The growing mismatch between the generation and consumption of electricity has made Energy Storage Systems (ESS) indispensable for ensuring grid stability, reliability, and efficient utilization of renewable energy. As India rapidly expands its renewable energy capacity to achieve its climate commitments and strengthen energy security, the challenge of managing intermittent sources of power such as solar and wind has become increasingly significant.

India's Renewable Energy Capacity and the Challenge of Intermittency

India has emerged as one of the world's fastest-growing renewable energy markets. Renewable energy sources account for nearly 53 per cent of the country's installed power capacity, with about 283 GW out of a total 532 GW coming from clean energy sources. Solar energy alone contributes more than 150 GW, highlighting India's strong commitment towards a low-carbon energy future.

However, the rapid expansion of renewable energy introduces the challenge of intermittency, which refers to the irregular and non-continuous nature of electricity generation. Solar power generation declines during cloudy weather and completely stops at night, while wind energy depends on varying wind speeds. This mismatch between electricity production and consumption necessitates efficient energy storage mechanisms to maintain a reliable and uninterrupted power supply.

Understanding Energy Storage Systems

Energy storage refers to technologies that capture surplus electricity generated during periods of high renewable energy production and release it when demand exceeds supply. In essence, storage systems act as a buffer between electricity generation and consumption. They help balance supply and demand, reduce renewable energy curtailment, enhance grid reliability, support peak-load management, and facilitate the delivery of round-the-clock renewable power.

The importance of energy storage is expected to grow significantly as India moves towards achieving its ambitious renewable energy targets and increasing the share of clean energy in its electricity mix.

Global Scenario of Energy Storage

Globally, Pumped Hydro Storage (PHS) remains the most widely deployed energy storage technology, with an installed capacity of approximately 160 GW. China leads the world with around 66 GW, followed by Japan and the United States. Pumped hydro systems have been preferred due to their ability to provide large-scale and long-duration storage solutions.

At the same time, Battery Energy Storage Systems (BESS) have witnessed remarkable growth. Global battery storage capacity has reached nearly 270 GW, and according to the International Energy Agency (IEA), about 108 GW of new battery storage capacity was added in 2025, representing a substantial increase over the previous year. China accounted for nearly 60 per cent of these additions, while the United States, Europe, Australia, and the Middle East are increasingly deploying storage systems to strengthen energy security and integrate renewable energy into their grids.

India's Energy Storage Status and Future Requirements

India's current energy storage capacity remains relatively modest, with approximately 0.27 GW of Battery Energy Storage Systems and about 7.2 GW of Pumped Hydro Storage. However, the country's future requirements are expected to increase dramatically.

According to projections made by the Central Electricity Authority (CEA), India will require nearly 174 GW of energy storage capacity with 888 GWh of storage capability by 2035-36. Out of this, Battery Energy Storage Systems are expected to contribute 80 GW and 321 GWh, while Pumped Hydro Storage will account for 94 GW and 567 GWh. Storage systems capable of providing electricity for four to six hours are likely to play a crucial role in integrating larger volumes of renewable energy into the national grid.

India is already expanding its storage infrastructure, with more than 13,000 MW of pumped hydro projects under construction, several thousand megawatts approved, and nearly 75,000 MW under survey and investigation. Similarly, large-scale battery storage projects are under construction and tendering stages, reflecting the country's commitment to strengthening its energy storage ecosystem.

Major Energy Storage Technologies

Pumped Hydro Storage (PHS)

Pumped Hydro Storage is the most mature and widely used large-scale energy storage technology in the world. It operates by pumping water from a lower reservoir to an upper reservoir during periods of excess electricity generation and releasing the water through turbines to generate electricity when demand rises.

The technology offers several advantages, including long-duration storage, high reliability, large-scale capacity, and a long operational lifespan. However, it also faces significant limitations. Pumped hydro projects require specific geographical conditions, involve high initial investments, and often encounter environmental concerns, land acquisition issues, and lengthy approval processes.

Battery Energy Storage Systems (BESS)

Battery Energy Storage Systems store electricity in electrochemical form and release it whenever required. Among various battery technologies, Lithium Iron Phosphate (LFP) batteries currently dominate global markets and accounted for more than 90 per cent of global battery storage additions in 2025.

BESS provides several advantages, including fast response times, modular deployment, operational flexibility, and suitability for short-duration storage ranging from four to six hours. Nevertheless, the technology faces challenges such as dependence on critical minerals, battery degradation over time, and significant reliance on imported cells and components.

Emerging Energy Storage Technologies

Apart from conventional technologies, several innovative energy storage solutions are gaining attention. Concentrated Solar Thermal Storage uses mirrors and molten salts to store solar heat, which can later be converted into electricity. Compressed Air Energy Storage (CAES) stores compressed air in underground caverns and releases it to drive turbines during peak demand. Flywheel Energy Storage Systems provide instant power support by storing energy in rapidly spinning rotors, while gravity-based storage technologies generate electricity by lowering heavy masses that were previously lifted using surplus energy.

Challenges Facing Energy Storage Development in India

One of the most significant challenges is import dependence. Nearly 75 to 80 per cent of lithium-ion cells used in India are imported, and these cells constitute almost 80 per cent of the total battery system cost. Such dependence creates vulnerabilities related to geopolitical tensions, supply-chain disruptions, trade restrictions, and price fluctuations.

Another major issue is the high capital cost associated with Battery Energy Storage Systems. Although global battery prices have declined, large-scale deployment still requires substantial investments, which can discourage private sector participation.

India also suffers from limited domestic manufacturing capacity for advanced battery cells and critical components. This dependence on imported technology undermines self-reliance and affects the competitiveness of domestic industries.

The availability of critical minerals such as lithium, cobalt, nickel, and graphite poses another challenge. Since India possesses limited reserves of many of these resources, it remains heavily dependent on imports to support its battery manufacturing ambitions.

Pumped hydro projects face their own set of difficulties. They require extensive land areas and suitable topographical conditions, while environmental clearances, biodiversity concerns, and issues related to displacement often delay project implementation. Furthermore, the long gestation periods associated with such projects can slow down renewable energy integration efforts.

Grid integration also remains a major concern. Incorporating large-scale storage systems into existing transmission and distribution networks requires substantial infrastructural upgrades and the development of new operational and regulatory frameworks.

Financial risks constitute another barrier. Uncertainties regarding revenue streams, evolving market mechanisms, and long payback periods often discourage investors from participating in energy storage projects.

Battery disposal and recycling represent an emerging challenge as well. The large-scale deployment of batteries in the coming years will generate significant quantities of battery waste, and India's recycling ecosystem is still in its developmental stages.

Government Initiatives to Promote Energy Storage

Recognizing the strategic importance of energy storage, the Government of India has undertaken several initiatives to accelerate its deployment.

The Central Electricity Authority (CEA) has prepared a long-term roadmap projecting a requirement of 174 GW and 888 GWh of storage capacity by 2035-36, thereby providing clear guidance for future investments and infrastructure planning.

The government has also introduced Viability Gap Funding (VGF) for Battery Energy Storage Systems to improve the financial viability of projects and reduce storage costs. Similarly, the Production Linked Incentive (PLI) Scheme for Advanced Chemistry Cells (ACC) seeks to strengthen domestic manufacturing capabilities and reduce dependence on imported battery cells.

The National Programme on Advanced Chemistry Cell Battery Storage aims to promote indigenous battery technologies and enhance technological self-reliance. At the same time, efforts are being made to fast-track the development of Pumped Storage Projects (PSPs) through streamlined approvals and accelerated implementation.

The introduction of Energy Storage Obligations (ESO) under the Renewable Purchase Obligation framework requires designated entities to procure electricity from storage-backed renewable sources, thereby creating a market for energy storage solutions.

The Green Energy Corridor Programme is strengthening transmission infrastructure to facilitate the efficient integration of renewable energy and storage systems across different regions. Likewise, the National Green Hydrogen Mission recognizes green hydrogen as a potential long-duration energy storage medium for the future.

Initiatives such as PM Surya Ghar: Muft Bijli Yojana are encouraging rooftop solar adoption and creating opportunities for the future integration of household-level battery storage systems.

The Battery Waste Management Rules, 2022, which incorporate the principle of Extended Producer Responsibility (EPR), are promoting sustainable battery recycling and resource recovery. Furthermore, India's Critical Minerals Strategy focuses on securing overseas mineral assets and expanding domestic exploration to support long-term battery manufacturing.

International collaborations through platforms such as the International Solar Alliance (ISA) are also facilitating technology transfer, investment, and the sharing of best practices in energy storage.

Conclusion

Energy storage systems are central to India's transition towards a sustainable and resilient energy future. As renewable energy capacity continues to expand, the importance of efficient storage technologies will increase significantly. While challenges relating to imports, critical minerals, financing, environmental concerns, and regulatory frameworks persist, ongoing policy initiatives and technological advancements provide a strong foundation for future growth. Strengthening domestic manufacturing, promoting innovation, and developing robust recycling and regulatory mechanisms will be essential for establishing India as a global leader in energy storage and ensuring long-term energy security

India's commitment to addressing climate change represents one of the most significant development and investment challenges of the twenty-first century. The country has undertaken ambitious climate commitments through its Nationally Determined Contributions (NDCs) under the Paris Agreement and has pledged to achieve net-zero emissions by 2070. However, realizing these goals requires enormous financial resources. Estimates suggest that achieving the NDC targets by 2030 will require nearly ₹162.5 trillion (approximately $2.5 trillion), while the long-term objective of net-zero emissions could cost around $10.1 trillion, an amount nearly three times India's present GDP.

The Scale of India's Climate Financing Challenge

Massive Investment Requirements

India's climate ambitions demand an unprecedented level of capital mobilization across multiple sectors of the economy. The sheer magnitude of the required investment highlights the urgency of establishing a comprehensive financing strategy that can attract both domestic and international capital. Without adequate financial resources, the pace of decarbonization may slow considerably, jeopardizing the country's sustainable development objectives and delaying its transition to a low-carbon economy.

The challenge is particularly significant because climate-related investments must occur alongside ongoing developmental priorities such as poverty reduction, infrastructure expansion, industrial growth, and social welfare. Consequently, India must strike a delicate balance between economic development and environmental sustainability.

The Persistent Financing Gap

Despite possessing a large and growing financial sector, India continues to face a substantial gap between available resources and the investments required to meet its climate goals. Public finances alone are insufficient to bridge this deficit, making private investment and international climate finance increasingly important.

Addressing this financing gap requires stronger institutional mechanisms, innovative financial instruments, and greater coordination among governments, financial institutions, multilateral agencies, and private investors. Building a robust climate finance ecosystem is therefore essential for sustaining India's long-term green transition.

High-Emission Sectors and the Decarbonisation Imperative

Major Contributors to Carbon Emissions

India's decarbonisation challenge is concentrated in a few critical sectors. The steel, cement, power generation, and road transport sectors together account for more than half of the country's carbon emissions. These industries form the backbone of economic growth and industrial development, yet they are among the most difficult sectors to decarbonize because of their technological complexity and high energy intensity.

The transition of these sectors is therefore crucial not only for achieving climate targets but also for ensuring sustainable industrial development in the coming decades.

Investment Needs for Green Transition

Transforming these high-emission sectors will require approximately $467 billion in additional capital expenditure between 2022 and 2030. The adoption of cleaner technologies such as green steel, green cement, renewable power systems, and electric mobility infrastructure involves substantial costs and technological uncertainties.

Many of these technologies are still in their early stages of commercialization and remain more expensive than conventional alternatives. Consequently, large-scale adoption may not occur without significant financial support and policy intervention. Bridging this cost differential is essential for accelerating industrial decarbonisation and making sustainable technologies economically viable.

The Role of Government and Policy Support

Need for Strong Regulatory Incentives

The economics of many low-carbon technologies currently remain less attractive compared to traditional fossil-fuel-based systems. As a result, relying solely on private-sector investments is unlikely to deliver the scale and speed of transformation required to meet India's climate objectives.

Strong regulatory incentives, targeted subsidies, and supportive policy frameworks are therefore necessary to encourage investment in green technologies. Government intervention can help create market certainty, reduce investment risks, and establish a conducive environment for long-term sustainable investments.

Creating an Enabling Investment Environment

Public policy plays a critical role in improving the commercial viability of climate-related projects. Measures such as tax incentives, financial guarantees, concessional financing, viability gap funding, and risk-sharing mechanisms can significantly enhance investor confidence.

By reducing uncertainties and improving returns on investment, these interventions encourage greater participation from domestic and international investors. Effective policy frameworks can thus accelerate the deployment of clean technologies across sectors that are vital for India's economic development and environmental sustainability.

Climate Finance as an Economic Opportunity

Promoting Growth and Employment

Climate finance should not be viewed merely as a financial burden or an environmental obligation. Instead, it represents a major opportunity for economic transformation and sustainable development. Investments in renewable energy, green infrastructure, clean transportation, and low-carbon industries have the potential to generate substantial economic growth and create millions of new employment opportunities.

The expansion of green industries can strengthen India's competitiveness in emerging global markets while simultaneously fostering innovation and technological advancement. In this sense, climate action can serve as an important engine for inclusive and sustainable economic development.

Enhancing Energy Security

Greater investment in renewable energy and sustainable infrastructure can significantly reduce India's dependence on imported fossil fuels. Strengthening domestic clean energy systems enhances energy security, reduces exposure to global energy price fluctuations, and improves long-term economic resilience.

This transition contributes not only to environmental objectives but also to national strategic interests by ensuring a more secure, reliable, and self-sufficient energy future.

Innovative Financing Mechanisms for Climate Action

Meeting India's enormous climate financing requirements will necessitate the development of innovative financial instruments and mechanisms. Green bonds, blended finance, climate funds, public-private partnerships, and carbon markets can play a crucial role in mobilizing additional resources.

Blended finance models, which combine public and private capital, can help de-risk investments in emerging technologies and attract greater private participation. Similarly, expanding domestic and international carbon markets can create new revenue streams that support decarbonisation efforts across industries.

The active involvement of multilateral development banks, sovereign wealth funds, and international climate finance institutions will also be critical in supplementing domestic financial resources.

The Way Forward

India's climate ambitions are both achievable and necessary, but their realization depends upon establishing a robust, scalable, and inclusive climate finance framework. Coordinated action among policymakers, financial institutions, businesses, and international partners will be essential to bridge the enormous financing gap.

Strengthening public finance mechanisms, attracting private investment, promoting innovative financial instruments, and creating supportive regulatory environments can collectively accelerate India's green transition. Equally important is the need to build institutional capacity and enhance the efficiency of climate-related investments.

Ultimately, climate finance should be viewed not as a constraint on economic growth but as a catalyst for long-term development, resilience, and prosperity. By successfully mobilizing the required resources, India can simultaneously achieve its climate objectives, strengthen energy security, generate employment, and establish itself as a global leader in sustainable development.

Conclusion

The transition to a low-carbon economy represents one of the greatest opportunities in India's development journey. Although the financial requirements are enormous, they also offer the potential to modernize industries, create green jobs, enhance energy independence, and improve environmental sustainability. A comprehensive climate finance strategy, supported by effective public policies and private-sector participation, will be indispensable for realizing India's vision of a prosperous, resilient, and net-zero future.

The Stockholm International Peace Research Institute (SIPRI), an independent international institute dedicated to research on conflict, armaments, and international security, released its SIPRI Yearbook 2026, providing a comprehensive assessment of global military developments, nuclear arsenals, disarmament efforts, and emerging security challenges. The report highlights significant changes in the international strategic environment, including growing military expenditures, the modernization of nuclear forces, the increasing role of artificial intelligence in warfare, and the weakening of global arms-control frameworks.

For India, the report assumes particular importance as it notes the expansion of the country's nuclear arsenal and indicates that a portion of its nuclear warheads has been placed in an operationally "deployed" state for the first time, reflecting an evolution in India's strategic posture amid a complex regional security environment.

Key Findings Related to India

India as the Fifth-Largest Military Spender

According to the SIPRI Yearbook 2026, India emerged as the fifth-largest military spender in the world in 2025, following the United States, China, Russia, and Germany. India's defence expenditure increased by 8.9 per cent over the previous year, reaching approximately USD 92.1 billion.

The increase in military spending reflects India's evolving security challenges, which include a simultaneous nuclear rivalry with Pakistan, strategic competition with China in the Indo-Pacific region, and growing uncertainties arising from the weakening of multilateral security arrangements.

India's Position as a Major Arms Importer

India continued to remain one of the world's largest importers of major weapons systems. During the period from 2021 to 2025, India accounted for 8.2 per cent of global arms imports, making it the second-largest arms importer after Ukraine.

This dependence on foreign defence equipment underscores the importance of initiatives such as Atmanirbhar Bharat and the promotion of indigenous defence manufacturing to reduce external vulnerabilities and strengthen strategic autonomy.

Expansion of India's Nuclear Arsenal

The report estimates that India possessed approximately 190 nuclear warheads as of January 2026, comprising 12 deployed warheads and 178 warheads kept in reserve or storage facilities. In comparison, China possessed around 620 warheads, while Pakistan maintained an estimated arsenal of 170 warheads.

The deployment of a limited number of warheads represents a significant strategic development, indicating an increased emphasis on operational readiness while remaining consistent with India's doctrine of credible minimum deterrence.

Integration of Cyber Warfare

The report also highlighted Operation Sindoor, the India-Pakistan military confrontation of May 2025, as a landmark event in South Asian security dynamics. For the first time, both countries integrated cyber operations into active military engagements, illustrating the growing importance of cyberspace as a domain of modern warfare.

This development suggests that future deterrence strategies in South Asia will increasingly incorporate cyber capabilities alongside conventional and nuclear forces.

Global Security Trends Identified by SIPRI

Increasing Reliance on Nuclear Weapons

SIPRI observed that all nine nuclear-armed states—the United States, Russia, the United Kingdom, France, China, India, Pakistan, North Korea, and Israel—continue to modernize their nuclear arsenals and increasingly regard nuclear weapons as essential instruments of national power.

This trend reflects a broader deterioration in global security conditions and a declining confidence in traditional arms-control mechanisms.

Rising Military Expenditure Across the World

The report noted a significant increase in military spending worldwide. In June 2025, NATO members agreed to raise their defence spending target to 5 per cent of GDP by 2035, substantially higher than the earlier benchmark of 2 per cent established in 2014.

Ukraine recorded the world's highest military burden, with defence expenditure amounting to nearly 40 per cent of its GDP, reflecting the extraordinary demands imposed by ongoing conflict.

Global Nuclear Inventory and Strategic Risks

Globally, the total nuclear arsenal is estimated at approximately 12,187 warheads, of which nearly 9,745 remain in military stockpiles for potential operational use. More than 4,000 warheads are currently deployed on missiles and aircraft.

The United States and Russia continue to dominate the global nuclear landscape, together possessing approximately 86 per cent of the world's nuclear weapons. The expiration of the New START Treaty in February 2026, without any replacement agreement, has heightened concerns regarding strategic stability and future arms races.

Slowdown in Nuclear Disarmament

Although the total number of nuclear weapons worldwide continues to decline marginally due to the dismantling of retired Cold War-era warheads by the United States and Russia, the pace of disarmament has slowed considerably.

This slowdown is primarily attributable to the simultaneous induction of modernized nuclear systems, suggesting that qualitative improvements are replacing quantitative reductions in global arsenals.

Weakening of International Arms-Control Frameworks

The global arms-control architecture has experienced significant setbacks. In March 2025, Lithuania became the first country to withdraw from the Convention on Cluster Munitions, a landmark humanitarian arms-control treaty.

Similarly, Estonia, Finland, Latvia, Lithuania, and Poland withdrew from the Anti-Personnel Mine Convention, reflecting growing security anxieties in Europe and raising concerns about the future of humanitarian disarmament efforts.

Artificial Intelligence and Emerging Military Technologies

Battlefield Integration of Artificial Intelligence

The SIPRI report emphasizes that artificial intelligence has become an integral component of contemporary warfare. AI-assisted targeting systems and autonomous weapons are increasingly being employed in active conflict zones such as Gaza and Ukraine.

These technologies are transforming military operations by enhancing precision, reducing response times, and enabling more sophisticated battlefield management.

The Rise of Drone Warfare

The growing use of drone swarms and first-person-view unmanned aerial vehicles has fundamentally altered the nature of modern warfare. These systems provide relatively inexpensive yet highly effective capabilities, allowing smaller actors to challenge conventional military superiority.

A notable example was Operation Spider's Web in June 2025, during which Ukraine reportedly employed more than one hundred smuggled drones to damage Russian military aircraft, demonstrating the asymmetric potential of unmanned systems.

India's Nuclear Doctrine

Foundations of the Doctrine

India formally adopted its nuclear doctrine in 2003, establishing a framework based on credible minimum deterrence and a firm commitment to No First Use (NFU). The doctrine seeks to maintain a nuclear arsenal sufficient to deter aggression while avoiding unnecessary arms races.

Credible Minimum Deterrence

The principle of credible minimum deterrence implies that India maintains only those nuclear capabilities necessary to convince potential adversaries that any nuclear attack would result in unacceptable consequences. The objective is deterrence rather than military dominance or parity with other nuclear powers.

No First Use Policy

India's No First Use policy commits the country to employing nuclear weapons only in retaliation against a nuclear attack on Indian territory or armed forces, regardless of their location. This principle reflects India's longstanding emphasis on responsible nuclear stewardship and strategic restraint.

Massive Retaliation

India's doctrine also incorporates the concept of massive retaliation, whereby any nuclear attack on India would invite an overwhelming response designed to inflict unacceptable damage on the aggressor. This approach is rooted in the broader strategic principle of Mutually Assured Destruction (MAD).

Civilian Political Control

The authority to order nuclear retaliation rests exclusively with civilian leadership through the Nuclear Command Authority (NCA). The Political Council, chaired by the Prime Minister, is the sole body authorized to approve the use of nuclear weapons, while the Executive Council, headed by the National Security Advisor, assists in implementing policy decisions.

Conditional Nuclear Response

Although India pledges not to use nuclear weapons against non-nuclear weapon states, it reserves the right to retaliate with nuclear weapons in response to major chemical or biological attacks. This provision constitutes India's negative security assurance policy.

Commitment to Global Disarmament

India continues to support the universal, verifiable, and non-discriminatory elimination of nuclear weapons. The country maintains a voluntary moratorium on nuclear testing and advocates comprehensive global disarmament measures.

Evolution of India's Nuclear Posture

Peaceful Nuclear Development (1947–1974)

India's nuclear programme initially focused on peaceful applications and energy self-reliance under the leadership of physicist Homi J. Bhabha and Prime Minister Jawaharlal Nehru. However, changing security dynamics, particularly China's nuclear test in 1964, prompted India to reconsider its strategic approach.

This culminated in Pokhran-I (Smiling Buddha) on 18 May 1974, which India officially described as a peaceful nuclear explosion.

Weaponization Phase (1974–1998)

Following the 1974 test, India encountered international sanctions and increasing diplomatic pressure. The emergence of a nuclear-armed China and the China-Pakistan strategic nexus further intensified India's security concerns.

Consequently, India conducted Operation Shakti (Pokhran-II) in May 1998, comprising five underground nuclear tests. Subsequently, Prime Minister Atal Bihari Vajpayee formally declared India a nuclear-weapon state.

Consolidation as an Established Nuclear Power (1998–Present)

India developed its draft nuclear doctrine in 1999 and formally operationalized it in 2003. The country's integration into global nuclear commerce was further strengthened through the 2008 India-US Civil Nuclear Agreement and the exceptional waiver granted by the Nuclear Suppliers Group despite India's non-signatory status to the Nuclear Non-Proliferation Treaty.

India's Position on Global Nuclear Treaties

The Nuclear Non-Proliferation Treaty and CTBT

India has consistently declined to sign the Nuclear Non-Proliferation Treaty (NPT) and the Comprehensive Nuclear-Test-Ban Treaty (CTBT). India argues that the NPT institutionalizes an unequal global nuclear order by recognizing only certain states as legitimate nuclear powers while permitting continued vertical proliferation among them.

Participation in Export Control Regimes

India's responsible non-proliferation record has facilitated its membership in major multilateral export-control arrangements, including the Missile Technology Control Regime (MTCR), the Wassenaar Arrangement, and the Australia Group. The country continues to seek membership in the Nuclear Suppliers Group (NSG).

Opposition to the Treaty on the Prohibition of Nuclear Weapons

India has not joined the Treaty on the Prohibition of Nuclear Weapons (TPNW), arguing that the treaty lacks an effective and universally applicable verification framework necessary to ensure genuine nuclear disarmament.

Conclusion

The SIPRI Yearbook 2026 reflects an increasingly uncertain global security environment characterized by rising military expenditures, nuclear modernization, technological transformation, and weakening arms-control mechanisms. India's evolving nuclear posture, including the limited deployment of operational warheads, demonstrates its efforts to maintain credible deterrence amid complex regional challenges.

At the same time, India's adherence to the principles of No First Use, civilian control, and global nuclear disarmament continues to distinguish its strategic doctrine. As emerging technologies such as artificial intelligence, cyber warfare, and unmanned systems reshape military affairs, India will need to balance deterrence, technological innovation, and responsible strategic conduct to safeguard its national interests and contribute to international stability.

The Ministry of Social Justice and Empowerment (MoSJE) recently launched the PM-AJAY Portal and the AJAY Mobile Application to ensure the complete digitization of the implementation of the Pradhan Mantri Anusuchit Jaati Abhyuday Yojana (PM-AJAY). The initiative is expected to improve transparency, monitoring, accountability, and the efficient delivery of benefits to targeted communities.

About the PM-AJAY Scheme

The Pradhan Mantri Anusuchit Jaati Abhyuday Yojana (PM-AJAY) is a comprehensive scheme launched during the financial year 2021-22 with the objective of promoting the socio-economic upliftment of Scheduled Castes (SCs). The scheme seeks to reduce poverty, improve educational opportunities, generate sustainable livelihoods, and strengthen infrastructure in areas with a significant SC population.

PM-AJAY was formulated through the merger of three pre-existing Centrally Sponsored Schemes, namely the Pradhan Mantri Adarsh Gram Yojana (PMAGY), Special Central Assistance to Scheduled Castes Sub Plan (SCA to SCSP), and the Babu Jagjivan Ram Chhatrawas Yojana (BJRCY). The integration of these schemes aims to provide a more coordinated and holistic approach towards the welfare and development of Scheduled Castes.

The scheme is implemented by the Ministry of Social Justice and Empowerment, which serves as its nodal ministry and oversees policy formulation, implementation, and monitoring mechanisms.

Objectives of the Scheme

The primary objective of PM-AJAY is to improve the quality of life of Scheduled Castes by creating economic opportunities, enhancing access to education, and ensuring better infrastructure in SC-dominated regions. The scheme seeks to promote inclusive development by addressing multiple dimensions of deprivation simultaneously.

Another important goal is to transform villages with a high concentration of Scheduled Castes into model villages equipped with essential civic amenities and livelihood opportunities. Through targeted interventions, the scheme aims to reduce social and economic disparities and empower marginalized communities.

Eligibility Criteria

The benefits under PM-AJAY are primarily targeted towards Scheduled Caste individuals living below the poverty line (BPL). Such beneficiaries are eligible to receive assistance under various income-generating schemes and skill development programmes designed to improve their economic conditions and create sustainable livelihoods.

In the case of infrastructure development initiatives, villages with 50 per cent or more Scheduled Caste population are eligible for financial assistance under the scheme. This criterion ensures that developmental resources are directed towards areas with a significant concentration of disadvantaged communities.

Major Components of PM-AJAY

Adarsh Gram Development

One of the most important components of the scheme is the development of Adarsh Grams, or model villages. Under this initiative, villages with a substantial Scheduled Caste population are transformed through the provision of critical infrastructure and essential services.

The programme focuses on improving basic amenities such as roads, sanitation, drinking water, educational facilities, healthcare infrastructure, and livelihood opportunities. By addressing these deficiencies, the scheme seeks to enhance the overall quality of life of Scheduled Caste residents.

Grants-in-Aid for Socio-Economic Development Projects

PM-AJAY provides financial assistance for district-level and state-level projects aimed at promoting the socio-economic welfare of Scheduled Castes. These grants support the creation of infrastructure in SC-dominated villages and facilitate the implementation of comprehensive development initiatives.

The assistance also extends to the construction of hostels and residential schools, thereby improving access to education for students belonging to Scheduled Castes. Additionally, the scheme supports livelihood projects that integrate skill development programmes with the necessary infrastructure to generate sustainable employment opportunities.

Construction of Hostels and Educational Infrastructure

Education constitutes a major pillar of PM-AJAY. The scheme supports the construction of hostels in higher educational institutions that are ranked under the National Institutional Ranking Framework (NIRF) and are funded by the Central Government, State Governments, or Union Territories.

Financial assistance is also provided for the construction of hostels in government-funded schools based on recommendations from the Ministry of Education. These facilities aim to reduce educational barriers faced by Scheduled Caste students, particularly those from remote and economically disadvantaged backgrounds.

Significance of the PM-AJAY Scheme

The PM-AJAY scheme represents a significant step towards achieving inclusive growth and social justice. By integrating multiple welfare initiatives under a single umbrella, the programme adopts a holistic approach to addressing the economic, educational, and infrastructural challenges faced by Scheduled Castes.

The emphasis on skill development and livelihood generation aligns with broader national objectives of employment creation and poverty alleviation. Similarly, investments in educational infrastructure contribute to human capital development and social mobility among marginalized communities.

Conclusion

The Pradhan Mantri Anusuchit Jaati Abhyuday Yojana (PM-AJAY) represents an important policy initiative aimed at empowering Scheduled Castes through integrated socio-economic development. By combining infrastructure creation, educational support, skill development, and livelihood generation under a unified framework, the scheme seeks to promote inclusive and sustainable growth.

Katarniaghat Wildlife Sanctuary is located in the Terai belt of the Upper Gangetic Plains in Bahraich district of Uttar Pradesh, near the Indo-Nepal border. In 1987, it was brought under Project Tiger and, along with Dudhwa National Park and Kishanpur Wildlife Sanctuary, forms the Dudhwa Tiger Reserve. The sanctuary provides an important ecological corridor connecting the tiger habitats of Dudhwa and Kishanpur in India with Bardia National Park in Nepal.

Vegetation and Flora

The sanctuary consists of grasslands, mixed deciduous forests, and moist deciduous forests. The vegetation is predominantly composed of Sal forests, along with associated tree species such as Terminalia alata (Asna), Lagerstroemia parviflora (Asidha), Adina cordifolia (Haldu), Mitragyna parviflora (Faldu), and Gmelina arborea (Gahmhar).

Fauna

Katarniaghat is home to several endangered species, including the Tiger, Gharial, Indian Rhinoceros, Gangetic Dolphin, Swamp Deer, Hispid Hare, Bengal Florican, White-backed Vulture, and Long-billed Vulture. The rich biodiversity of the sanctuary makes it one of the most important protected areas in the Terai region.

Gairwa River

The Gairwa River, which flows through the sanctuary, has been declared a protected habitat for the Mugger Crocodile and Gharial. The river ecosystem also supports rare turtles, freshwater fish, and a variety of aquatic life. Katarniaghat is among the few places in India where the Gangetic Dolphin is found in its natural habitat.

The Justice (Retd.) Prakash Prabhakar Naolekar Committee is a high-level committee constituted by the Central Government to assess demographic changes across India arising from illegal immigration and other unnatural causes. The committee has been mandated to study the nature, extent, and causes of such demographic shifts and recommend appropriate measures to address them.

Composition of the Committee

The committee is chaired by Prakash Prabhakar Naolekar. It consists of five members, including the Census Commissioner, Durga Shankar Mishra, Balaji Srivastava, and Shamika Ravi. The Joint Secretary (Foreigners-I), Ministry of Home Affairs, serves as the Member Secretary of the committee.

Mandate and Functions

The committee has been tasked with examining patterns of demographic change across different parts of the country and identifying the factors responsible for such changes, including illegal immigration and other unnatural causes. It will also study their social, economic, administrative, and security implications.

Based on its findings, the committee will recommend legal, administrative, and policy measures to effectively address the issue and strengthen mechanisms related to population management and internal security.

Time Frame

The committee is expected to submit its report to the government within one year of its constitution.

Two lion cubs in the Gir National Park region of Gujarat recently died due to a suspected Babesia infection, bringing attention to this tick-borne parasitic disease that affects both animals and humans.

About Babesia

Babesia is a genus of microscopic protozoan parasites that infect the red blood cells (RBCs) of animals and humans. The infection caused by these parasites is known as babesiosis. The disease is much more common in animals, particularly cattle, dogs, and other mammals, although human infections also occur.

Transmission

Babesia is transmitted primarily through the bite of infected Ixodes ticks, commonly known as deer ticks. These ticks are also responsible for transmitting other diseases, including Lyme disease. In rare cases, the infection can be transmitted from a pregnant woman to her fetus, but person-to-person transmission does not normally occur.

Geographical Distribution

The geographical distribution of Babesia is concentrated mainly in the Americas, particularly in the Northeastern United States, and also extends to parts of Europe and Asia. Human infections are more common in regions where tick populations are abundant.

Symptoms

Many infected individuals may show no symptoms or only mild symptoms. However, severe cases can cause high fever, fatigue, hemolytic anemia, and other complications arising from the destruction of red blood cells.

In serious infections, babesiosis may lead to respiratory failure, kidney failure, liver failure, heart problems, and coagulopathy, especially among immunocompromised individuals, older adults, and people without a functioning spleen.

Treatment

Babesiosis is treated using antimicrobial drugs that target the parasitic infection. The most commonly recommended treatment is a combination of Atovaquone, an antiparasitic medicine, and Azithromycin, an antibiotic. Severe cases may require more intensive medical management and supportive care.