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  • [14th October 2025] The Hindu Op-ed: A green transition accelerating at express speed

    PYQ Relevance:

     

    [UPSC 2020] Do you think India will meet 50 percent of its energy needs from renewable energy by 2030? Justify your answer. How will the shift of subsidies from fossil fuels to renewables help achieve the above objective? Explain.

     

    Linkage: The transition is inherently linked to climate change mitigation, conservation, and pollution control. Recent topics include CCUS, India’s updated climate commitments (NDCs), and balancing development with environmental protection.

    Why in the News?

    The successful trial of India’s first hydrogen-powered coach at the Integral Coach Factory (ICF), Chennai, in July 2025 marks a critical milestone in the Indian Railways’ decarbonisation strategy.

    Introduction:

    With a target of achieving net-zero carbon emissions by 2030, four decades ahead of India’s national goal, the Indian Railways is reshaping its energy, infrastructure, and financing architecture to become a global model for sustainable mobility.

    Carrying over 24 million passengers and 3 million tonnes of freight daily, this transition directly supports India’s nationally determined contributions (NDCs) under the Paris Agreement.

    India’s Energy Transition Context (2025):

    • As of June 2025, over 50% of India’s installed power capacity (476 GW total) comes from non-fossil sources, five years ahead of its 2030 Paris target.
    • Renewables: Solar (110.9 GW) and wind (51.3 GW) continue rapid expansion; nuclear capacity adds 8.8 GW.
    • Electrification: 100% village electrification achieved, with household access nearing universality.
    • Challenges:
      • Fossil fuel reliance: Coal consumption rose to 21.98 EJ in 2023, up from 6.53 EJ in 1998, with petroleum demand increasing in agriculture.
      • Energy equity gaps: Access to clean cooking fuel remains uneven; LPG adoption under PM Ujjwala Yojana suffers from affordability constraints.

    Green Transition and Decarbonisation Efforts in Railways:

    1. Network Electrification: Over the past decade, the Indian Railways has electrified nearly 45,000 km of its broad-gauge network, bringing 98% of routes under electrification. This has drastically reduced diesel use and greenhouse gas emissions, marking a major shift toward energy efficiency.
    2. Renewable Integration: Renewable power capacity has reached 756 MW (553 MW solar, 103 MW wind, 100 MW hybrid). Over 2,000 stations and offices are now powered by solar energy, reducing grid dependence and promoting clean traction power.
    3. Net-Zero Buildings: Several railway complexes and offices have received the “Shunya” Net-Zero label from the Bureau of Energy Efficiency (BEE) for achieving energy neutrality and carbon efficiency.
    4. Hydrogen for Heritage Initiative: This flagship programme aims to deploy 35 hydrogen-powered train units, with the first prototype hydrogen coach rolled out in 2025, representing a major milestone in green rail mobility.
    5. Freight and Efficiency Gains: Dedicated Freight Corridors (DFCs) are projected to prevent 457 million tonnes of CO₂ emissions over the next 30 years. The goal is to increase the rail freight modal share from 27% to 45% by 2030, cutting road-sector emissions.
    6. Complementary Actions: Railways are also expanding biofuel blending, green building construction, and rolling stock modernisation with regenerative braking and energy-efficient locomotives.

    Hydrogen Coach Technology and Innovation:

    1. Fuel-Cell Mechanism: The hydrogen coach uses fuel-cell technology to generate electricity through a chemical reaction between hydrogen and oxygen, producing only water vapour as the by-product, ensuring zero tailpipe emissions.
    2. Operational Context: Designed for non-electrified heritage routes where full electrification is uneconomical, these trains combine lightweight coach design, aerodynamic efficiency, and AI-based traction optimisation to minimise operational costs.
    3. Global Positioning: With this innovation, India joins the league of nations such as Germany and Japan that are pioneering hydrogen-based railway systems as part of a wider low-carbon transport transition.

    Climate Finance and Institutional Architecture:

    1. Green Financing Framework: India has issued ₹58,000 crore worth of sovereign green bonds since FY2023, with ₹42,000 crore specifically allocated to electric locomotives, metros, and suburban rail projects.
    2. IRFC’s Role: The Indian Railway Finance Corporation (IRFC) pioneered a $500 million green bond in 2017 for refinancing electric locomotive projects, and in 2025 extended a ₹7,500 crore loan to NTPC Green Energy to support renewable generation for traction power.
    3. Multilateral Support: The World Bank’s $245 million Rail Logistics Project (2022) aims to decongest corridors and reduce transport-sector emissions through improved infrastructure efficiency.
    4. Institutional Integration: Together, these instruments embed climate goals into national capital budgeting, aligning transport infrastructure with India’s low-carbon growth pathway.

    Policy and Operational Priorities:

    1. Renewable Power Procurement: Long-term contracts with solar and wind producers are critical to ensure that electrified routes are powered by green energy rather than coal-based electricity.
    2. Green Mobility Hubs: Major stations are being redesigned as multi-modal eco-hubs with integration of EV charging stations, e-buses, and bicycle-sharing systems.
    3. Freight Decarbonisation: Emphasis on electric, LNG, and hydrogen-fuelled trucks for last-mile logistics, reducing the carbon footprint beyond rail.
    4. Rolling Stock Modernisation: Accelerated adoption of lightweight aluminium coaches, regenerative braking, and energy-efficient locomotives.
    5. Behavioural Initiatives: Introduction of green certification for trains, carbon labelling of freight, and public awareness programmes to mainstream sustainability.

    Projected Outcomes by 2030:

    1. Net-Zero Achievement: The Indian Railways aims to achieve net-zero carbon emissions by 2030, preventing an estimated 60 million tonnes of CO₂ annually, equivalent to removing 13 million cars from the roads.
    2. Economic Impact: Fuel cost savings from electrification and energy efficiency could exceed ₹1 lakh crore by 2030, freeing capital for further green infrastructure.
    3. Global Benchmark: The Indian Railways is positioned to become the world’s first large rail system to achieve net-zero operations, setting a global precedent for state-run low-carbon transport.

    Conclusion:

    1. The hydrogen-powered coach exemplifies the synergy of technology, finance, and policy in achieving sustainable national mobility.
    2. The Railways’ green transformation is both an environmental necessity and a strategic innovation model for the developing world.
    3. Its successful execution will anchor India’s net-zero and green industrialisation vision, proving that scale and sustainability can coexist profitably.
  • Snow Leopards are the world’s least genetically diverse Big Cat

    Why in the News?

    A new Stanford University-led study has revealed that the Snow Leopard has the lowest genetic diversity among all big cats, even lower than the Cheetah.

    Snow Leopards are the world’s least genetically diverse Big Cat

    About Snow Leopard:

    • Overview: Also called the “ghost of the mountains”; Belongs to the genus Panthera but genetically distinct from tigers and leopards, with unique adaptations for alpine life.
    • Physical Features: Thick pale-gray fur with rosettes, powerful hind limbs, and a long, muscular tail that aids balance and warmth.
    • Habitat: Found at altitudes between 3,000–5,500 metres, thriving in rugged, snow-covered mountain ranges and alpine meadows.
    • Geographical Distribution:
      • In India: Present in Ladakh, Himachal Pradesh, Uttarakhand, Sikkim, Arunachal Pradesh, and parts of Jammu & Kashmir.
      • Globally: Distributed across Central and South Asian mountain systems, including the Himalayas, Pamirs, and Tien Shan.
    • Population Status:
      • Global estimate: 4,500–7,500 individuals.
      • India: Approximately 718 individuals, representing 10–15% of the global total.
    • Conservation Status:
      • IUCN Red List: Vulnerable
      • CITES: Appendix I
      • Wildlife (Protection) Act, 1972 (India): Schedule I
    • National Conservation Measures:
      • Project Snow Leopard (2009): Integrates community participation in Himalayan conservation.
      • SECURE Himalaya Project (GEF–UNDP): Focuses on sustainable ecosystem management.
      • Himalaya Sanrakshak (2020): Enlists local guardians for high-altitude habitats.
      • National Protocol on Population Assessment (2019):  Ensures standardized monitoring.

    Ecological Significance:

    • Apex Predator Role: Serves as the top carnivore in the Himalayan and Central Asian alpine ecosystems, maintaining the balance between herbivores like blue sheep, ibex, and argali.
    • Indicator of Ecosystem Health: Its presence reflects ecosystem integrity, as it thrives only in undisturbed, well-connected, prey-rich habitats.
    • Climate Regulation: Snow leopard landscapes, glaciers, permafrost zones, and alpine grasslands, act as major carbon sinks and regulate water flows to nearly two billion people across Asia.
    • Biodiversity Link: By controlling herbivore populations, it prevents overgrazing, thus preserving alpine vegetation and soil stability.
    • Cultural and Economic Value: Revered in Himalayan folklore and central to eco-tourism-based livelihoods, symbolizing coexistence between humans and nature.
    • Transboundary Importance: Its habitat spans across 12 range countries, making it a flagship species for international cooperation under the Global Snow Leopard and Ecosystem Protection Programme (GSLEP).
    [UPSC 2012] Consider the following:

    1. Black-necked crane 2. Cheetah 3. Flying squirrel 4. Snow leopard

    Which of the above are naturally found in India? Options: (a) 1, 2 and 3 only (b) 1, 3 and 4 only* (c) 2 and 4 only (d) 1, 2, 3 and 4

     

  • Nobel Prize in Economic Sciences, 2025

    Why in the News?

    The 2025 Nobel Prize in Economic Sciences (Sveriges Riksbank Prize in Memory of Alfred Nobel) was awarded to Joel Mokyr (Northwestern University, US), Philippe Aghion (Collège de France, INSEAD, LSE), and Peter Howitt (Brown University, US) for their pioneering explanations of innovation-driven economic growth.

    What is the Nobel Economics Prize?  

    • Officially called the Bank of Sweden Prize in Economic Sciences in Memory of Alfred Nobel, established in 1968.
    • It is NOT part of the original Nobel Prizes created by Alfred Nobel in 1895.
    • Created by the Swedish central bank to honor Alfred Nobel’s legacy.
    • Although not an original Nobel Prize, it is presented alongside the other Nobel Prizes on December 10, the anniversary of Nobel’s death.
    • Includes a diploma, gold medal, and a one-million-dollar prize for the laureates.

    Who are the Nobel Laureates for 2025?

    • Joel Mokyr (Northwestern University, USA): An economic historian, renowned for studying how scientific knowledge, cultural openness, and institutional change during the Enlightenment triggered the Industrial Revolution.
    • Philippe Aghion (Collège de France, INSEAD, LSE): A leading growth theorist, known for advancing the Schumpeterian model of innovation-driven growth and the economics of creative destruction.
    • Peter Howitt (Brown University, USA): Collaborator of Aghion, co-developer of the Aghion–Howitt growth model, integrating firm-level innovation dynamics into macroeconomic theory.

    Their Contributions:

    1. Joel Mokyr:
      • Demonstrated that before the 18th century, societies possessed “prescriptive knowledge” (how things worked) but lacked “propositional knowledge” (why they worked).
      • Showed that the Scientific Revolution merged science with craftsmanship, turning discovery into applied innovation.
      • Highlighted that the Enlightenment’s intellectual openness enabled acceptance of “creative destruction,” allowing new technologies to replace old ones without institutional backlash.
    2. Philippe Aghion & Peter Howitt:
      • Developed the 1992 Schumpeterian Growth Model, mathematically linking innovation, competition, and economic growth.
      • Explained that constant firm turnover—where new innovators replace old incumbents—creates long-term, stable growth.
      • Introduced the idea of “general equilibrium in innovation”, connecting household savings, financial markets, R&D investment, and production into a single dynamic framework.
  • RBI introduces Unified Markets Interface (UMI)

    Why in the News?

    RBI Governor has unveiled the Unified Markets Interface (UMI) a next-generation financial market infrastructure developed by the Reserve Bank of India (RBI).

    What is Unified Markets Interface (UMI)?

    • Overview: The UMI is a next-generation financial market infrastructure conceptualized by the Reserve Bank of India (RBI) to tokenize financial assets and settlements using the wholesale Central Bank Digital Currency (CBDC).
    • Purpose: It aims to modernize India’s financial markets by enabling blockchain-based asset transactions, improving market transparency, and streamlining settlements through digital automation.
    • Significance: The UMI represents India’s entry into asset tokenization, the conversion of real-world financial instruments into digital tokens, thereby integrating CBDC, smart contracts, and digital public infrastructure within a single interoperable ecosystem.

    Features of UMI:

    • CBDC-Enabled Settlement: Uses the wholesale Central Bank Digital Currency (CBDC) to execute high-value settlements instantly and securely.
    • Asset Tokenization: Converts traditional financial assets into digital tokens on blockchain, allowing fractional ownership and seamless transferability.
    • Unified Infrastructure: Creates an integrated, interoperable market interface linking banks, investors, and financial intermediaries on a single digital framework.
    • Smart Contract Automation: Employs programmable contracts for real-time clearing, settlement, and compliance, reducing manual intervention.
    • Transparency and Efficiency: Blockchain ensures immutable transaction records and enhances traceability, reducing fraud and settlement delays.

    Back2Basics: Asset Tokenization

    • Definition: The process of converting real-world assets, such as bonds, real estate, commodities, or equities, into digital tokens stored on blockchain networks.
    • Mechanism: Each token represents fractional ownership, enabling smaller investors to participate in high-value assets traditionally limited to institutions.
    • Technology Base: Built on blockchain and smart contracts, ensuring transparent, secure, and automated transactions.
    • RBI’s Application: Tokenized financial assets under UMI will settle through wholesale CBDC, providing real-time, tamper-proof, and traceable transactions.
  • Anna Mani and her contributions in India’s Atmospheric Research

    Anna Mani and her contributions in India’s Atmospheric Research

    Why in the News?

    The National Book Trust has released a book on highlighting physicist Anna Mani’s pioneering ozone and pollution studies in Pune decades before “climate change” entered discourse.

    Who was Anna Mani (1918–2001)?

    • Overview: Indian physicist and meteorologist from Peermade, Kerala; pioneered India’s meteorological instrumentation and atmospheric science.
    • Alma mater: Studied physics at Presidency College, Chennai (1939); trained at Imperial College, London; joined IISc Bengaluru under C.V. Raman, publishing five crystallography papers.
    • Professional Career: Joined the India Meteorological Department (IMD) in 1948; later headed its Instruments Division; earned the title “Weather Woman of India.”

    Key Contributions:

    • Meteorological Instrumentation: Designed and standardized 100+ weather instruments, including India’s first pyranometers and sunshine recorders, ending dependence on imports. Established the Regional Instrumentation Centre, Pune, for nationwide calibration.
    • Measurement Infrastructure: Created a national network of solar, wind, and radiation observatories; introduced WMO-grade calibration; data later used for India’s first Wind Energy Atlas.
    • Ozone & Atmospheric Research: In 1964, developed India’s first ozonesonde balloon measuring ozone up to 35 km; integrated into the WMO Global Ozone Mapping Programme. Her studies on ground-level ozone and urban aerosols anticipated modern air-pollution science.
    • Instrument Design & Ethics: Innovated with glass and Teflon components to remove chemical errors in ozonesondes; upheld the credo “wrong measurements are worse than none.” Her Pune lab became a model of scientific precision.
    • Publications: Authored “Handbook for Solar Radiation Data for India” (1980) and “Wind Energy Resource Survey in India” (1992), both still reference standards for renewable-energy studies.
    • Environmental Vision: Warned early about CFC emissions and ozone depletion; connected industrialization to atmospheric alteration, foreshadowing the Anthropocene concept.
    • Legacy: Her datasets form India’s earliest continuous record of ozone, radiation, and aerosol change, anchoring present-day climate-model validation and policy research.
  • RRI technique yields Certified Randomness with one Qubit

    Why in the News?

    The Raman Research Institute (RRI), Bengaluru team has mastered the Leggett–Garg Inequality (LGI)–based quantum randomness certification technique.

    What is Quantum Randomness?

    • Overview: Quantum randomness means true unpredictability, results that even nature or science cannot predetermine. They arise from the laws of quantum physics, not from computer programs or hidden causes.
    • Ordinary Computers: In normal computers, random numbers come from formulas called pseudorandom generators. They look random but can be predicted if someone knows the starting point (the “seed”).
    • Quantum Systems: In quantum physics, when you measure something tiny, like the spin of an electron or the path of a light particle (photon), the result is decided only at the moment of measurement. No one, not even nature, “knows” the answer before that.
    • Why it Matters: True randomness is important for data security, safe online transactions, scientific research, and encryption, where predictability can lead to hacking or errors.

    What has RRI achieved?

    • Discovery: Scientists at the Raman Research Institute (RRI), Bengaluru, led by Prof. Urbasi Sinha, have found a way to create and verify true quantum randomness using a regular cloud-based IBM quantum computer.
    • Why it’s Important: Earlier, proving quantum randomness needed expensive lab equipment. Now it can be done remotely and cheaply, accessible to anyone with internet and quantum cloud access.
    • How it Works: The RRI team used just one qubit (the quantum version of a computer bit) to show that the randomness came from quantum effects, not from hardware noise or computer errors.
    • Key Finding: This demonstrates that even imperfect quantum computers can still generate trustworthy and verifiable random numbers, a capability that classical computers cannot achieve.

    What is the Leggett–Garg Inequality (LGI)–Based Test?

    • Basic Idea: The Leggett–Garg Inequality (LGI) is a scientific test that checks whether something behaves like everyday objects (predictable) or like quantum systems (unpredictable).
    • How it was Used: The RRI scientists measured one qubit at three different times to see if its behavior followed normal physics or quantum rules.
    • Two Conditions Checked:
      • LGI Violation – confirmed the qubit was behaving in a truly quantum way.
      • No Signalling in Time – ensured that each measurement was independent and not influenced by the previous one.
    • Result: Meeting both tests proved that the numbers generated were certified as truly random, coming purely from quantum physics, not from any background noise or interference.

    Real-life Applications:

    • Cybersecurity: Such randomness can make unbreakable encryption keys, protecting sensitive data from hackers.
    • Cloud Computing: People using quantum computers online can now access trusted random numbers for research or secure systems anywhere in the world.
    • Testing Quantum Machines: Helps scientists check the quality of quantum computers, since randomness shows how genuinely quantum the machine is.
    • Better Science: Used in simulations, artificial intelligence, and data analysis where unpredictability makes results more reliable.
    • Big Scientific Message: Confirms that the quantum world is truly uncertain, proving one of the most fascinating truths of modern science, that randomness is built into nature itself.
    [UPSC 2025] Consider the following statements:

    I. It is expected that Majorana 1 chip will enable quantum computing.

    II. Majorana 1 chip has been introduced by Amazon Web Services (AWS).

    III. Deep learning is machine learning.

    How many of the statements given above are correct?

    (a) I and II only (b) II and III only (c) I and III only * (d) I, II and III

     

  • Maitri II Research Station in Antarctica

    Why in the News?

    The Finance Ministry has approved the establishment of Maitri II, India’s newest Antarctic research station, to be built in eastern Antarctica by January 2029.

    About Maitri II Research Station:

    • Objective: Advance research in climatology, glaciology, seismology, biology, and atmospheric sciences while maintaining eco-compliance.
    • Overview: India’s upcoming 4th Antarctic base, to be completed by January 2029 near Schirmacher Oasis, eastern Antarctica, replacing the aging Maitri (1989) which will operate as a summer camp.
    • Implementing Agency: Executed by National Centre for Polar and Ocean Research (NCPOR), Goa under the Ministry of Earth Sciences (MoES); estimated cost ₹2,000 crore.
    • Design & Technology: Features AI-enabled systems, automated sensors, solar and wind power, and upgraded modular accommodation with strict environmental standards.
    • Construction Phases: Prefabrication in India → shipment via Cape Town → transport to Indian Barrier (120 km from Maitri) → on-site assembly during Antarctic summer.

    Back2Basics: India’s Polar Programmes

    • Antarctica Programme: Began in 1981; coordinated by NCPOR.
      • Dakshin Gangotri (1983) – first base, now decommissioned.
      • Maitri (1989) – inland station near Lake Priyadarshini.
      • Bharati (2012) – modern coastal station 3,000 km east.
      • Maitri II (2029) – to be India’s largest and greenest base.
      • Research covers ice-core climate records, marine ecosystems, space weather, and climate modelling.
    • Arctic Programme (2007): Also led by NCPOR; permanent station Himadri at Ny-Ålesund (Svalbard, Norway) studies Arctic warming, polar-monsoon linkages, biodiversity; India holds Observer Status in the Arctic Council (since 2013).

    Key Laws & Treaties governing Polar Expeditions:

    • India Antarctica Act 2022: Implements the Antarctica Treaty (1959); creates Central Committee on Antarctica Governance; bans mining, nuclear activity, non-native species; introduces permit system and Antarctica Fund; severe penalties (up to 20 years).
    • Antarctica Treaty (1959): 54 members (India joined 1983); ensures peaceful scientific use, bans territorial claims and military activity, upholds environmental cooperation.
    • Madrid Protocol (1991): Declares Antarctica a “natural reserve for peace and science”; forbids mineral extraction; mandates Environmental Impact Assessments (EIA).
    • Convention on the Conservation of Antarctic Marine Living Resources (CCAMLR, 1982): Conserves Antarctic marine biodiversity, regulates fishing and resource use to maintain ecosystem balance.
    [UPSC 2015] The term ‘IndARC’, sometimes seen in the news, is the name of Options: (a) an indigenously developed radar system inducted into Indian Defence

    (b) India’s satellite to provide services to the countries of Indian Ocean Rim

    (c) a scientific establishment set up by India in Antartic region

    (d) India’s underwater observatory to scientifically study the Arctic region *

     

  • [pib] Bharat Taxi Initiative

    Why in the News?

    India is launching Bharat Taxi, a cooperative-based national ride-hailing platform under Digital India, with NeGD partnering Sahakar Taxi Cooperative for technical and advisory support.

    About the Bharat Taxi Initiative:

    • Objective: To create a citizen-centric alternative to global ride-hailing corporations, ensuring fair wages, cooperative governance, and local ownership.
    • Nature: A cooperative-owned, technology-driven national ride-hailing platform designed to provide affordable, secure, and transparent mobility solutions.
    • Timeline: Expected by December 2025, targeting both urban and rural transport needs.
    • Promoters: Supported by leading cooperative and financial institutions NCDC, IFFCO, AMUL, KRIBHCO, NAFED, NABARD, NDDB, and NCEL.

    Key Features:

    • Cooperative Ownership Model: Operated and governed by driver cooperatives, ensuring profit-sharing, fair pricing, and collective decision-making.
    • Digital Integration: Linked with national platforms such as DigiLocker, UMANG, and API Setu, allowing seamless identity verification, license validation, and service delivery.
    • Inclusive Design: Provides multilingual UI, accessibility for differently-abled users, and equal participation for women drivers.
    • Transparent Fare System: Uses open-source algorithms for real-time fare calculation to prevent overcharging or surge pricing manipulation.
    • Integration with Digital Public Infrastructure: Aligned with Aadhaar, UPI, and DigiLocker, facilitating digital payments and paperless onboarding.
  • India’s long history of resistance to economic domination

    Why in the News?

    Trade negotiations between India and the United States remain stalled after President Trump’s administration doubled tariffs on Indian goods to 50% and imposed an additional 25% duty on Russian oil imports by India.

    Introduction

    External Affairs Minister S. Jaishankar emphasised that while understanding with the US, “the world’s largest market” is essential, India’s economic sovereignty and red lines must be respected.

    This impasse reflects the global shift from free trade to protectionism, echoing earlier eras when India resisted externally imposed economic dominance, first under colonial exploitation, and later through planned economic reconstruction after independence.

    Colonial Economic Exploitation and India’s Resistance:

    1. Transformation of Economy: The British colonial system dismantled India’s self-sufficient agrarian and artisanal base, converting the country into a supplier of raw materials and a market for British-manufactured goods.
    2. Drain Theory and Fiscal Exploitation: Dadabhai Naoroji, in Poverty and Un-British Rule in India (1901), argued that India’s wealth was drained to Britain, financing its prosperity: “The British Indian Empire is formed and maintained entirely by Indian money and mainly by Indian blood.”
    3. Phases of Colonial Capitalism:
      • Mercantile Capitalism (EIC Era): Extraction through monopoly trade and taxation.
      • Industrial Capitalism (19th Century): India reduced to an exporter of raw cotton and importer of textiles.
      • Finance Capitalism (Early 20th Century): British private capital dominated infrastructure, plantations, and banking, reinforcing dependency.
    4. Economic Consequences: The structure produced de-industrialisation, agrarian stagnation, excessive taxation, and recurring famines, resulting in widespread impoverishment.

    Intellectual Critiques of the Colonial Economy:

    1. R. C. Dutt – Industrial Destruction: In The Economic History of India (1901–02), he demonstrated how colonial policies deliberately destroyed indigenous industries to protect British manufacturers.
    2. M. G. Ranade – Economic Dependency: Criticised colonial economic dependence and advocated industrial regeneration through Indian entrepreneurship.
    3. R. Palme Dutt – Stages of Imperialism: In India To-day (1940), identified three stages of capitalist domination , mercantile, industrial, and finance , highlighting the evolution of imperial control.
    4. G. V. Joshi , an Economist, aptly described railway expenditure as an “Indian subsidy to British industry.”

    Economic Reconstruction After Independence:

    1. Inherited Structural Weakness: At independence in 1947, India faced an agrarian, impoverished, and unequal economy drained of capital and industrial base.
    2. Ideological Synthesis: Rejecting Cold War binaries, India adopted a non-aligned mixed economy, blending socialist planning with capitalist pragmatism to ensure self-reliance and equity.
    3. Intellectual Precursors to Planning:
      • Visvesvaraya Plan (1934) – advocated industrialisation and state coordination.
      • National Planning Committee (1938) – set the foundation for state-directed development.
      • Bombay Plan (1944) – proposed large-scale industrialisation with public–private cooperation.
      • Gandhian and People’s Plans (1944–45) – emphasised decentralisation and rural self-sufficiency.
    4. First and Second Five-Year Plans:
      • First Plan (1951–56): Focused on agriculture, irrigation, and rural reconstruction.
      • Second Plan (1956–61): Based on P. C. Mahalanobis model, prioritising heavy industries, capital goods, and import substitution.

    Planned Economy and Centralisation of Authority:

    1. Institutional Creation: The Planning Commission (1950), chaired by the Prime Minister, institutionalised centralised planning and target allocation.
    2. Fiscal Centralisation: The Finance Commission (Article 280), though constitutionally mandated for fiscal transfers, became secondary to plan-based resource allocation.
    3. Limited Federal Consultation: The National Development Council (1952) was created to involve states but lacked independent financial powers.
    4. Command Economy Features: India’s planning structure mirrored Soviet-style central control, aiming for rapid industrialisation, public sector expansion, and poverty eradication, yet it consolidated central dominance in economic governance.

    Transition to Federal Economic Governance:

    1. Liberalisation Era (1991): The balance-of-payments crisis triggered wide-ranging reforms , ending the Licence–Permit–Quota Raj, deregulating industries, reducing tariffs, and inviting foreign investment.
    2. Market Orientation: The 1991 reforms replaced the state-led model with market-driven growth and integration into the global economy.
    3. Institutional Transformation:
      • Abolition of the Planning Commission (2014) reflected a shift from central command to federal cooperation.
      • Creation of NITI Aayog (2015) introduced cooperative and competitive federalism, emphasising state innovation and evidence-based policymaking.
    4. Fiscal Federal Tensions: The Goods and Services Tax (GST) exemplifies fiscal unity but has also constrained state autonomy, fuelling debates on vertical imbalance and fiscal equity.

    India–US Trade Divergences in the Contemporary Context:

    1. Tariff Dispute Dynamics: The Trump tariff regime, justified on grounds of national security and domestic job protection, contradicted WTO’s comparative advantage principle, undermining global free-trade norms.
    2. India’s Strategic Response: Rooted in historical awareness, India’s trade policy seeks to balance self-reliance with pragmatic global engagement, defending domestic interests while avoiding isolationism.
    3. Philosophical Continuity: Jaishankar’s remark, “If trade becomes tariffs, where is competitiveness?”, encapsulates India’s enduring critique of externally imposed asymmetry, echoing nationalist economic thought since the colonial period.

    Legacy of India’s Economic Resistance:

    1. Continuum of Policy Evolution: From colonial subjugation through planned reconstruction to liberal federalism, India’s economic trajectory reflects a consistent assertion of sovereignty and self-determination.
    2. Recurrent Themes: The pursuit of self-reliance, equitable growth, and resistance to external control runs through every policy phase from Naoroji’s drain theory to NITI Aayog’s cooperative model.
    3. Contemporary Relevance: The present India–US trade friction is not merely a tactical disagreement but a symbolic reaffirmation of India’s historical resolve to resist economic subordination and preserve strategic autonomy.

    Way Forward:

    1. Strategic Engagement: Pursue trade negotiations with the US grounded in reciprocity, not submission.
    2. Institutional Resilience: Strengthen WTO-aligned frameworks for dispute resolution to safeguard multilateralism.
    3. Domestic Competitiveness: Expand manufacturing and exports through PLI schemes and innovation-driven incentives.
    4. Federal Balance: Reinforce fiscal autonomy of states to sustain broad-based economic growth.
    5. Economic Diplomacy: Integrate trade with technology partnerships, digital cooperation, and sustainable supply chains to mitigate external shocks.

    PYQ Relevance:

    [UPSC 2014] Examine critically the various facets of economic policies of the British in India from mid-eighteenth century till independence.

    Linkage: This topic is critical because India’s historical experience of economic domination, marked by policies such as the Drain of Wealth and de-industrialisation during the colonial era, profoundly shapes its present-day foreign policy and economic decision-making.

     

  • Greenhouse Gas Emission Intensity (GEI) Target Rules, 2025

    Why in the News?

    The Centre has notified the first legally binding Greenhouse Gas Emission Intensity (GEI) Target Rules, 2025 for four high-emission sectors:  aluminium, cement, chlor-alkali, and pulp & paper.

    This marks a critical step in operationalising the Carbon Credit Trading Scheme (CCTS), 2023.

    Back2Basics: Greenhouse Gas Emission Intensity (GEI)

    • Overview: GEI is the amount of GHGs emitted per unit of product output or economic activity;  for example, the emissions released in producing one tonne of cement, aluminium, or steel.
    • Unit of Measurement: Expressed in tonnes of carbon dioxide equivalent (tCOe) per unit of product.
    • Composition:
      • Primary gases: Carbon dioxide (CO₂), Methane (CH₄), Nitrous oxide (N₂O).
      • Synthetic gases: Hydrofluorocarbons (HFCs), Perfluorocarbons (PFCs), Sulphur hexafluoride (SF₆).
    • Purpose: GEI helps measure the efficiency of industrial production in terms of emissions.
    • Policy Significance: Reducing GEI aligns industrial operations with national and global climate commitments, particularly under the Paris Agreement (2015), where India has pledged to cut its emissions intensity of GDP by 45% by 2030 (from 2005 levels).

    About Greenhouse Gas Emission Intensity (GEI) Target Rules, 2025:

    • Notification: Issued by the MoEFCC on October 8, 2025, these are India’s first legally binding emission intensity targets for industries.
    • Objective: To limit greenhouse gas emissions per unit of product output in high-emission sectors, thereby promoting low-carbon industrial growth and aligning with India’s Paris Agreement commitment to reduce emission intensity of GDP by 45% by 2030 (from 2005 levels).
    • Coverage: Applies to 282 industrial units across four sectors– cement (186 units), aluminium (13), chlor-alkali (30), and pulp & paper (53).
    • Compliance Period: 2025–26 and 2026–27; emission limits expressed in tCOe (tonnes of CO equivalent) per unit of product.
    • Mechanism:
      • Units achieving targets earn carbon credits (certified by the Bureau of Energy Efficiency).
      • Non-compliant units must buy credits or face environmental compensation under CPCB oversight.
    • Purpose: To operationalise India’s domestic carbon market, encourage technology upgrades, and institutionalise market-based climate compliance.
    • Outcome: Marks transition from voluntary energy-efficiency drives (PAT Scheme) to a legally enforceable carbon-intensity regime, integrating emission monitoring, trading, and compliance.

    What is the Carbon Credit Trading Scheme (CCTS), 2023?

    • Launched by: Ministry of Power in 2023 to establish a domestic carbon trading market under India’s Energy Conservation Act framework.
    • Objective: To create a structured mechanism for generating, certifying, and trading carbon credits earned through verified emission reductions.
    • Administered by: Bureau of Energy Efficiency (BEE), which issues Carbon Credit Certificates (CCC) to compliant industries.
    • Framework:
      • Industries meeting or exceeding GEI targets receive tradable credits.
      • Entities failing to meet targets must purchase credits to offset excess emissions.
      • Credits are traded on the Indian Carbon Market (ICM) platform.
    • Purpose: To make emission reduction economically incentivised, transforming carbon from a cost burden into a market asset.
    • Global Parallel: Similar to the EU Emissions Trading System (2005) and China’s National Carbon Market (2021).
    • Significance: Integrates energy efficiency, emission control, and fiscal instruments to drive India’s net-zero transition through a market-based, transparent, and measurable approach.
    [UPSC 2025] Consider the following statements:

    I. Carbon dioxide (CO₂) emissions in India are less than 0.5 t CO₂/capita.

    II. In terms of CO₂ emissions from fuel combustion, India ranks second in Asia-Pacific region.

    III. Electricity and heat producers are the largest sources of CO₂ emissions in India.

    Which of the statements given above is/are correct?

    Options:

    (a) I and III only (b) II only (c) II and III only * (d) I, II and III