thousand tonnes (43%) with only 6,756 thousand tonnes of hot metal but 45,034 thousand tonnes of DRI — 75% of national DRI output. The secondary sector is near-totally dependent on scrap and DRI as metallics.

What is India’s DRI-to-crude-steel ratio and why does it matter?

India produced 60,304 thousand tonnes of DRI/sponge iron in FY26, giving a DRI-to-crude-steel ratio of approximately 35.6% — the highest in the world. This high DRI usage is what keeps India’s metallics balance closed despite insufficient scrap. However, the DRI is predominantly coal-based, making it carbon-intensive. India’s decarbonisation pathway requires transitioning this DRI from coal to natural gas and eventually to green hydrogen — a fundamentally different approach from the EU/US scrap-EAF model.

Data Sources & Verification

• JPC (Joint Plant Committee) FY26 production data: Total crude steel 1,69,227 thousand tonnes; Steel Majors 96,469 (57%), Remaining Producers 72,758 (43%); Hot metal 96,509; Sponge iron/DRI 60,304; Finished steel 1,61,735. Released via Ministry of Steel, April 8, 2026.
• Ministry of Steel press release, April 8, 2026: Crude steel production up 10.7% YoY to ~168.4 MT. Finished steel exports +35.9% to 6.6 MT. Imports -31.7%. India regained net exporter status.
• Angel One, April 2026: India crude steel 169.2 MT, +11.2% YoY. Finished steel consumption 164.2 MT, +8%.
• Business Standard, December 22, 2025: India ferrous scrap imports April-October FY26 climbed to 5.695 MT (+45% YoY). India consumed ~42 MT scrap in FY25 — 33 MT domestic, 9 MT imported. Fourth-largest scrap consumer globally.
• Markintel, October 2025: JPC data — India imported 6.8 MT scrap in FY24 (+24% YoY). UAE 26%, UK 17%, USA 14%, Saudi Arabia 9% of imports. Vehicle Scrappage Policy target 4-5 MT annual scrap by FY28; fewer than 50 authorised centres operational.
• National Steel Policy 2017: Targets 300 MTPA capacity, 255 MT production, 70-80 MT scrap supply by 2030. Per capita consumption target: 160 kg by FY31.
• Scrap intensity benchmarks: Global average ~32%, EU ~56%, US ~70% — World Steel Association and BIR (Bureau of International Recycling) publications.
• India in-use steel stock ~7-8 tonnes per capita: Estimated from cumulative apparent consumption data and assumed 1% annual loss rate — consistent with World Steel Association methodology.

This analysis uses estimates and industry-standard ratios where exact figures are not publicly available. Scrap consumption by production route is derived from typical charge compositions and may vary between individual plants. All JPC data is provisional and subject to revision. SteelMath is not a licensed financial or commodity advisor.

Related on SteelMath: Steel Production Cost Breakdown · CBAM Impact on Indian Steel · Hormuz Crisis Impact · Steel Scrap Grades Guide · Scrap Yield Calculator · Production Cost Calculator