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Subject: “Oil,Natural Resources”

  • Thermal sector grapples with coal stock management

    Why in the News

    Thermal power generators that hold adequate coal inventories are disadvantaged when limited domestic supply is redirected to plants that have fallen below their prescribed stock norms. Those norms are plant specific and have run under the Central Electricity Authority (CEA) framework that took effect on 6 December 2021. The revised Scheme for Harnessing and Allocating Koyala (Coal) Transparently in India (SHAKTI) policy, approved by the Central Government in May 2025, streamlined coal linkage allocation into two windows. Emergency redistribution keeps a low stock plant running and protects grid reliability. Repeating it removes the reason for any generator to carry stock at or above its norm, since the surplus is what gets moved.

    How is coal allocated to a thermal power plant?

    1. The linkage: A coal linkage is a long term assurance of supply from a specified source to a specified plant.
    2. The contract: A Fuel Supply Agreement (FSA) gives that linkage contractual form, fixing the quantity the coal company owes the generator.
    3. Window I: Central government owned generating companies and State utilities receive linkages at notified prices.
    4. Window II: Other eligible producers, including plants running on imported coal, procure coal through auctions at a premium over the notified price.

    Why does redistribution penalise the generator that stocked adequately?

    1. Compliance is measured plant by plant: The revised norms set a stocking level for each plant, so a generator is judged against its own requirement rather than a common one.
    2. Scarce coal moves toward the shortfall: When domestic supply is limited, deliveries are redirected to plants below their norms, and the generator that planned surrenders tonnage it had secured.
    3. The incentive runs backwards: Repeated redistribution removes any reason to carry stock above the norm, because the surplus is precisely what is taken.
    4. The proposed correction: A former Managing Director of PTC India, earlier the Power Trading Corporation of India, argued that coal inventory should be recognised as a system reliability service. Generators holding adequate or higher than normative stocks would be incentivised, and repeated shortfalls without genuine external cause would carry consequences.

    When is emergency redistribution justified?

    1. Grid stability and consumer supply: Assistance to plants at critically low stocks is defensible where consumer interests and grid stability are at risk.
    2. The distinction that decides it: Support must separate a genuine supply chain disruption from a persistent shortage caused by inventory mismanagement.
    3. The causes that qualify: Mine side constraints, railway bottlenecks, force majeure events and unexpected spikes in electricity demand are the genuine disruptions for which redistribution is meant.
    4. Where the framework came from: The Ministries of Coal, Power and Railways coordinate to monitor supplies and move coal, and the revised supply framework followed the COVID-19 pandemic, when all modes of transport came to a standstill.

    Is the problem a shortage of coal or a failure of logistics?

    1. Production has crossed a billion tonnes twice: Output reached 1,047.52 million tonnes in 2024-25 and 1,040.08 million tonnes in 2025-26.
    2. The current year’s run rate: Cumulative production through July stood at 302.04 million tonnes, and dispatches rose about 6 percent year on year to 354.7 million tonnes.
    3. Stock exists but sits in the wrong place: Thermal power plants held 34.55 million tonnes, with another 113 million tonnes at pitheads or in transit, a combined stock of about 148 million tonnes.
    4. Availability at the mine is not availability at the plant: Fuel security depends on the whole chain of production, loading, railway availability, transit, unloading and stockyard management.
    5. The binding constraint: The difficulty is how supplies are allocated, transported and converted into plant level inventories, not the national quantity of coal.

    Challenges to coal stock management in the thermal sector

    1. Rail capacity sets the replenishment ceiling: Coal moves mainly by rail, so rake availability decides how quickly a plant below its norm can be refilled. Eg. Passenger services were cancelled in 2022 to free rakes for coal movement to power stations.
      The Fix: Expand corridor capacity on the mine to plant routes and publish rake allocation in advance, so a generator can plan against a known schedule.
    2. Distance from the pithead is not priced into the norm: A plant far from its linked mine carries a longer transit and needs a larger buffer to hold the same days of cover. Eg. Plants in the western and southern States drawing from the Talcher and Mahanadi coalfields run multi day rail transits.
      The Fix: Set stocking levels by transit distance rather than by a uniform days of cover, so a distant plant is not judged on a pithead plant’s buffer.
    3. Grade slippage erodes the stock that is counted: A gap between the declared grade and the delivered grade means a tonne in the yard carries less heat than the norm assumes. Eg. Third party sampling of coal supplies was introduced after persistent grade slippage complaints from generators.
      The Fix: Express stocking norms in days of energy rather than days of tonnage, so quality shortfalls appear in the compliance number itself.
    4. Imported coal blending is abandoned when landed costs rise: Plants designed to blend imported coal cut back when the rupee weakens, which increases their draw on domestic supply. Eg. Blending directions issued to State generators in 2022 were resisted on cost grounds.
      The Fix: Allow the incremental fuel cost of a directed import to pass through in tariff automatically, so a blending direction does not sit on the generator’s balance sheet.
    5. Payment stress travels back up the chain: A generator owed money by distribution companies delays its own coal payments and cannot fund a larger inventory. Eg. Accumulated dues from State distribution companies prompted the Late Payment Surcharge Rules, 2022.
      The Fix: Enforce the existing payment security mechanism strictly, so working capital is not the reason a plant slips below its norm.

    Conclusion

    The dispute is not about how much coal the country digs out. It is about who absorbs the cost when a scarce delivery is moved from a plant that planned to one that did not. The tension is unresolved, because the authority that must keep a low stock plant running has no instrument to compensate the generator whose coal is diverted to it. Until a stocking norm carries a payment on one side and a consequence on the other, redistribution will keep shifting the cost of poor planning onto the generators that planned.

    Back2Basics: Central Electricity Authority

    1. What it is: The Central Electricity Authority is the technical advisory body of the Ministry of Power.
    2. Statutory basis: It functions under the Electricity Act, 2003, continuing the body first constituted under the Electricity (Supply) Act, 1948.
    3. Advisory role: It advises the Central Government on national electricity policy and prepares the National Electricity Plan.
    4. Technical role: It sets technical standards for the construction and operation of electrical plants and lines, and monitors daily coal stock positions at thermal stations.

    [2019] Consider the following statements:

    1. Coal sector was nationalized by the Government of India under Indira Gandhi.

    2. Now, coal blocks are allocated on lottery basis.

    3. Till recently, India imported coal to meet the shortages of domestic supply, but now India is self-sufficient in coal production.

    Which of the statements given above is/are correct?

    (a) 1 only

    (b) 2 and 3 only

    (c) 3 only

    (d) 1, 2 and 3

  • Why is India taking keen interest in resources of Arctic Region?

    The Arctic region, once considered a remote and inaccessible area, has gained global prominence due to climate change, emerging sea routes, vast natural resources, and geopolitical competition.

    India’s Steps with Reference to the Arctic

    Himadri Station (2008)- India’s first permanent research base at Svalbard (Norway).

    IndARC (2014)- India’s first multi-sensor moored observatory in the Kongsfjorden fjord to monitor Arctic climate changes.

    India was granted Observer status in the Arctic Council in 2013

    Arctic Policy (2022)- six pillars

    Research, climate, and environmental protection

    Promoting economic and human development

    Enhancing transportation and connectivity

    Improving governance and international cooperation

    Building national capacity in Arctic studies.

    Polar Research Vessel (PRV)- indigenous ice-breaker to ensure independent logistical capability.

    Reasons Behind India’s Interest in the Arctic

    Arctic and Monsoon Linkages

    Arctic warming affects Himalayan cryosphere, monsoon patterns, and extreme weather events.

    Melting sea ice influences ocean circulation and jet streams, impacting Indian agriculture and water security.

    Geopolitical Reasons

    Voice in emerging Arctic governance – observer status in the Arctic Council helps India participate in rule-making for global commons.

    Balancing major power competition – Eg- By strengthening its presence, India counters China’s self-proclaimed “Near-Arctic State” status.

    Ensures India is not excluded from evolving Eurasian polar geopolitics. Eg- Collaboration with Norway and Iceland in polar research diplomacy.

    Geo-economic Reasons

    Access to critical minerals – Arctic has deposits of rare earths, nickel, cobalt, and phosphates, essential for India’s manufacturing and clean-tech sectors.

    New opportunities for trade and investment – Eg- Indian companies exploring LNG projects in the Russian Arctic.

    Blue economy prospects – Sustainable fisheries and bio-resources for food and pharmaceutical industries.

    Energy Security

    The Arctic holds nearly 13% of undiscovered oil and 30% of natural gas.

    Supports India’s energy security and transition to a gas-based economy.

    Eg- Indian investment in Vostok Oil and Yamal LNG projects (Russia).

    Clean energy research – Cooperation in offshore wind, hydrogen, and carbon sequestration studies in polar conditions.

    Connectivity and Maritime Trade

    Melting ice is opening Northern Sea Route (NSR) and Trans-Arctic routes These routes can-

    Reduce India-Europe travel distance by up to 40%

    Lower logistics cost and time.

    Strengthen India’s maritime trade and Sagarmala initiative.

    Reduces dependence on vulnerable chokepoints like the Suez Canal.

    Eg- Chennai-Vladivostok Maritime Corridor.

    India’s engagement reflects a responsible stakeholder approach, balancing environmental sustainability with strategic and economic interests

  • Discuss the natural resource potentials of ‘Deccan Trap’.

    The Deccan Trap is one of the largest volcanic basalt provinces in the world, formed by massive lava flows during the late Cretaceous period. It covers nearly 5 lakh sq km across Maharashtra, Madhya Pradesh, Gujarat, Karnataka and Telangana.

    Natural Resource Potentials of the Deccan Trap

    Black Cotton Soil (Regur)

    Formed due to weathering of basaltic rocks.

    Its high clay content and moisture-retention capacity make it ideal for rain-fed agriculture.

    Supports India’s primary Cotton, Sugarcane, and Soybean belts in Maharashtra and Gujarat.

    Bauxite Reserves (Aluminum Ore) formed due to intensive chemical weathering (lateritization) of basalt in high-rainfall zones. Eg- Kolhapur and Ratnagiri Belt.

    Geothermal Energy Potential-Eg- Clusters of hot springs in Unhavare, Tural, and Rajapur along the Konkan coast.

    Multi-Layered Aquifer Systems-The vesicular (porous) and fractured nature of certain lava flows allows for significant groundwater storage.

    Hydrocarbon-Recent seismic surveys have indicated the presence of oil and natural gas trapped beneath the thick basaltic “lid.” Eg- in the Cambay Basin (Gujarat).

    Strategic Industrial Minerals like Zeolites are formed in the cavities (vugs) of basalt.

    Semi-Precious Gemstones-Eg- Agates, Amethyst, and Chalcedony

    The varying rainfall patterns across the plateau support diverse forest types, from moist evergreen to dry deciduous. Eg- Teak and Bamboo.

    Hydroelectric Power-The steep escarpments (Western Ghats) provide high-head sites for power generation. Eg- Koyna Hydroelectric Project

    Major Challenges

    Over-extraction of Groundwater

    Soil Degradation & Salinity in the sugarcane belt

    Seismic Vulnerability-Eg- 1967 Koyna and 1993 Latur earthquakes

    Eco-Sensitivity-Eg- mining in Western Ghats

    Technological Barriers in Exploration-Eg- High costs of Sub-basalt Imaging.

    Pollution from Industrial Clusters-Eg- Dust pollution in Navi Mumbai and Pune

    Sustainable management is essential to harness these potentials while ensuring long-term environmental stability and regional development.

  • Comment on the resource potentials of the long coastline of India and highlight the status of natural hazard preparedness in these areas.

    India’s coastline, extending approximately 7,517 km (with high-resolution mapping in 2026 citing nearly 11,100 km including islands), is the backbone of the nation’s Blue Economy.

    Natural Resource Potential of Indian Coastline

    Deep-Sea Mineral Wealth-The Exclusive Economic Zone (EEZ) contains vast deposits of polymetallic nodules and crusts rich in cobalt, nickel, and manganese.

    Hydrocarbons-Offshore basins are a source of oil and gas. Eg- The Mumbai High and Krishna-Godavari (KG) Basin.

    Beach Sand Minerals-Eg- The Monazite and Ilmenite sands of Kerala and Odisha are critical for India’s nuclear energy and aerospace programs.

    Offshore Renewable Energy-The wind speeds along the western and southern coasts offer a potential of over 70 GW for offshore wind energy. Eg- Gujarat and Tamil Nadu.

    Tidal and Wave Energy-Eg- The Gulf of Khambhat and Gulf of Kutch.

    Salt Production-India is the 3rd largest salt producer globally, with coastal topography favoring extensive salt pans.

    Marine Biotechnology (Blue Carbon)-Coastal ecosystems like mangroves and seagrass act as carbon sinks and sources of bioactive compounds.

    Coastal Tourism – Eg- Goa beaches and Kerala backwaters.

    Mangroves and Coastal Ecosystems – Support fisheries, carbon sequestration and shoreline protection. Eg- Sundarbans mangrove forests.

    Status of Natural Hazard Preparedness

    Advanced Early Warning Systems (EWS)-Eg- The IMD’s latest models in 2026 provide hyper-local cyclone alerts with a lead time of 5-7 days.

    The Indian Tsunami Early Warning Centre (ITEWC) at INCOIS provides real-time alerts to the entire Indian Ocean region. Over 100 coastal villages in Odisha have now achieved UNESCO’s “Tsunami Ready” certification.

    Bio-Shield Protection-Eg- The MISHTI Scheme (2023-27) has successfully restored nearly 3,000 hectares of mangroves along the East Coast.

    Hazard Line Demarcation-The Survey of India (SOI) has integrated this line into the updated Coastal Zone Management Plans (CZMP) for all maritime states.

    Last-Mile Connectivity-Eg- The NavIC-based GAGAN system provides emergency alerts to deep-sea fishermen even beyond cellular range.

    Integrated coastal zone management and Coastal regulation zones to regulate development activities.

    Cyclone-resistant infrastructure – Eg- Multipurpose cyclone shelters in Odisha and Andhra Pradesh.

    Challenges

    Nearly 33% of India’s coastline is experiencing active erosion

    Sea-Level Rise (SLR) threatens to submerge low-lying deltas and “sinking” cities. Eg- Mumbai.

    Pollution and Eutrophication-Runoff from coastal cities and farms creates “dead zones” in the ocean.

    Lack of last mile connectivity

    Increasing frequency and intensity of Cyclones.

    Way Forward

    Integrated Coastal Zone Management (ICZMP)-Focus on holistic “Ridge-to-Reef” planning rather than localized seawalls.

    Innovative Financing-Eg- Parametric Insurance for faster post-disaster recovery.

    Green Port Transition-Incentivize the “Harit Sagar” guidelines to reduce the carbon footprint of maritime trade.

    Blue Carbon Economy-Eg- Integrating MISHTI scheme outcomes with the National Carbon Market (NCM).

    Mandatory enforcement of the National Building Code (2016) for all new coastal constructions.

    Technology-Led Monitoring-Use AI, IoT sensors, and drones for 24/7 surveillance of the “Hazard Line.”

    These measures are essential to ensure that India’s vast coastline becomes a source of long-term prosperity rather than vulnerability.

  • Give a geographical explanation of the distribution of off-shore oil reserves of the world. How are they different from the on-shore occurrences of oil reserves?

    Petroleum reserves are found in sedimentary basins, where organic matter is trapped under pressure. Offshore reserves account for ~30% of global crude oil production. Their distribution is linked to continental shelf geology, passive margins, and deep-water basins.

    Geographical distribution

    The Persian Gulf (Middle East)- result of the collision between the Arabian and Eurasian plates, which created perfect “anticline” traps for oil. Eg- Safaniya field (Saudi Arabia), largest offshore oil field in the world.

    The Gulf of Mexico (North America)- It is characterized by salt domes that trap oil in the surrounding porous rock.

    The North Sea (Europe)- Situated between the UK, Norway, and Denmark. This region is a rift basin, with deep depressions where organic matter could settle.

    The South Atlantic Margins (Brazil & West Africa)- formed when South America and Africa drifted apart.

    Southeast Asia & India- in the South China Sea and India’s Mumbai High and Krishna-Godavari (KG) Basin

    Difference between off-shore and on-shore oil reserves

    Implications of uneven distribution of mineral oils in the world

    Energy security challenges – Oil-deficient countries face high import bills and current account deficits. Eg- India imports ~85% of its crude oil requirement.

    Resource Curse in Oil-rich Nations (Paradox of Plenty) – Overdependence on oil leads to limited economic diversification. Eg- Venezuela’s economic crisis.

    Energy trade is one of the key drivers of global geopolitics. Eg- US sanctions on Russian and Iran oil trade

    Competition for oil resources leads to wars and regional instability. Eg- Gulf Wars, Saudi-Iran rivalry.

    Oil-rich regions face oil spills, land degradation, and marine pollution. Eg- Niger Delta pollution.

    Global Carbon Emissions – oil and gas industry is responsible for over 5 billion tonnes of CO2 equivalent in direct emissions annually (15% of total energy-related emissions)

    In the long run, reducing oil dependence through clean energy, strategic reserves, and diversified supply chains is essential for ensuring equitable and sustainable global development.