CUET UG Geography Booster Test 1-Non-Conventional Energy and Conservation

Non-conventional energy resources include solar energy, wind energy, tidal energy, geothermal energy, and biogas. Statement 1 is correct: Conventional fuels such as coal and petroleum are concentrated in specific geological locations. Renewable resources like sunlight and wind are available over larger geographical areas. Statement 2 is correct: Although renewable energy projects involve high installation costs, the energy source itself (sunlight, wind, etc.) is free, reducing long-term operational expenses. Statement 3 is correct: Renewable energy sources are naturally replenished and can be used repeatedly without depletion like fossil fuels. Statement 4 is incorrect: Non-conventional energy does not rely on extracting limited mineral reserves. This feature is associated with conventional energy resources like coal and petroleum. Hence, the correct option is: A) 1, 2 and 3 only

Bio-energy systems process organic matter like animal dung, agricultural residues, and waste into usable fuel. In rural settings, this shift is critical because it directly replaces traditional fuel wood collection, helping to prevent local deforestation and soil erosion. Additionally, it improves public health by reducing indoor air pollution from smoky cooking fires, while providing a clean nutrient byproduct that can be used as organic fertilizer to enhance agricultural productivity. This comprehensive benefit package matches option B.

The utilization of solar energy follows a clear chronological and physical sequence. First, solar radiation must travel through the atmosphere and strike the intercepting surface on Earth (2). Next, this incoming solar energy is captured by tracking equipment or photovoltaic panels (3). Finally, the captured radiation is converted into electricity or thermal energy to power downstream appliances like water heaters and crop dryers (1). This sequence creates the logical order 2, 3, 1, matching option B.

Solar Energy vs Coal/Oil Plants (1-B): Solar energy systems have an efficiency advantage over traditional coal and oil-based thermal power plants. The given comparison identifies this advantage as 7 per cent. Solar Energy vs Nuclear Plants (2-A): Compared with nuclear power plants, solar energy options show a higher effectiveness advantage of 10 per cent. Environmental Advantage (3-C): Solar energy produces clean power with minimal emissions compared to fossil fuel-based thermal plants. Renewable Nature (4-D): Solar energy uses sunlight, which is an inexhaustible natural resource and does not get depleted through usage. Hence, the correct sequence is: 1-B, 2-A, 3-C, 4-D

Solar thermal systems require consistent sunlight and low cloud cover to maximize energy collection. Rajasthan's location in the western part of India puts it in an arid zone dominated by the Thar Desert. This geography features minimal cloud cover, low humidity, and high solar radiation throughout the year, making western India an ideal region for solar energy projects. This directly supports option B.

Gujarat and Rajasthan form India's primary solar energy corridor. Gujarat's main geographic advantage is its location in western India, which gives it access to high levels of solar radiation. Arid and semi-arid zones like the Rann of Kutch receive clear, intense sunlight for most of the year, providing the solar insolation needed for large-scale power generation. This matches option B.

This question requires direct retrieval of data from the text passage. The third sentence states: "The kinetic energy of wind, through turbines is converted into electrical energy." This sentence explicitly identifies kinetic energy as the physical property utilized by wind turbines, matching option B.

This question requires direct comprehension of the opening sentence of the passage. The text begins with: "Wind energy is absolutely pollution free, inexhaustible source of energy." This statement establishes both the environmental benefits and the renewable nature of the resource, which aligns with option C.

India's wind energy infrastructure is concentrated in states with favorable wind conditions, such as strong coastal breezes or open desert plains. Rajasthan features open desert terrain suited for wind arrays, while Gujarat, Maharashtra, and Karnataka benefit from strong, consistent wind currents along the western coast line and across the Deccan plateau. Because all four states possess the geographic conditions needed for wind energy development, option D is the correct answer.

Coastal areas are well-suited for wind energy due to the daily temperature differences between land and ocean surfaces. Land heats up faster than water during the day and cools down more quickly at night, generating steady onshore and offshore airflows known as land and sea breezes. These reliable local breezes provide the consistent air movement needed to drive decentralized wind turbines, making option B the correct choice.

Ocean energy technologies harness the mechanical energy within marine environments. The text states that ocean currents and the regular, gravitational movement of seawater known as tidal waves serve as a major store-house of energy. In favorable coastal areas, incoming high tides can be directed through barrages to turn hydro-turbines, converting marine kinetic energy into electricity, which matches option B.

The assessment of ocean energy follows a logical progression from general resource identification to localized mapping and capacity evaluation. The sequence begins with the general scientific principle that ocean currents represent a major store-house of energy (1). Next, geographic assessment identifies specific high-potential areas, noting that large tidal ranges occur along India's western coast line (2). Finally, economic analysis concludes that despite this significant natural potential, the resource is not yet widely developed on a commercial scale (3). This logical progression follows the sequence 1, 2, 3, matching option B.

Geothermal energy is developed in areas where hot volcanic rocks heat deep underground water reservoirs. This heated water expands and rises under pressure, escaping to the surface through natural fissures or drilled geyser wells. Tapping this rising hot water allows its kinetic energy and steam to drive generation equipment, converting geothermal heat into usable power. This mechanism matches option C.

Manikaran – Geothermal Energy Plant (1-B): Manikaran, located in the Parvati Valley of Himachal Pradesh, has naturally occurring hot springs. These geothermal resources have been studied for energy generation. Tarapur – Nuclear Power Project (2-A): Tarapur Atomic Power Station in Maharashtra is one of India's earliest commercial nuclear power projects. Kalpakkam – Nuclear Power Project (3-C): Kalpakkam in Tamil Nadu houses nuclear research and power facilities associated with atomic energy. Puga Valley – Geothermal Energy Potential (4-D): Puga Valley in Ladakh is recognized for its geothermal resources due to high-temperature springs. Hence, the correct sequence is: 1-B, 2-A, 3-C, 4-D

Bio-energy systems process organic material like crop residues and animal dung into clean biogas. In developing areas, this biogas directly replaces traditional wood-burning stoves. Providing a reliable substitute source of cooking gas reduces the need to gather firewood, which lessens pressure on local forests and helps prevent environmental degradation. This supports option C as the correct answer.

Metropolitan centers generate significant quantities of garbage that require management to avoid landfill accumulation. The Okhla project in New Delhi is a major urban waste-to-energy facility designed for this purpose. It processes municipal solid waste through controlled combustion or biomethanation to generate electricity for the city's power grid, which matches option B.

Mineral conservation strategies aim to preserve finite, critical resources for long-term domestic development. For strategic and scarce minerals, exporting raw materials accelerates depletion and can leave domestic industries dependent on foreign suppliers later on. To extend the lifespan of these reserves, resource policies recommend reducing or restricting exports, keeping these materials for domestic use, which aligns with option C.

Managing scarce industrial minerals follows a clear problem-solving framework. The sequence begins by identifying the basic resource challenge: recognizing that domestic reserves of metals like zinc are meagre (1). Once this scarcity is clear, policy shifts toward alternative supply options, such as promoting the collection of industrial and consumer scrap metal (3). Finally, the country builds the processing infrastructure needed to enable efficient recycling of these materials (2). This sequence creates the logical order 1, 3, 2, matching option B.

Sustainable development addresses the challenges of resource depletion and environmental degradation. It rejects models that maximize short-term production without regard for long-term ecological impacts. Instead, it creates a balanced framework that integrates economic development goals with environmental protection, ensuring that current economic activity does not compromise the resource base for future generations. This definition aligns with option B.

Exhaustible Resources – Coal, Petroleum, Natural Gas (1-B): These fossil fuels are formed over millions of years and exist in limited reserves. Once consumed, they cannot be quickly replaced, making them exhaustible. Inexhaustible Resources – Solar, Wind, Wave, Geothermal (2-A): These energy sources are continuously replenished by natural processes and are not depleted through regular use. Renewable Resources – Naturally Replenished Resources (3-C): Renewable resources can recover naturally, such as solar energy, wind energy, and biomass. Non-renewable Resources – Limited Resources (4-D): Minerals and fossil fuels are available only in fixed quantities and require geological time for formation. Hence, the correct sequence is: 1-B, 2-A, 3-C, 4-D