Why in the News?

• The Ministry of New and Renewable Energy is preparing a Production Linked Incentive scheme for polysilicon manufacturing, aiming to fill a critical gap in India's solar supply chain where the country relies entirely on imports.

What’s in Today’s Article?

• Solar Manufacturing Value Chain (Background, India’s Position, Importance of Polysilicon, etc.)
• News Summary (PLI for Polysilicon, Need, Impact on DISCOMs, Significance, Challenges, etc.)

The Solar Manufacturing Value Chain

• Solar photovoltaic manufacturing involves a sequence of stages, moving from raw material to the finished panel:
  • Polysilicon: High-purity silicon, the starting point of the chain, produced through a chemical and refining process.
  • Ingots: Polysilicon is melted and formed into solid blocks.
  • Wafers: Ingots are sliced into thin wafers.
  • Solar cells: Wafers are processed into cells that convert sunlight into electricity.
  • Modules or panels: Cells are assembled into finished solar panels.
• The first three stages form the upstream segment, while cells and modules constitute the downstream segment.

India's Position in the Chain

• India has expanded rapidly at the downstream end but remains weak upstream:
  • Solar module manufacturing capacity: More than 213 GW per annum.
  • Solar cell manufacturing capacity: Around 32 GW.
  • Ingot and wafer capacity: Limited, though expected to reach 80 GW by June 2028.
  • Polysilicon capacity: Effectively nil, with complete dependence on imports, primarily from China.
• This imbalance means that even as India builds large module capacity, the foundational raw material continues to come from abroad, leaving the supply chain exposed to external disruption.

Importance of Polysilicon

• It is the starting material for crystalline silicon solar cells, which dominate the global market.
• Complete import dependence creates strategic vulnerability, especially given the concentration of global supply in China.
• Any disruption in polysilicon supply can stall the entire downstream chain, regardless of domestic module capacity.
• High-purity polysilicon is also used in the semiconductor industry, making it relevant to India's chip manufacturing ambitions.
• Because polysilicon production is essentially a chemical and refining process rather than a conventional electronics activity, the government is considering treating it as an independent industry rather than merely a part of the solar value chain.

News Summary: Proposed PLI for Polysilicon

• The Ministry of New and Renewable Energy (MNRE) is working on a dedicated Production Linked Incentive (PLI) scheme for polysilicon manufacturing. The proposed scheme aims to:
  • Promote domestic polysilicon manufacturing, where investments have not materialised despite existing incentives.
  • Support more than 10 GW of manufacturing capacity.
  • Operate separately from the existing PLI scheme for solar PV modules.
• The scheme's size and structure have not yet been disclosed, and its announcement has been delayed.

Need for a Separate Scheme

• The existing Solar PV Module PLI covers the entire value chain, from polysilicon, ingots and wafers to solar cells and modules.
• However, implementation has been uneven:
  • Solar cell and module manufacturing have expanded significantly.
  • Some ingot manufacturing capacity has been established.
  • No commercial polysilicon manufacturing has materialised.
• The government believes polysilicon requires a separate policy because:
  • It is a chemical refining industry rather than conventional manufacturing.
  • It has strategic importance beyond solar, particularly for semiconductors.

Expansion of India's Solar Manufacturing Ecosystem

• Solar cell manufacturing capacity is expected to increase from 32 GW to around 100 GW within a year.
• Ingot and wafer manufacturing capacity is projected to reach at least 80 GW by June 2028.
• An Approved List of Models and Manufacturers (ALMM) has been introduced for ingots and wafers.
• Expanding upstream manufacturing has become essential as India tightens domestic sourcing requirements for solar cells.

Round-the-Clock (RE-RTC) Renewable Energy

• SECI's latest RE-RTC tender discovered a tariff of 5.25/unit. The project provides:
  • 90% assured power availability in every time block.
  • Around 50% daytime solar generation, with the remaining supply met through other renewable sources and energy storage.
• Officials noted that:
  • The tariff is approaching nuclear power tariffs.
  • Developers are confident of supplying electricity at this inflation-resistant price for the next 25 years.

Impact on DISCOMs

• Lower renewable energy prices are helping distribution companies reduce procurement costs. Over the past three years:
  • Average power purchase costs have either declined or remained stable after rising sharply earlier.
  • Combining solar, wind, storage and RE-RTC could reduce average procurement costs from around 5.20/unit to Rs. 4.85/unit.
• Lower electricity costs are expected to:
  • Improve industrial competitiveness.
  • Support data centre growth.
  • Accelerate India's green transition.

Broader Clean Energy Push

• Officials also highlighted the following initiatives:
  • India has crossed 300 GW of non-fossil fuel power capacity and aims to reach 500 GW by 2030.
  • Green ammonia is being supplied to fertiliser plants, while green hydrogen is being supplied to oil refineries to create early demand.
  • Green methanol pilots are underway in shipping, supported by a SECI tender for 5 lakh tonnes to aggregate demand.
• Pilot projects are also underway in:
  • Transport
  • Steel (Direct Reduced Iron plants).
• India is expanding cross-border energy cooperation through:
  • Solar projects with Bhutan.
  • Discussions on a regional South Asian electricity market.

Significance of the Polysilicon Push

• Import substitution: Reduces dependence on China for a critical raw material.
• Supply chain security: Improves resilience against geopolitical and trade disruptions.
• Semiconductor ecosystem: High-purity polysilicon supports India's semiconductor ambitions.
• Higher domestic value addition: Increases manufacturing value retained within India.
• Energy security: Strengthens the foundation of India's renewable energy transition.

Key Challenges

• Capital intensity: Large investments and long gestation periods.
• High energy consumption: Refining polysilicon is energy-intensive and costly.
• Technology dependence: Advanced purification technology is controlled by a limited number of global firms.
• Competition from China: Chinese manufacturers benefit from economies of scale and lower production costs, making domestic competitiveness difficult without sustained policy support.
• Environmental concerns: Manufacturing requires careful management of chemical by-products and emissions.

Context:

• The proposed amendment to the National Food Security Act (NFSA), 2013 seeks to replace the household-based foodgrain entitlement of 35 kg per month under the Antyodaya Anna Yojana (AAY) with 7 kg per person per month, subject to a maximum of 35 kg per household.
• Critics argue that this change will significantly reduce food security and economic support for millions of India's poorest households, especially small and vulnerable families.

The Proposed Amendment:

• Existing AAY beneficiaries receive 35 kg of free foodgrains per household every month under the Pradhan Mantri Garib Kalyan Anna Yojana (PMGKAY).
• The amendment proposes 7 kg per person per month, capped at 35 kg per household.
• Households with five or more members remain unaffected, while smaller households will face a reduction of 20–80% in their foodgrain entitlement.

Background:

• Antyodaya Anna Yojana (AAY):
  • It was launched in 2000 during the Atal Bihari Vajpayee Government, to provide food security to the "poorest of the poor."
  • The beneficiaries were identified largely through community-based selection.
  • It initially provided 25 kg per household every month, later increased to 35 kg of foodgrains at subsidised prices; which is now distributed free under PMGKAY.
• Special protection for vulnerable groups:
  • The Supreme Court, through a series of Right to Food orders, expanded AAY coverage by directing inclusion of -
    • Particularly Vulnerable Tribal Groups (PVTGs).
    • Households with no earning member, including elderly couples, widows with dependent children, persons with disabilities without family support, and other destitute households.
  • These judicial interventions strengthened AAY as a targeted social protection mechanism.

Why was Household-Based Entitlement Retained under NFSA?

• The NFSA, 2013 shifted most beneficiaries ("priority households") to per-capita entitlements.
• However, AAY retained the household-based allocation because -
  • Many AAY households consist of single individuals or elderly couples.
  • Small households would have suffered substantial losses under a per-capita system.
  • The household approach recognised economic vulnerability rather than family size.

Major Concerns with the Amendment:

• Sharp reduction in food entitlements:
  • According to the Household Consumer Expenditure Survey (HCES) 2023-24, 53% of AAY households have fewer than five members.
  • These households stand to lose 20–80% of their existing allocation. The amendment creates only losers, with no additional beneficiaries.
• Severe impact on single women:
  • The worst affected group would be women living alone, particularly widows. Nearly one million women fall in this category. Around 85% are widows, and 74% are illiterate.
  • Their monthly entitlement would decline from 35 kg to 7 kg, an 80% reduction, worsening food insecurity and economic vulnerability.
• Foodgrain as an economic asset: For many destitute households -
  • Foodgrains are not merely for consumption.
  • Surplus grains are often sold or exchanged for essential items like vegetables, medicines, or cooking fuel.
  • Thus, AAY functions as a social income support programme, not merely a nutrition scheme.

Questioning the Equity Argument:

• The government reportedly justifies the amendment on grounds of equity, arguing that it reduces variation in per-capita benefits within the AAY category.
• Critics contend that -
  • Equality in allocation should not override equity based on vulnerability.
  • AAY is intended to protect households with exceptional economic distress, irrespective of household size.
  • Uniform per-capita allocation ignores the realities of destitute households.

Fiscal Savings vs. Social Costs:

• The amendment is widely seen as a cost-saving measure.
• Estimated savings:
  • AAY foodgrain allocation (2023-24) was 10 million tonnes. Out of this actual offtake was 8.8 million tonnes.
  • Estimated requirement after amendment is going to be 7.6 million tonnes, resulting in potential annual saving of about 2 million tonnes.
• However, India already maintains substantial buffer foodgrain stocks. This means that the fiscal savings are relatively modest compared to the social costs imposed on the poorest households.

Suggested Alternatives:

• Instead of reducing entitlements, the need is to -
  • Update outdated AAY beneficiary lists to remove inclusion and exclusion errors.
  • Shift better-off households to the Priority Household category without cancelling ration cards.
  • Expand AAY coverage to include all eligible destitute households.
  • Strength nutritional security by adding pulses (dal) and edible oil to AAY entitlements, as practiced by some States.

Conclusion:

• The debate over the proposed NFSA amendment underscores a broader policy challenge - balancing fiscal efficiency with the constitutional commitment to social justice.
• While rationalising welfare schemes is important, reforms affecting the most vulnerable sections must preserve the protective intent of targeted food security programmes.
• This rationalisation drive must ensure that administrative efficiency does not come at the cost of basic human dignity.

Context

• Modern governance has become too complex for fragmented information systems and delayed administrative reviews.
• Kerala’s strengths, high human development, educated citizens, strong institutions, and decentralised governance, can be sustained only through administrative modernisation.
• The State needs to move from retrospective administration to real-time, predictive, and responsive governance using data analytics and artificial intelligence (AI).
• This transformation is essential for institutional credibility, fiscal discipline, and accountable statecraft.

The Crisis of Fragmented Administration

• Government departments often operate within departmental silos, using incompatible databases, reporting formats, and review cycles.
• Health, education, agriculture, energy, finance, and welfare policies interact continuously, but administrative systems rarely capture these connections.
• The dependence on quarterly and annual reporting delays the identification of cost overruns, implementation delays, beneficiary exclusion, and fiscal leakages.
• By the time failures are detected, corrective action becomes expensive and difficult. Governance consequently becomes reactive rather than preventive.
• Public policies also generate interconnected effects. Housing can alter energy demand; energy prices influence household finances; economic conditions affect nutrition and health; and health outcomes influence productivity.
• Effective governance therefore requires an integrated, continuously updated view of policy outcomes rather than isolated departmental assessments.

From Retrospective Reviews to Real-Time Governance

• Kerala requires an AI-powered governance dashboard that functions as a real-time institutional nervous system rather than a collection of static charts.
• It can integrate information from departments, utilities, and local governments and track programmes from budget allocation to fund release, implementation, beneficiary access, and outcomes.
• AI and machine-learning tools can detect anomalies, delays, cost escalation, and implementation gaps, enabling authorities to intervene before problems become crises.
• The fundamental shift is from merely recording events to anticipating risks and enabling timely corrective action.

Sectoral Applications of AI-Enabled Governance

• Public Health
  • Real-time monitoring of hospital capacity, medicine inventories, ambulance response, and disease patterns can identify emerging health risks and support rapid, localised interventions.
• Energy and Power
  • Integrating electricity generation, distribution losses, subsidies, demand, and rooftop solar data can improve grid stability, financial management, and energy planning.
• Local Self-Government
  • Digital dashboards can enable local institutions to monitor project execution, fund utilisation, service delivery, and grievance resolution, combining decentralised decision-making with transparent performance visibility.
• Social Welfare
  • Real-time reconciliation of beneficiary databases can identify duplication, exclusion, and inefficient targeting, ensuring that welfare expenditure reaches intended beneficiaries more effectively.
• Public Finance
  • Live monitoring of treasury cash flows, committed liabilities, expenditure, and fund utilisation can strengthen fiscal discipline and prevent financial pressures from remaining hidden until periodic reviews.

The Way Forward

• From Review Meetings to Continuous Accountability
  • Traditional review meetings often encourage retrospective explanations rather than proactive problem-solving.
  • Real-time dashboards can create continuous, evidence-based accountability, allowing deviations to be identified and corrected early.
  • Such systems can also protect civil servants by providing objective performance records while enabling political leadership to maintain strategic oversight without administrative micromanagement.
  • Technology can thus strengthen both bureaucratic professionalism and institutional accountability.
• State Ownership and Democratic Safeguards
  • The governance architecture should be State-owned, legally governed, and democratically accountable.
  • Departments and local bodies can retain responsibility for their data while a unified system provides cross-sectoral visibility and policy analysis.
  • Strong safeguards are essential. Government data must comply with Indian data-protection laws, while AI-generated alerts and recommendations should remain auditable through clear decision logs.
  • Algorithmic transparency and legislative oversight are necessary to ensure that technological efficiency does not undermine constitutional and democratic accountability.
• Digital Integration and Prevention of Fiscal Leakage
  • Integration with existing e-governance infrastructure can securely connect information concerning identity, eligibility, property, subsidies, and transactions.
  • Subject to legal safeguards, such integration can improve beneficiary verification, monitor subsidy delivery, and detect revenue irregularities.
  • The objective should be to make fiscal leakage structurally difficult, rather than merely punish irregularities after public resources have been lost.

The Cost of Administrative Inaction

• Continuing with fragmented systems risks accumulating financial leakages, unmonitored liabilities, policy failures, and declining public confidence.
• Repeated post-hoc explanations can also create defensive bureaucratic cultures and weaken administrative morale.
• For Kerala, inaction carries an additional cost: it could undermine the State’s historic reputation for social development and institutional innovation.

Kerala as a Model for 21st-Century Governance

• Kerala can demonstrate that AI and democracy are complementary rather than contradictory.
• AI should support, not replace, human judgment and constitutional institutions.
• By combining data-driven decision-making, AI, transparency, privacy protection, and democratic oversight, Kerala can improve welfare delivery, fiscal management, institutional coordination, and crisis preparedness.
• Its existing strengths provide a strong foundation for becoming a national model of technologically enabled democratic governance.

Conclusion

• The future of administration demands a transition from fragmented to integrated governance, retrospective review to real-time monitoring, and reactive management to predictive intervention.
• AI can help Kerala anticipate problems, protect public resources, improve service delivery, and strengthen accountability.
• With State ownership, legal safeguards, algorithmic accountability, and citizen-oriented governance, Kerala can combine its social-development legacy with technological innovation.

About Adyar River:

• The Adyar River (sometimes called Adayar) is an important river flowing through the city of Chennai in Tamil Nadu.
• Course:
  • It originates near the Chembarambakkam Lake in the Kanchipuram district of Tamil Nadu.
  • Finally, it reaches the Bay of Bengal at a place called the Adyar Estuary.
• It is one of the three rivers which winds through Chennai.
• The river forms a backwater near the mouth, known as the Adyar Creek, due to the formation of sandbars at the mouth.
• This creek is a natural channel which carries tidal water back into the sea.
• The Adyar Estuary is home to diverse bird species and marine life.
  • Recognizing its ecological significance, it was declared a protected wildlife reserve in 1987.

About Pakal Dul Hydroelectric Project:

• It is a 1 GW run-of-the-river scheme hydroelectric project (HEP) under construction in the Kishtwar district of Jammu and Kashmir.
• The project is being constructed on the Marusudar River, a tributary of the Chenab.
• It comprises concrete-face rock fill dam and an underground powerhouse.
• It is being constructed by Chenab Valley Power Projects [P] Ltd. (CVPPL), a joint venture company of National Hydroelectric Power Corporation (NHPC Limited) and Jammu & Kashmir State Power Development Corporation Ltd (JKSPDC).
• JKSPDC holds a 49% stake in CVPPL, while NHPC and PTC India hold 49% and 2%,
• During the first ten years of operation, the J&K will receive 12% free power from the project, in addition to waiving water usage charges.
• J&K will also have the first right to purchase the power allotted to NHPC and PTC.

About Dhabaleswar Temple:

• It is a Hindu temple dedicated to Lord Shiva.
• It is located on an island on River Mahanadi near Cuttack, Odisha .
• It is one of the oldest temples in Odisha. It dates back to the early 10th and 11th century.
• The temple structure was constructed during the rule of the Somavamshi dynasty by King Yayati Keshari.
• The present-day temple was constructed by King Bir Kishore of Khurda around 1232 AD.
• Architecture:
  • It is built in the Kalinga style of architecture.
  • The main temple structure is built of sandstone. It has a square plan with a pyramidal roof.
  • Several smaller shrines of various deities surround the main temple.
  • The temple has three main chambers, with the central chamber housing the idol of Shiva.
  • The temple has a beautiful entrance known as Jagamohan. Intricate carvings of animals, birds, and mythological figures decorate it.
  • Around the temple, there is a marble-covered raised platform.
  • The temple contains multiple sculptures of deities on its walls.
  • The distinctive feature of the Dhabaleswar Temple is its two-tiered roof, which is made of terracotta tiles.

About Amyotrophic Lateral Sclerosis (ALS):

• It is a progressive neurological disorder that damages the nerve cells controlling voluntary muscle movement. These nerve cells are called motor neurons.
  • One group, called upper motor neurons, extends from the brain to the spinal cord.
  • The second group, called lower motor neurons, extends from the spinal cord to muscles throughout the body.
  • ALS causes both groups of motor neurons to gradually deteriorate and then die.
  • When motor neurons are damaged, they stop sending messages to the muscles. As a result, the muscles can't function.
• ALS is often called Lou Gehrig's disease after the baseball player who was diagnosed with it.
  • Cause:
    • The exact cause is still not known in most people.
    • In a small percentage of people, ALS is inherited from a parent.
  • Treatment:
    • Currently, there’s no treatment to reverse damage to motor neurons or cure ALS.
    • But some treatments may slow progression of the disorder, improve quality of life, and extend survival.

About Mullaperiyar Dam:

• It is a masonry gravity dam located in Thekkady, Idukki district, Kerala.
• The dam is built at the confluence of the Mullayar and Periyar (longest river in Kerala) rivers.
• It is one of the oldest dams in India.
• The dam’s primary function is to transfer water from the Periyar River to the Vaigai River basin in Tamil Nadu for irrigation and power generation purposes.
  • The water from the reservoir reaches the Theni, Madurai, Sivaganga, and Ramanathapuram districts of Tamil Nadu through tunnels that cut across the Western Ghats.
  • The dam also generates electricity for Tamil Nadu through four hydroelectric power plants: Lower Periyar, Periyar Dam, Periyar Power House, and Vaigai.
• The dam was constructed with limestone and “Surkhi” (burnt brick powder and a mixture of sugar and calcium oxide).
• It is surrounded by the Periyar National Park, a renowned biodiversity hotspot that is home to numerous endangered species of animals and birds.
• Although the dam is located in Kerala, it is operated and maintained by Tamil Nadu.
  • It was according to a 999-year lease agreement made during British rule that the operational rights were handed over to Tamil Nadu.
• In recent years, there has been a long-standing dispute between Kerala and Tamil Nadu over the safety of the dam.
  • Kerala has been demanding that the dam be strengthened or decommissioned, while Tamil Nadu has opposed any such move.

About Himalayan serow:

• It resembles a cross between a goat, a donkey, a cow, and a pig.
• It is a forest-dwelling mountain ungulate found in steep Himalayan terrain.
• Types: There are several species of serows, and all of them are found in Asia.
• Habitat: The Himalayan serow, or Capricornis sumatraensis thar, is restricted to the Himalayan region. Taxonomically, it is a subspecies of the mainland serow (Capricornis sumatraensis).
• Distribution: They are known to be found in eastern, central, and western Himalayas.
• Diet: These are herbivore species.
• Threats: Habitat degradation, Fragmentation and hunting pressure.
• Conservation Status:
  • IUCN Red List: Near Threatened
  • CITES: Appendix I
  • Wildlife Protection Act, 1972: Schedule I