To boost Indias power-generating capacity, the Jawaharlal Nehru Solar Mission was launched in India in January 2010. Which of the following statements regarding this Mission is/are correct? 1. India is fast exhausting reserves of fossil fuel resources. 2. Solar energy is a clean source of energy. 3. India lacks technology for development of other alternative sources of power generation. Select the correct answer using the code given below : Code :

1. India's Energy Mix and Fossil Fuel Challenges (basic)

To understand India's infrastructure, we must first look at its energy metabolism. India is currently in a phase of rapid economic expansion, where energy demand is growing at over 12% annually. However, there is a massive 'consumption gap': India's per capita electricity consumption is only about 350 kWh, which is significantly lower than the world average of 1000 kWh and the U.S. average of 7000 kWh Geography of India, Energy Resources, p.30. This disparity highlights a core challenge—India needs to generate immense amounts of power to lift its population's standard of living, yet doing so through traditional means faces physical and environmental limits. Historically, India’s energy backbone has been coal, specifically Gondwana coal, which makes up over 98% of the country's reserves. This coal is primarily bituminous, found in states like Jharkhand, Odisha, and Chhattisgarh, and is vital for the iron and steel industries Geography of India, Energy Resources, p.1-3. While coal provides steady 'base-load' power, it presents a dual crisis: first, it is a finite, exhaustible resource that threatens long-term energy security; and second, it carries heavy environmental costs through carbon emissions and pollution. Beyond coal, India relies heavily on biomass, which accounts for roughly 32% of total primary energy usage. Over 70% of the rural population still depends on it for basic needs Environment, Renewable Energy, p.293. To transition away from this fossil-heavy and inefficient mix, India is not pivoting because it lacks technology—in fact, India has robust expertise in wind and hydropower—but because it must diversify to ensure energy sovereignty. By leveraging its high solar insolation and existing renewable strengths, India aims to mitigate the negative externalities of fossil fuels while meeting its soaring demand.

Coal Type	Age & Origin	Carbon Content	Share in India
Gondwana Coal	~250 million years old	High (60-90%) - Bituminous/Anthracite	~98%
Tertiary Coal	15-60 million years old	Low - Brown coal (Lignite)	~2%

Sources: Geography of India, Energy Resources, p.30; Geography of India, Energy Resources, p.1; Geography of India, Energy Resources, p.3; Environment, Renewable Energy, p.293

2. Environmental Impact and the Need for Clean Energy (basic)

To understand why the world is shifting toward clean energy, we must first look at our current reliance on thermal energy. Thermal electricity is generated by burning fossil fuels like coal, petroleum, and natural gas. While these sources have historically been favored because they can be generated regardless of weather conditions and have relatively short construction (gestation) periods, they come with a heavy price Geography of India, Energy Resources, p.24. These resources are exhaustible, meaning they will eventually run out, creating a massive risk to long-term energy security.

The most significant drawback of fossil fuels is their environmental impact. When burned, they release enormous quantities of carbon dioxide (CO₂) and other greenhouse gases, which are the primary drivers of global warming. This contributes to our ecological footprint—a measure of how much of the Earth’s resources we use compared to what the planet can regenerate. Currently, the carbon footprint makes up about 54% of our total ecological footprint, representing the land and sea area required to absorb the CO₂ we emit Environment, Ecology, p.7.

In contrast, clean energy (or renewable energy) sources like solar, wind, and hydroelectricity offer a sustainable path forward. These sources use inexhaustible raw materials provided by nature. Beyond being eco-friendly, they are more equitably distributed across different geographies, reducing the need for complex fuel transport systems required by coal or gas INDIA PEOPLE AND ECONOMY, Mineral and Energy Resources, p.61. For a developing nation like India, transitioning to clean energy isn't just about saving the planet; it’s about ensuring that energy remains affordable and available for future generations without destroying the local environment.

Feature	Thermal Energy (Fossil Fuels)	Renewable Energy (Clean Energy)
Resource Type	Exhaustible / Non-renewable	Inexhaustible / Sustainable
Environmental Impact	High CO₂ emissions; pollutes air	Environment-friendly; low carbon footprint
Reliability	Weather-independent; consistent	Can be intermittent (e.g., solar needs sun)
Gestation Period	Short Environment and Ecology, Distribution of World Natural Resources, p.22	Varies (Hydro is long; Solar is shorter)

Sources: Geography of India, Energy Resources, p.24; Environment, Ecology, p.7; INDIA PEOPLE AND ECONOMY, Mineral and Energy Resources, p.61; Environment and Ecology, Distribution of World Natural Resources, p.22

3. National Action Plan on Climate Change (NAPCC) (intermediate)

The National Action Plan on Climate Change (NAPCC), launched in June 2008, serves as India's comprehensive strategy to achieve sustainable development while effectively addressing the challenges of climate change. Rather than viewing environmental protection as a hurdle to growth, the NAPCC is built on the principle of 'co-benefits'—focusing on actions that promote development objectives while also yielding benefits for climate change mitigation and adaptation. It is structured around eight core national missions that represent a multi-pronged approach across sectors like energy, water, and agriculture. From an energy infrastructure perspective, the NAPCC is pivotal. It includes the National Solar Mission (NSM), which aims to establish India as a global leader in solar energy by creating a policy framework for rapid diffusion of solar technology. Complementing this is the National Mission for Enhanced Energy Efficiency (NMEEE), which focuses on market-based mechanisms to improve energy efficiency in energy-intensive industries. These missions align with the broader Integrated Energy Policy (2006), which emphasizes the promotion of renewables, biofuels, and clean energy technologies like nuclear and hydropower Environment, Shankar IAS Academy, India and Climate Change, p.311. Beyond direct energy production, the NAPCC emphasizes building a robust intellectual and data infrastructure. The National Mission on Strategic Knowledge for Climate Change is designed to form knowledge networks among research institutions and establish global technology watch groups. This ensures that India has the institutional capacity and climate modeling data necessary to refine its energy policies and sector-specific scenarios Environment, Shankar IAS Academy, India and Climate Change, p.306. Other missions, such as the National Mission for a Green India and the National Mission for Sustainable Agriculture, further integrate ecological concerns into the rural economy, often overlapping with specific initiatives like the National Bamboo Mission to enhance carbon sinks and livelihood security Indian Economy, Vivek Singh (7th ed. 2023-24), Agriculture - Part II, p.341.

Sources: Environment, Shankar IAS Academy, India and Climate Change, p.311; Environment, Shankar IAS Academy, India and Climate Change, p.306; Indian Economy, Vivek Singh (7th ed. 2023-24), Agriculture - Part II, p.341

4. India's Technological Prowess in Alternative Energy (intermediate)

To understand India's energy transition, we must first look at the Energy Security imperative. India has historically relied on fossil fuels, but the looming threat of exhausting domestic reserves and the high cost of imports led to a strategic pivot. This wasn't just about finding 'any' energy; it was about clean, renewable alternatives that mitigate carbon emissions and environmental degradation. While the Jawaharlal Nehru National Solar Mission (JNNSM), launched in 2010, gave a massive push to solar energy to leverage India's high solar insolation, it is a common misconception that India only recently acquired green technology. In reality, India possesses deep-rooted technological prowess across multiple renewable sectors, having built expertise in wind and hydro long before the solar boom Environment, Shankar IAS Acedemy , Renewable Energy, p.287. In the realm of Wind Energy, India has established itself as a global heavyweight, currently ranking 4th in the world after China, the USA, and Germany Geography of India ,Majid Husain, Energy Resources, p.28. This success is underpinned by the National Institute of Wind Energy (NIWE), which uses advanced Geographic Information System (GIS) mapping to identify high-potential zones. We now know that at 100 meters above ground level, India's wind potential is a staggering 695.5 GW, with states like Gujarat, Karnataka, and Tamil Nadu leading the charge due to their steady coastal wind speeds Environment, Shankar IAS Acedemy , Renewable Energy, p.290. Similarly, India’s Hydropower technology is highly mature, dating back to 1879 when the first plant was established in Darjeeling Environment and Ecology, Majid Hussain, Environmental Degradation and Management, p.52. Beyond just generating electricity—which accounts for approximately 20-23% of the nation's total requirements—Indian engineers have mastered multi-purpose projects. These systems integrate power generation with flood control, irrigation, and water storage, proving that the country’s technological capabilities are holistic rather than restricted to a single niche Environment and Ecology, Majid Hussain, Distribution of World Natural Resources, p.21.

Sources: Environment, Shankar IAS Acedemy, Renewable Energy, p.287, 290; Geography of India ,Majid Husain, Energy Resources, p.28; Environment and Ecology, Majid Hussain, Environmental Degradation and Management, p.52; Environment and Ecology, Majid Hussain, Distribution of World Natural Resources, p.21

5. Global Solar Leadership: ISA and Beyond (exam-level)

India’s journey toward global solar leadership is a transition from domestic energy security to international diplomacy. The foundation was laid by the Jawaharlal Nehru National Solar Mission (JNNSM) in 2010. This mission was driven by two first-principle needs: energy security (reducing the drain of fossil fuel imports) and environmental sustainability (mitigating carbon footprints). Unlike other renewables where India already had established tech (like wind or hydro), solar was chosen as the frontier for "global leadership" because of India’s immense geographic advantage of high solar insolation Environment, Shankar IAS Academy, Chapter 22, p.287.

This domestic ambition went global in 2015 with the launch of the International Solar Alliance (ISA) at the COP21 Paris Climate Conference. Co-founded by India and France, the ISA was initially designed for "sunshine countries" — those lying completely or partially between the Tropic of Cancer and the Tropic of Capricorn. Today, it serves as a platform for 121 signatory nations to collaborate on solar technology and finance. Interestingly, while the alliance is now open to countries outside the Tropics, those non-tropical members can enjoy all benefits except for voting rights Indian Economy, Nitin Singhania, Chapter 15, p.451. The ISA is the first intergovernmental organization to be headquartered in India, specifically in Gurugram, Haryana.

To address the challenge of "the sun setting" in one part of the world, India proposed the One Sun, One World, One Grid (OSOWOG) initiative. This seeks to create a transnational electricity grid that allows solar energy to be traded across borders, ensuring that renewable power is available 24/7 globally Environment, Shankar IAS Academy, Chapter 22, p.289. Domestically, to ensure the grid remains stable despite the variability of solar and wind, the National Wind-Solar Hybrid Policy (2018) was introduced to promote integrated projects that utilize land and infrastructure more efficiently Indian Economy, Nitin Singhania, Chapter 15, p.452.

Sources: Indian Economy, Nitin Singhania, Infrastructure, p.451-452; Environment, Shankar IAS Academy, Renewable Energy, p.287-289

6. Jawaharlal Nehru National Solar Mission (JNNSM) (exam-level)

The Jawaharlal Nehru National Solar Mission (JNNSM), launched in January 2010, is one of the eight key missions under India’s National Action Plan on Climate Change (NAPCC). The mission was born out of a dual necessity: ensuring energy security by reducing dependence on depleting fossil fuels and meeting environmental commitments by transitioning to a low-carbon economy. India is uniquely positioned for this mission due to its geography, receiving high solar insolation (roughly 5,000 trillion kWh per year) with most parts of the country enjoying 250–300 sunny days. Environment, Shankar IAS Academy, Renewable Energy, p.288

While India has significant established capacity and technical expertise in other renewable sectors like Wind Energy and Hydropower, the National Solar Mission specifically seeks to make India a global leader in solar energy. The mission is structured to create an enabling policy framework that drives down the cost of solar power through rapid scale-up and technological innovation, eventually achieving grid parity (where solar costs match conventional power costs). Environment, Shankar IAS Academy, India and Climate Change, p.302

Originally, the mission set a target of 20 GW of grid-connected solar power by 2022. However, in 2015, the government significantly scaled up this ambition. The revised target aimed for 100 GW (100,000 MW) of solar capacity, which was categorized into two distinct segments to ensure decentralization and industrial scale. Environment, Shankar IAS Academy, India and Climate Change, p.302

Component	Target Capacity
Rooftop Solar Projects	40 GW
Large & Medium Scale Grid-Connected Projects	60 GW
Total Revised Target	100 GW

Sources: Environment, Shankar IAS Academy, Renewable Energy, p.288; Environment, Shankar IAS Academy, India and Climate Change, p.302

7. Solving the Original PYQ (exam-level)

Now that you have mastered the fundamentals of Energy Security and Renewable Energy, you can see how this question tests your ability to integrate strategic necessity with ground realities. The Jawaharlal Nehru National Solar Mission (JNNSM), launched in 2010, was not an isolated policy; it was a response to the dual pressure of depleting domestic fossil fuels and the global mandate for cleaner energy transitions. As we discussed in our modules, India’s energy policy is driven by the need to bridge the demand-supply gap while reducing the carbon footprint, making Statements 1 and 2 logically sound pillars of the mission's rationale.

To arrive at the correct answer (B), you must apply a critical lens to Statement 3. This is a classic UPSC 'absolute statement' trap. While the mission focuses heavily on solar energy to exploit India's high solar insolation, claiming that India 'lacks technology' for other alternatives is factually incorrect. Even in 2010, India was already a global player in wind energy and had a long-standing history with large-scale hydropower. According to Environment, Shankar IAS Academy, renewable energy in India is a diverse portfolio; the Solar Mission was intended to achieve global leadership in one specific niche, not to compensate for a total lack of capability in others.

In your exam strategy, always be wary of words like 'lacks' or 'only', as they often signal incorrect options in the context of India's robust scientific infrastructure. By eliminating Statement 3, options (A) and (C) immediately fall away. This leaves you with the realization that the mission's core was to address the exhaustion of reserves and leverage the clean nature of solar power, as highlighted in Indian Economy, Nitin Singhania. Always look for the 'intent' behind the policy—it is usually about diversification, not a total absence of alternative technologies.