India’s Coking Coal Dependency: The West Asia Freight Shock, What It Costs Steel, and Why DRI-EAF Is the Structural Hedge
India imports approximately 80 million tonnes of coking coal annually — its entire metallurgical coal requirement. The West Asia War added a 30–40% freight premium as shipping rerouted from Suez to the Cape of Good Hope. At Rs 20,000/t delivered, coking coal alone represents Rs 10,400 per tonne of BF-BOF steel produced. DRI-EAF with natural gas eliminates this dependency entirely — replacing coking coal with a fuel that is not Suez-exposed, has domestic production potential, and transitions to green hydrogen as prices fall.
Key Takeaways
- India has no commercially viable domestic coking coal deposits at scale. Its domestic coal reserves — primarily in Jharkhand, Odisha, West Bengal, and Chhattisgarh — are predominantly non-coking thermal coal and washery grades with coking indices too low for blast furnace use without extensive blending. India’s Gondwana coking coal deposits (Bokaro, Jharia basin) have been mined for over a century and the remaining reserves are deep, gassy, and of diminishing quality. The practical consequence is that India imports approximately 80 million tonnes of metallurgical-grade coking coal per year — 100 percent of its BF-BOF requirement — from Australia (approximately 60–65 percent of total), the USA (approximately 10–15 percent), Canada, Mozambique, and Russia.
- The West Asia War disrupted India’s coking coal supply chain through two channels. First, the closure of Hormuz-adjacent shipping lanes effectively redirected coal carriers from the Suez Canal route (which is the faster westbound route from Australia via the Indian Ocean) to the Cape of Good Hope routing (approximately 7 to 10 additional days of voyage time, adding $15 to $25 per tonne to freight costs). Second, the war reduced the number of available Capesize vessels as war risk insurance premiums drove many carriers to avoid the broader Gulf region, tightening global bulk carrier availability and lifting spot freight rates. The combined effect was a 30 to 40 percent freight premium on Australian coking coal delivered to Indian east coast ports by April 2026.
- At current delivered coking coal cost of approximately Rs 20,000 per tonne (FOB Australia approximately $260 to 280/t, plus freight premium), the coking coal cost component of BF-BOF steel production is approximately Rs 10,400 per tonne of crude steel (using a coking coal to hot metal ratio of approximately 0.52 tonnes of coke per tonne of hot metal, accounting for coke yield from coking coal). Against a BF-BOF operating cost of approximately Rs 18,475 per tonne (including all inputs), coking coal represents approximately 56 percent of total variable operating cost — a proportion that has risen from approximately 45 to 48 percent in the pre-2021 period when coal was cheaper and freight was unrestricted.
- Natural gas DRI eliminates coking coal dependency entirely. The DRI-EAF route uses natural gas as the reducing agent — not coking coal — and the natural gas supply chain has fundamentally different geopolitical and market characteristics. India’s domestic gas production from KG-D6, ONGC fields, and CBM/shale gas developments provides a partial domestic supply; LNG imports from Qatar, Oman, Australia, and the USA provide the remainder. While LNG is also affected by freight disruption (LNG tankers are smaller and more numerous than Capesize coal carriers, and the LNG supply chain is not concentrated on the same Suez corridor), the LNG market is considerably more diversified than the Australian coking coal market, and domestic gas production provides a genuine alternative that has no equivalent for coking coal.
- The freight shock changes the reline economics in two ways beyond the CBAM analysis. First, it directly increases the operating cost of BF-BOF steel production — the Rs 10,400/t coking coal cost at crisis prices compares to a DRI natural gas equivalent of approximately Rs 7,500 to 9,000/t (at domestic gas of Rs 12 to 18/MMBtu), improving the DRI-EAF operating cost position relative to BF-BOF even before CBAM is included. Second, it demonstrates that BF-BOF operating cost volatility — entirely driven by a single imported commodity with no domestic alternative — is structurally different from DRI-EAF operating cost volatility, where the gas versus scrap inputs are more diversifiable and partially domestically sourced.
- India’s steel industry has been pursuing coking coal supply diversification since the 2022 shock — signing long-term supply agreements with Mozambique’s coking coal producers (particularly Mozambique LNG-adjacent deposits), Canada’s Teck Resources (now Glencore), and exploring Indonesian semi-hard coking coal as a blend component. These diversification efforts reduce geographic concentration risk but do not eliminate the fundamental import dependency or the freight exposure to geopolitical disruption along global shipping routes. Only a route change — from coking coal to natural gas DRI, and eventually to green hydrogen DRI — eliminates the raw material vulnerability structurally.
Coking coal’s dominance of India’s BF-BOF steelmaking cost structure is not a recent development — it predates the West Asia War by decades. But the West Asia War’s freight shock has made what was always a latent vulnerability acute and financially material in a way that is directly comparable to the CBAM exposure analysis. For Indian steel CFOs who have been tracking CBAM as the dominant external financial risk to BF-BOF competitiveness, the freight shock adds a second, independent dimension of financial exposure that operates through raw material cost rather than export revenue — and that is structurally uncorrelated with CBAM (which is a regulatory cost driven by EU carbon policy, not commodity markets) but compounds the total operating disadvantage of the BF-BOF route versus DRI-EAF at current and projected market conditions.
The most significant aspect of the coking coal freight shock, from a strategic perspective, is not its magnitude in 2026 — the Rs 10,400/t coking coal cost at current prices, versus Rs 7,500 to 9,000/t for natural gas DRI feedstock. It is the demonstration that this cost can spike 30 to 40 percent in a single geopolitical event with no advance warning and no hedging strategy available to steel producers at reasonable cost. Coking coal futures markets exist, but long-term hedging of a commodity with this magnitude of spot price exposure is extremely expensive and practically unavailable for Indian steel producers at the volumes required. The DRI-EAF route, by contrast, offers multiple hedging mechanisms — long-term gas supply contracts, domestic gas production, and (in the longer term) green hydrogen from captive renewable installations that is immune to both commodity market volatility and geopolitical freight disruption.
BF-BOF Feedstock Risk Profile
DRI-EAF Feedstock Risk Profile
The supply diversification efforts and their limits
India Coking Coal Import Sources — Pre-War vs Crisis-Period Share and Risk Assessment
| Source Country | Pre-War Share | April 2026 Share | Freight Impact | Long-term Reliability |
|---|---|---|---|---|
| Australia | ~60–65% | ~55–60% | Cape rerouting adds $15–25/t — major exposure | Stable supplier but concentrated and Suez-exposed |
| USA (Appalachian) | ~10–12% | ~12–15% (share grew) | Atlantic route avoids Gulf/Suez entirely — lower West Asia War exposure | Competitive but higher base price; declining US coal investment |
| Canada (BC coast) | ~5–7% | ~6–8% | Pacific route via Indian Ocean — limited direct Suez exposure | Teck (now Glencore) long-term supply; reliable quality |
| Mozambique | ~5–8% | ~8–10% (growing) | Indian Ocean direct route — low West Asia War freight exposure | Production ramping up; infrastructure limited; political risk moderate |
| Russia | ~3–5% | ~4–7% (opportunistic) | Direct Bay of Bengal/Indian Ocean — no Suez exposure | Sanctions risk from Western buyers displacing to India; quality variable; political exposure |
| Indonesia | ~2–3% (semi-hard) | ~3–5% (blend filler) | Short Indian Ocean transit — minimal freight exposure | Semi-hard coking coal only; usable as blend but not primary charge |
Why India’s domestic coking coal development is not a viable alternative despite Jharia and Bokaro reserves. India’s Jharia coalfield in Jharkhand contains India’s primary coking coal reserves — estimated at approximately 19 billion tonnes of geological reserves, of which approximately 3 to 4 billion tonnes are proved extractable reserves. The practical constraint is that Jharia’s remaining high-grade coking coal is deep (below 300 metres), in seams prone to methane outbursts and spontaneous combustion, and in areas where historic mine fires (burning for over 100 years in some sections) have destroyed surface infrastructure and continue to consume underground reserves. The Coal India subsidiary BCCL (Bharat Coking Coal Ltd) operates at Jharia with continuing safety challenges and declining productivity per worker. The Jharia rehabilitation and resettlement project — relocating approximately 90,000 families to extinguish fires and access deeper reserves — has been underway for two decades with limited progress. Expecting Jharia to substitute for Australian coking coal imports at scale is not a realistic planning assumption for any 10-year capital investment horizon in Indian steel. The domestic coking coal development trajectory points toward modest incremental production from existing mines, not transformative import substitution.
Frequently Asked Questions
Can Indian steel companies lock in coking coal prices to avoid freight and commodity volatility?
Partially. Most large Indian steel companies (JSW, Tata Steel, SAIL) have long-term supply contracts with Australian and other producers covering a significant portion of their coking coal requirements — typically 60 to 80 percent on 1 to 3 year rolling contracts, with the remainder on spot. The contracted volumes are priced against quarterly benchmark indexes (HCC benchmark, LV hard coking coal) that are reset each quarter through negotiation between major producers and buyers. The quarterly benchmark mechanism means that even contracted volumes reprice at market every 90 days — there is no long-term fixed-price protection against commodity cycles or freight shocks. The only structural hedge against coking coal price volatility is eliminating coking coal from the production route — which DRI-EAF achieves.
At what coking coal price does natural gas DRI-EAF become cheaper than BF-BOF on a pure operating cost basis?
The operating cost crossover between BF-BOF and natural gas DRI-EAF depends on both coking coal and natural gas prices simultaneously. At pre-war coking coal prices of approximately $150 to 180/t and normal LNG prices of $8 to 12/MMBtu, BF-BOF was cheaper on a pure operating cost basis by approximately Rs 8,000 to 12,000 per tonne. At current crisis coking coal of approximately $270/t and crisis LNG of approximately $22 to 25/MMBtu (West Asia War-elevated), the gap has narrowed to approximately Rs 5,000 to 8,000 per tonne. For BF-BOF and DRI-EAF to reach operating cost parity without CBAM, coking coal would need to remain above approximately $230/t while LNG stabilises at approximately $10 to 14/MMBtu — a scenario where the West Asia War’s impact on gas is more severe than its impact on coal. With CBAM added to the BF-BOF side, the total cost of ownership crossover already favours DRI-EAF for EU-exposed production at current prices.
Is there any Indian domestic coking coal that can substitute for Australian imports at industrial scale?
India produces approximately 5 to 8 million tonnes of domestic washed coking coal per year from Jharia and Bokaro coalfields — against an import requirement of approximately 80 million tonnes. This covers approximately 6 to 10 percent of the metallurgical coal requirement, and the quality is generally lower (lower fluidity, higher ash content) than premium Australian hard coking coal, requiring blending with high-quality imported coal rather than substituting for it directly. The 90 to 94 percent import dependency gap cannot be bridged by domestic development in any realistic 10 to 15 year horizon. Coal India’s coking coal production is declining rather than growing due to the geological and safety challenges at the remaining Jharia reserves. The structural import dependency for coking coal is not a policy failure that can be corrected — it is a geological fact of India’s coal endowment that makes the DRI-EAF route change a strategic necessity rather than merely an economic optimisation.
Sources
- Ministry of Coal — India coking coal production data FY2024-25 — BCCL, CCL production
- Ministry of Steel — Raw material profile of Indian steel industry — coking coal import dependency
- IEA — Coal 2025 — India coking coal trade flows and price analysis
- S&P Global Platts — Coking coal price benchmarks — HCC quarterly pricing mechanism
- BCCL — Jharia coalfield development and fire mitigation status
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