[Mission 2024] Insights SECURE SYNOPSIS: 11 May 2024
Kartavya Desk Staff
NOTE: Please remember that following ‘answers’ are NOT ‘model answers’. They are NOT synopsis too if we go by definition of the term. What we are providing is content that both meets demand of the question and at the same
Answer the following questions in 150 words:
General Studies – 1
1. The accommodation of diverse religiosity within the framework of science in India can be seen as a testament to the country’s long history of pluralism, and synthesis of different cultural and philosophical traditions. Discuss.
Reference: The Hindu
Introduction
India, with its kaleidoscope of cultures, religions, and philosophies, has long embraced pluralism—a harmonious coexistence of diverse beliefs and practices. This pluralistic ethos extends to the realm of science, where India’s rich history reflects an intricate synthesis of different knowledge systems. This accommodation of diverse religiosity within the scientific framework manifests and shapes our collective consciousness.
The Secretary of the Department of Science and Technology (DST), Abhay Karandikar, posted on X on April 17 (Ram Navami) that the Indian Institute of Astrophysics (IIA) had played a “crucial role” in the ‘surya tilak’ project in the Ram Mandir in Ayodhya.
Features of Indian Pluralism and Synthesis:
• Interconnectedness of Knowledge Systems: Ancient Wisdom: From the Vedas (Upanishads) to modern thinkers like Sri Aurobindo, knowledge (jnana) has been central to rational inquiry in India. Three Key Terms: Darshana: Philosophy or the system that leads to knowledge. Jnana: Experiential knowledge gained through inner self-awareness. Vidya: Organized knowledge or discipline. Mundakopanishad Distinction: Mundakopanishad classifies knowledge into two categories: Para Vidya: Knowledge of the ultimate principle (paramatma or Brahman). Apara Vidya: Knowledge secondary to worldly means (aksara-Brahman). Religious Plurality: Coexistence of Faiths: India hosts Hinduism, Islam, Christianity, Sikhism, Buddhism, Jainism, and more. Syncretic Traditions: Ancient syncretism led to the rise of Bhakti movements, blending diverse religious practices. Akbar’s Din-e-Ilahi: Emperor Akbar promoted a syncretic knowledge system called Din-e-Ilahi, recognizing commonalities across faiths. Examples of Pluralism and Synthesis: Taj Mahal: This iconic monument fuses Persian, Indian, and Islamic architectural styles. Sufi Music: Sufi saints blended Islamic mysticism with Indian musical traditions, creating qawwali and ghazals. Ayurveda and Unani: India’s traditional medicine systems integrate Ayurveda, Unani, and Siddha practices. Indian Festivals: Diwali, Eid, Christmas, and Baisakhi are celebrated across communities, reflecting shared cultural spaces.
• Ancient Wisdom: From the Vedas (Upanishads) to modern thinkers like Sri Aurobindo, knowledge (jnana) has been central to rational inquiry in India.
• Three Key Terms: Darshana: Philosophy or the system that leads to knowledge. Jnana: Experiential knowledge gained through inner self-awareness. Vidya: Organized knowledge or discipline.
• Darshana: Philosophy or the system that leads to knowledge.
• Jnana: Experiential knowledge gained through inner self-awareness.
• Vidya: Organized knowledge or discipline.
• Mundakopanishad Distinction: Mundakopanishad classifies knowledge into two categories: Para Vidya: Knowledge of the ultimate principle (paramatma or Brahman). Apara Vidya: Knowledge secondary to worldly means (aksara-Brahman).
• Para Vidya: Knowledge of the ultimate principle (paramatma or Brahman).
• Apara Vidya: Knowledge secondary to worldly means (aksara-Brahman).
• Religious Plurality: Coexistence of Faiths: India hosts Hinduism, Islam, Christianity, Sikhism, Buddhism, Jainism, and more. Syncretic Traditions: Ancient syncretism led to the rise of Bhakti movements, blending diverse religious practices. Akbar’s Din-e-Ilahi: Emperor Akbar promoted a syncretic knowledge system called Din-e-Ilahi, recognizing commonalities across faiths.
• Coexistence of Faiths: India hosts Hinduism, Islam, Christianity, Sikhism, Buddhism, Jainism, and more.
• Syncretic Traditions: Ancient syncretism led to the rise of Bhakti movements, blending diverse religious practices.
• Akbar’s Din-e-Ilahi: Emperor Akbar promoted a syncretic knowledge system called Din-e-Ilahi, recognizing commonalities across faiths.
• Examples of Pluralism and Synthesis: Taj Mahal: This iconic monument fuses Persian, Indian, and Islamic architectural styles. Sufi Music: Sufi saints blended Islamic mysticism with Indian musical traditions, creating qawwali and ghazals. Ayurveda and Unani: India’s traditional medicine systems integrate Ayurveda, Unani, and Siddha practices. Indian Festivals: Diwali, Eid, Christmas, and Baisakhi are celebrated across communities, reflecting shared cultural spaces.
• Taj Mahal: This iconic monument fuses Persian, Indian, and Islamic architectural styles.
• Sufi Music: Sufi saints blended Islamic mysticism with Indian musical traditions, creating qawwali and ghazals.
• Ayurveda and Unani: India’s traditional medicine systems integrate Ayurveda, Unani, and Siddha practices.
• Indian Festivals: Diwali, Eid, Christmas, and Baisakhi are celebrated across communities, reflecting shared cultural spaces.
Conclusion
India’s pluralistic heritage, where diverse religiosity harmonizes with scientific inquiry, exemplifies unity in diversity. As we navigate the complexities of modernity, we must cherish this synthesis and continue to learn from the interconnectedness of our knowledge systems.
2. What are swell waves? How are they different from tsunami waves? Analyse the impact of swell waves on coastal regions of India.
Reference: Indian Express
Introduction
Swell waves refer to ocean waves that have travelled over long distances from their area of origin, usually generated by distant weather systems or storms. These waves typically have a consistent and smooth appearance and can travel thousands of kilometres across the ocean’s surface without breaking. Coastal areas in southern and central Kerala experienced inundation from swell waves, locally known as ‘Kallakkadal,’ prompting alertness from disaster management authorities. Swell waves are a significant factor in shaping coastal areas and can cause inundation and erosion when they reach shore.
The Indian National Centre for Ocean Information Services (INCOIS) on Friday (May 3) forecasted that high sea waves, also known as swell waves, might hit the coastal areas of Goa, Maharashtra, West Bengal, Odisha, Tamil Nadu, Kerala, Lakshadweep, Karnataka, Gujarat, and Andaman & Nicobar Islands between Saturday (May 4) and Sunday (May 5).
Differences between swell and tsunami waves
• Unlike swell waves, a tsunami is a series of enormous wavescreated by an underwater disturbance usually associated with earthquakes occurring below or near the ocean.
• Tsunamis are around 10 times faster than swell waves.
• Although both swell waves and tsunamis slow down near the coast, the latter hit land at 30–50 km/h.
Impact of swell waves
• Erosion and Beach Dynamics: Wave Energy: Swell waves carry immense energy from distant storms. Erosion: High-energy swells erode coastlines, leading to land loss. Beach Profile Changes: Swells reshape beaches, altering their width and slope.
• Wave Energy: Swell waves carry immense energy from distant storms.
• Erosion: High-energy swells erode coastlines, leading to land loss.
• Beach Profile Changes: Swells reshape beaches, altering their width and slope.
• Navigation Hazards: Ship Safety: Swell waves create rough seas, challenging navigation. Ports and Harbors: Swells affect port operations, vessel berthing, and cargo handling.
• Ship Safety: Swell waves create rough seas, challenging navigation.
• Ports and Harbors: Swells affect port operations, vessel berthing, and cargo handling.
• Recreational Activities: Surfing: Swell waves attract surfers to coastal areas. Swimming and Water Sports: Swells enhance recreational opportunities. Safety Concerns: Strong swells pose risks to beachgoers.
• Surfing: Swell waves attract surfers to coastal areas.
• Swimming and Water Sports: Swells enhance recreational opportunities.
• Safety Concerns: Strong swells pose risks to beachgoers.
• Coastal Infrastructure Vulnerability: Structures: Swell waves impact seawalls, jetties, and breakwaters. Buildings and Roads: Erosion threatens coastal infrastructure stability. Flood Risk: Swells exacerbate flooding during storms.
• Structures: Swell waves impact seawalls, jetties, and breakwaters.
• Buildings and Roads: Erosion threatens coastal infrastructure stability.
• Flood Risk: Swells exacerbate flooding during storms.
• Case Examples: Kerala’s Kallakkadal: In March, swell waves caused flooding in Kerala’s Alappuzha, Kollam, and Thiruvananthapuram districts. South Tamil Nadu Alert: Recently, South Tamil Nadu faced a red alert due to impending swell waves. Swell Surge Forecast System: INCOIS launched this system to predict swell waves seven days in advance.
• Kerala’s Kallakkadal: In March, swell waves caused flooding in Kerala’s Alappuzha, Kollam, and Thiruvananthapuram districts.
• South Tamil Nadu Alert: Recently, South Tamil Nadu faced a red alert due to impending swell waves.
• Swell Surge Forecast System: INCOIS launched this system to predict swell waves seven days in advance.
• Efficiency Link: Resource Allocation: Efficiently managing coastal infrastructure requires understanding swell wave impacts. Early Warning Systems: Forecasting swell waves enhances disaster preparedness. Adaptive Measures: Efficient planning minimizes damage and ensures sustainable coastal development.
• Resource Allocation: Efficiently managing coastal infrastructure requires understanding swell wave impacts.
• Early Warning Systems: Forecasting swell waves enhances disaster preparedness.
• Adaptive Measures: Efficient planning minimizes damage and ensures sustainable coastal development.
Conclusion
In India, early warning systems like the Swell Surge Forecast System launched by the INCOIS in 2020 — gives forewaring seven days in advance. Further, the need of the hour is to educate the local dwellers and fishermen about the swell waves and measures to be undertaken when a warning for swell waves is issued by authorities.
General Studies – 2
3. Ensuring the safety of dams in India is critical due to the risks of failure, including loss of life and property damage. However, several challenges hinder dam safety efforts. Analyse.
Reference: The Hindu , Insights on India.
Introduction
Dams are one of the vital elements for the growth of the country’s economy. In India, over the years, dams have played an important role in fostering rapid and sustained agricultural and rural growth. Substantial investment has been done in building dams and related infrastructure.
India is ranked third in the world in terms of building large dams. Of the over 5,200 large dams built so far, about 1,100 large dams have already reached 50 years of age and some are older than 120 years. The number of such dams will increase to 4,400 by 2050. This means that 80% of the nation’s large dams face the prospect of becoming obsolete as they will be 50 years to over 150 years old.
However, in the past, we have noticed the mismanagement of dams has led to disastrous floods. One of the key roles was played by dams and understanding their role in floods would pave the way for enhancing our readiness.
Various causes of dam failures:
• Seismic damage: Earthquakes can subject dams to strong ground shaking, which may lead to structural damage or foundation failure. Kobe Earthquake, Japan (1995):While not a dam failure, the Kobe Earthquake in Japan caused damage to dams and their components.
• Kobe Earthquake, Japan (1995):While not a dam failure, the Kobe Earthquake in Japan caused damage to dams and their components.
• Erosion and piping: Erosion occurs when the flow of water erodes the soil or rock supporting the dam’s structure. Piping, a related issue, involves the internal erosion of dam materials, creating channels through which water can escape.
• Extreme weather events: Intense and prolonged rainfall, hurricanes, or typhoons can result in dam failures due to increased water inflow, exceeding the dam’s storage capacity. Kedarnath Floods, India (2013):While not a traditional dam failure, the catastrophic flooding in the Kedarnath region of Uttarakhand, India, in 2013, was triggered by heavy rainfall and the sudden release of water from a glacial lake.
• Kedarnath Floods, India (2013):While not a traditional dam failure, the catastrophic flooding in the Kedarnath region of Uttarakhand, India, in 2013, was triggered by heavy rainfall and the sudden release of water from a glacial lake.
• Glacial lake outburst flood(GLOF): In mountainous regions with glaciers, the sudden release of meltwater from a glacier-dammed lake can trigger a GLOF. These events can lead to massive floods downstream, posing a significant threat to communities and infrastructure.
• Human factors: This includes poor operational decisions, inadequate maintenance, conflict and war can contribute to dam failures.
• Design limitations: Flaws in the original design, including inadequate spillways, improper materials, or underestimated water flow calculations can lead to structural weaknesses.
Two examples of large dam failures:
• The recent Derna dam collapse Failure of two roughly 75 and 45-meter tall dams following heavy rain from Storm Daniel against the backdrop of the Libyan civil war resulting in the city of Derna.
• Kakhovka Dam failure: The dam in Ukraine was breached in June 2023, causing extensive flooding along the lower Dnieper River. Many experts have concluded that Russian forces likely blew up a segment of the dam to hinder the Ukrainian counter-offensive.
Consequences of ageing of dams
• As dams age, soil replaces the water in the reservoirs. Therefore, the storage capacity cannot be claimed to be the same as it was in the 1900s and 1950s.
• To make matters worse, studies show that the *design of many of our reservoirs is flawed. Case Study: In a paper, Supply-side Hydrology: Last gasp, Rohan D’Souza writes that the observed siltation rate in India’s iconic Bhakra dam is 139.86% higher than originally assumed. At this rate, he wrote, “the Bhakra dam is now expected to function for merely 47 years, virtually halved from the original estimate of 88 years*”.
• Case Study: In a paper, Supply-side Hydrology: Last gasp, Rohan D’Souza writes that the observed siltation rate in India’s iconic Bhakra dam is 139.86% higher than originally assumed.
• At this rate, he wrote, “the Bhakra dam is now expected to function for merely 47 years, virtually halved from the original estimate of 88 years”.
• Similarly, the actual siltation rate observed for the Hirakud, Maithan and Ghod dams are way higher at 141.67%, 808.64% and 426.59%, respectively. Studies in later years showed similar findings.
• Almost every scholarly study on reservoir sedimentationshows that Indian reservoirs are designed with a poor understanding of sedimentation science.
• The designs underestimate the rate of siltation and overestimate live storage capacity created.
• Therefore, the storage space in Indian reservoirs is receding at a rate faster than anticipated.
• Reservoirs are poised to become extinct in less than a few decades with untold consequences already under way.
• In June 2018 the central government had approved the proposal for introduction of the Dam Safety Bill, 2018 which aims to develop uniform countrywide guidelines for ensuring the safety of dams.
• Dam mismanagement also leads to flooding like in 2018 incident inMullaperiyar dam between Kerala and Tamil Nadu.
Consequences of dam failures
• Loss of life: When a dam fails, the rapid release of water can lead to the loss of numerous lives, as people in downstream areas may not have sufficient time to evacuate. In 1979, the Machhu Dam in Morbi, Gujaratfailed due to heavy rainfall and improper maintenance killing around 1800 to 25000 people.
• In 1979, the Machhu Dam in Morbi, Gujaratfailed due to heavy rainfall and improper maintenance killing around 1800 to 25000 people.
• Property damage: The unleashed floodwaters can inundate homes, businesses, and critical infrastructure, causing extensive property damage. The Teton Dam in Idaho, USA (1976) collapsed primarily due to design and construction flaws, causing high infrastructure and property damage.
• The Teton Dam in Idaho, USA (1976) collapsed primarily due to design and construction flaws, causing high infrastructure and property damage.
• Environmental impact: Dam failures can have severe environmental consequences, including the destruction of ecosystems, contamination of water sources, and long-term ecological damage.
Challenges in ensuring dam safety
• Dam safety has always been an issue in the country which in the past reported as many as 36 dam disasters.
• There is no mechanism to assess the viable lifespan and performance of dams
• Some of the dams in India are over 300 years old, but they have not been decommissioned
Way Forward
• A Bill seeking to set up an institutional mechanism for surveillance, inspection, operation and maintenance of specified dams across the country has been passed by the Lok Sabha.
• The provisions of the Bill are proposed to be applied to all dams inthe country which have a height of more than 15 metres, or between 10 metres to 15 metres.
• Among other things, the Bill also seeks to resolve the inter-state issues concerning maintenance and safety of dams as around 92% of dams in the country are on inter-state river basins.
• The Bill also envisages setting up of a National Dam Safety Authority to be headed by an officer not below the rank of an Additional Secretary, to be appointed by the central government.
• The main task of the National Dam Safety Authority includesimplementing the policies formulated by the National Committee on Dam Safety, resolving issues between State Dam Safety Organisations (SDSOs), or between an SDSO and any dam owner in that state, specifying regulations for inspection and investigation of dams.
• The NDSA will also provide accreditation to agencies working on construction, design, and alteration of dams.
• Since the dam safety is dependent on many external factors, the environmentalists, and the environmental angle inthis, needs to be taken.
• There is a need to strengthen the state irrigation department and the Central Water Commission.
• It should be ensured that the inspection of dams isdone by the respective state governments.
• State governments should follow the dam safety manual with precision. Especially, where human settlements are scattered all around, the building of dams has to be regulated as per the guidelines.
• Creation of buffer zonehas to be done to protect land near dams from encroachment.
• However, the growth of population will lead to encroachment, and it would be physically impossible to shift people during calamity. Proper dissemination of information has to be done in the surrounding areas on a real-time basis and regular flushing of water should be carried downstream to keep the river beds dry.Hence, dam safety and proper village, town and city planning have to be integrated.
• Ensuring “dam safety” should be a continuous exercise. The present catastrophe is more related to, how the dam should be operated when there is heavy rainfall and the water level has reached a critical level.
General Studies – 3
4. Critically examine the potential benefits and challenges associated with central bank digital currency (CBDC).
Reference: Live Mint , Insights on India
Introduction
A Central Bank Digital Currency (CBDC), or national digital currency, is simply the digital form of a country’s fiat currency. Instead of printing paper currency or minting coins, the central bank issues electronic tokens. This token value is backed by the full faith and credit of the government.
Global interest in central bank digital currencies (CBDCs) is on the rise, with 80% of all central banks investigating their issuance and half having progressed past research to running pilots. India’s CBDC can be popularized in various ways, like offline access and programmability. But to challenge cash, RBI’s e-money will need to offer anonymity. To firm up such a promise, it’s best to legislate it.
Background
• The Reserve Bank of Indiais likely to soon kick off pilot projects to assess the viability of using digital currency to make wholesale and retail payments to help calibrate its strategy for introducing a full-scale central bank digital currency (CBDC).
• Union Finance Minister in the budget speech said the Reserve Bank of India (RBI) will launch a central bank digital currency (CBDC) in 2022-23, marking the first official statement from the Union government on the launch of much-awaited digital currency.
Need for a CBDC:
• The growth of cryptocurrencies such as Bitcoin, Ethereum etc has raised challenges to fiat currencies.
• Along with their other vulnerabilities made the central bank of each country explore the possibility of introducing their own digital currencies.
• A 2021 BIS survey of central banks, which found that 86% were actively researching the potential for such currencies, 60% were experimenting with the technology, and 14% were deploying pilot projects.
• The need for inter-bank settlement would disappear as it would be a central bank liability handed over from one person to another.
Challenges posed:
• India is already facing many cyber security threats. With the advent of digital currency, cyberattacks might increase and threaten digital theft like Mt Gox bankruptcy case.
• According to the Digital Empowerment Foundation in 2018 report, around 90% of India’s population is digitally illiterate. So, without creating enough literary awareness introduction of digital currency will create a host of new challenges to the Indian economy.
• Introduction of digital currency also creates various associated challenges in regulation, tracking investment and purchase, taxing individuals, etc.
• The digital currency must collect certain basic information of an individual so that the person can prove that he’s the holder of that digital currency. This basic information can be sensitive ones such as the person’s identity, fingerprints etc.
Conclusion:
There are crucial decisions to be made about the design of the currency with regards to how it will be issued, the degree of anonymity it will have, the kind of technology that is to be used, and so on. There is no doubt that the introduction of National Digital currency prevents the various threats associated with the private-owned cryptocurrencies and take India the next step as a digital economy. But the government has to create necessary safeguards before rolling out. India needs to move forward on introducing an official digital currency.
*Value addition*
*Global situation of CBDC*
According to the Bank for International Settlements, more than 60 countries are currently experimenting with the CBDC. There are few Countries that already rolled out their national digital currency. Such as,
• *Swedenis conducting real-world trials of their digital currency (krona)*
• *The Bahamasalready issued their digital currency “Sand Dollar*” to all citizens
• *China started a trial run of their digital currencye- RMB *amid pandemic. They plan to implement pan-China in 2022. This is the first national digital currency operated by a major economy.
5. Protecting and restoring wetlands is essential for conservation efforts globally due to their unparalleled ecological importance, biodiversity value, and multitude of benefits to the environment and society. Elucidate.
Reference: Down to Earth , Insights on India
Introduction
Wetlands are ecotones between terrestrial and aquatic ecosystems. They get periodically get inundated with water. They support a flourishing community of aquatic organisms including frogs and other amphibians. Swamps, marshes and mangroves are examples of wetlands. Wetlands are indispensable for the countless benefits or “ecosystem services” that they provide humanity, ranging from freshwater supply, food and building materials, and biodiversity, to flood control, groundwater recharge, and climate change mitigation.
major types of wetlands across the world
• Swamps: A swamp is a wetland permanently saturated with water and dominated by trees, and are of two types Freshwater Swamps Freshwater swamps often form on flat land around lakes or streams, where the water table is high and runoff is slow Water-tolerant plants, such as cattails, lotus, and cypress, grow in the swamp’s wet soil. These plants are key to maintaining the swamp’s ecosystem Freshwater swamps are common in tropical areas near the Equator. Saltwater Swamps Formation of these swamps begins with bare flats of mud or sand that are thinly covered by seawater during high tides. The brackish water of saltwater swamps is not entirely seawater, but not entirely freshwater, either The Sundarbans, a saltwater swamp in India and Bangladesh, has the largest mangrove forest in the world Marshes North and south of the tropics, swamps give way to marshes. These wetlands form a flat, grassy fringe near river mouths, in bays, and along coastlines. Many are alternately flooded and exposed by the movement of tides. Marshes are often divided into Freshwater Marshes Freshwater marshes, often found hundreds of kilometers from the coast, are dominated by grasses and aquatic plants. These marshes often develop around lakes and streams. Many freshwater marshes lie in the prairie pothole region of North America, the heart of which extends from central Canada through the northern Midwest of the United States. Saltwater Marshes Salt marshes are some of the richest ecosystems for biodiversity. Dominated by grasses, they provide food and shelter for algae, fungi, shellfish, fish, amphibians, and reptiles. A few mangrove trees may dot saltwater marshes, but they are dominated by grasses and a layer of algae called an algal mat. This algal mat is home to many insects and amphibians. Bogs Swamps and marshes are generally found in warm climates. Bogs are more common in cold or even Arctic areas in North America, Europe, and Asia. Bogs are often called moors or fens in Europe, and muskegs in Canada. Like many wetlands, bogs develop in areas where the water table, or the upper surface of underground water, is high The oldest, partially decayed vegetation at the bottom of the bog forms a thick, spongy mat called peat. Unlike other wetlands, bogs usually are not agriculturally fertile. The amount of acid in the soil and water is generally higher than that in swamps or marshes. Because of the limited species of plants, bogs do not have the biodiversity common in other types of wetlands
• Freshwater Swamps Freshwater swamps often form on flat land around lakes or streams, where the water table is high and runoff is slow Water-tolerant plants, such as cattails, lotus, and cypress, grow in the swamp’s wet soil. These plants are key to maintaining the swamp’s ecosystem Freshwater swamps are common in tropical areas near the Equator.
• Freshwater swamps often form on flat land around lakes or streams, where the water table is high and runoff is slow
• Water-tolerant plants, such as cattails, lotus, and cypress, grow in the swamp’s wet soil. These plants are key to maintaining the swamp’s ecosystem
• Freshwater swamps are common in tropical areas near the Equator.
• Saltwater Swamps Formation of these swamps begins with bare flats of mud or sand that are thinly covered by seawater during high tides. The brackish water of saltwater swamps is not entirely seawater, but not entirely freshwater, either The Sundarbans, a saltwater swamp in India and Bangladesh, has the largest mangrove forest in the world
• Formation of these swamps begins with bare flats of mud or sand that are thinly covered by seawater during high tides.
• The brackish water of saltwater swamps is not entirely seawater, but not entirely freshwater, either
• The Sundarbans, a saltwater swamp in India and Bangladesh, has the largest mangrove forest in the world
• Marshes North and south of the tropics, swamps give way to marshes. These wetlands form a flat, grassy fringe near river mouths, in bays, and along coastlines. Many are alternately flooded and exposed by the movement of tides. Marshes are often divided into Freshwater Marshes Freshwater marshes, often found hundreds of kilometers from the coast, are dominated by grasses and aquatic plants. These marshes often develop around lakes and streams. Many freshwater marshes lie in the prairie pothole region of North America, the heart of which extends from central Canada through the northern Midwest of the United States. Saltwater Marshes Salt marshes are some of the richest ecosystems for biodiversity. Dominated by grasses, they provide food and shelter for algae, fungi, shellfish, fish, amphibians, and reptiles. A few mangrove trees may dot saltwater marshes, but they are dominated by grasses and a layer of algae called an algal mat. This algal mat is home to many insects and amphibians. Bogs Swamps and marshes are generally found in warm climates. Bogs are more common in cold or even Arctic areas in North America, Europe, and Asia. Bogs are often called moors or fens in Europe, and muskegs in Canada. Like many wetlands, bogs develop in areas where the water table, or the upper surface of underground water, is high The oldest, partially decayed vegetation at the bottom of the bog forms a thick, spongy mat called peat. Unlike other wetlands, bogs usually are not agriculturally fertile. The amount of acid in the soil and water is generally higher than that in swamps or marshes. Because of the limited species of plants, bogs do not have the biodiversity common in other types of wetlands
• North and south of the tropics, swamps give way to marshes.
• These wetlands form a flat, grassy fringe near river mouths, in bays, and along coastlines. Many are alternately flooded and exposed by the movement of tides.
• Marshes are often divided into Freshwater Marshes Freshwater marshes, often found hundreds of kilometers from the coast, are dominated by grasses and aquatic plants. These marshes often develop around lakes and streams. Many freshwater marshes lie in the prairie pothole region of North America, the heart of which extends from central Canada through the northern Midwest of the United States. Saltwater Marshes Salt marshes are some of the richest ecosystems for biodiversity. Dominated by grasses, they provide food and shelter for algae, fungi, shellfish, fish, amphibians, and reptiles. A few mangrove trees may dot saltwater marshes, but they are dominated by grasses and a layer of algae called an algal mat. This algal mat is home to many insects and amphibians. Bogs Swamps and marshes are generally found in warm climates. Bogs are more common in cold or even Arctic areas in North America, Europe, and Asia. Bogs are often called moors or fens in Europe, and muskegs in Canada. Like many wetlands, bogs develop in areas where the water table, or the upper surface of underground water, is high The oldest, partially decayed vegetation at the bottom of the bog forms a thick, spongy mat called peat. Unlike other wetlands, bogs usually are not agriculturally fertile. The amount of acid in the soil and water is generally higher than that in swamps or marshes. Because of the limited species of plants, bogs do not have the biodiversity common in other types of wetlands
• Freshwater Marshes Freshwater marshes, often found hundreds of kilometers from the coast, are dominated by grasses and aquatic plants. These marshes often develop around lakes and streams. Many freshwater marshes lie in the prairie pothole region of North America, the heart of which extends from central Canada through the northern Midwest of the United States.
• Freshwater marshes, often found hundreds of kilometers from the coast, are dominated by grasses and aquatic plants. These marshes often develop around lakes and streams.
• Many freshwater marshes lie in the prairie pothole region of North America, the heart of which extends from central Canada through the northern Midwest of the United States.
• Saltwater Marshes Salt marshes are some of the richest ecosystems for biodiversity. Dominated by grasses, they provide food and shelter for algae, fungi, shellfish, fish, amphibians, and reptiles. A few mangrove trees may dot saltwater marshes, but they are dominated by grasses and a layer of algae called an algal mat. This algal mat is home to many insects and amphibians.
• Salt marshes are some of the richest ecosystems for biodiversity. Dominated by grasses, they provide food and shelter for algae, fungi, shellfish, fish, amphibians, and reptiles.
• A few mangrove trees may dot saltwater marshes, but they are dominated by grasses and a layer of algae called an algal mat. This algal mat is home to many insects and amphibians.
• Bogs Swamps and marshes are generally found in warm climates. Bogs are more common in cold or even Arctic areas in North America, Europe, and Asia. Bogs are often called moors or fens in Europe, and muskegs in Canada. Like many wetlands, bogs develop in areas where the water table, or the upper surface of underground water, is high The oldest, partially decayed vegetation at the bottom of the bog forms a thick, spongy mat called peat. Unlike other wetlands, bogs usually are not agriculturally fertile. The amount of acid in the soil and water is generally higher than that in swamps or marshes. Because of the limited species of plants, bogs do not have the biodiversity common in other types of wetlands
• Swamps and marshes are generally found in warm climates. Bogs are more common in cold or even Arctic areas in North America, Europe, and Asia.
• Bogs are often called moors or fens in Europe, and muskegs in Canada.
• Like many wetlands, bogs develop in areas where the water table, or the upper surface of underground water, is high
• The oldest, partially decayed vegetation at the bottom of the bog forms a thick, spongy mat called peat.
• Unlike other wetlands, bogs usually are not agriculturally fertile. The amount of acid in the soil and water is generally higher than that in swamps or marshes.
• Because of the limited species of plants, bogs do not have the biodiversity common in other types of wetlands
Critical role played by Wetlands in the Ecological conservation of Earth:
• Carbon Sequestration:Swamps, mangroves, peat lands, mires and marshes play an important role in carbon cycle. Wetland soils may contain as much as 200 times more carbon than its vegetation. Eg: In India, coastal wetlands are playing a major role in carbon sequestration. The total extent of coastal ecosystems (including mangroves) in India is around 43000 km. Overall, mangroves are able to sequester about 1.5 metric tonne of carbon per hectare per year and the upper layers of mangrove sediments have high carbon content, with conservative estimates indicating the levels of 10 percent.
• Eg: In India, coastal wetlands are playing a major role in carbon sequestration. The total extent of coastal ecosystems (including mangroves) in India is around 43000 km. Overall, mangroves are able to sequester about 1.5 metric tonne of carbon per hectare per year and the upper layers of mangrove sediments have high carbon content, with conservative estimates indicating the levels of 10 percent.
• Flood attenuation: Wetlands function as natural sponges that trap and slowly release surface water, rain, snowmelt, groundwater and flood waters. Many water-stressed regions in South Africa are subject to high intensity rainfall over very short periods, often resulting in flash floods. Wetlands are effective in spreading out and slowing down floodwaters, thereby reducing the severity of floods downstream. Eg: A large network of lakes and ponds in major cities like Srinagar, Bhopal, Bengaluru, Chennai and Hyderabad were constructed with the objective of flood control
• Eg: A large network of lakes and ponds in major cities like Srinagar, Bhopal, Bengaluru, Chennai and Hyderabad were constructed with the objective of flood control
• Regulation of stream flow & groundwater recharge:wetlands are often compared to sponges, in their ability to absorb water in wet periods, and release it during dry periods. The absorption thus helps in groundwater recharging too. Eg: floodplains of rivers like Ganga and Brahmaputra
• Eg: floodplains of rivers like Ganga and Brahmaputra
• Nutrient assimilation & recycling: removal by the wetland of phosphates and nitrates carried by runoff water. This takes place through the presence of wetland vegetation and the action of anaerobic bacteria (which would otherwise not exist in fast-flowing, energized streams or rivers). Thus, they help in nutrients recyclingand they carry out water purificationby filtration of sediments and nutrients from surface water.
• Erosion control:wetlands can limit the extent of erosion, predominantly through the protection provided by vegetation, and through their ability to reduce stream flow velocity. Buffer (act as a riparian buffer) shorelines against erosion and pollutants. Eg:the mangroves along the sea shores, especially on the western coast in West Bengal and Odisha have been playing a major role in protecting the coastal environment from the destruction of cyclones that frequently emanate in the Bay of Bengal.
• Eg:the mangroves along the sea shores, especially on the western coast in West Bengal and Odisha have been playing a major role in protecting the coastal environment from the destruction of cyclones that frequently emanate in the Bay of Bengal.
• Microclimate regulation: Wetland ecosystems play an important role in regulating local and regional climates through evaporative cooling effects that affect the exchange of energy and water with atmosphere. Eg:For every land cover type in wetlands, vegetation has a better stabilizing effect on temperature, whereas a water body has a better stabilizing effect on wind speed and humidity. Dal lake in Kashmir has a cooling effect on surroundings.
• Eg:For every land cover type in wetlands, vegetation has a better stabilizing effect on temperature, whereas a water body has a better stabilizing effect on wind speed and humidity. Dal lake in Kashmir has a cooling effect on surroundings.
• Promotes Biodiversity: Wetlands are important in supporting species diversity. Because wetlands provide an environment where photosynthesis can occur and where the recycling of nutrients can take place, they play a significant role in the support of food chains. Eg: In India lakes, rivers and other freshwater bodies support a large diversity of biota representing almost all taxonomic groups. For example, freshwater ecosystems of Western Ghats alone have 290 species of fish. Similarly, Loktak Lake is famous for being the only refuge of the endangered Sangai (Manipur brow-antlered deer).
• Eg: In India lakes, rivers and other freshwater bodies support a large diversity of biota representing almost all taxonomic groups. For example, freshwater ecosystems of Western Ghats alone have 290 species of fish. Similarly, Loktak Lake is famous for being the only refuge of the endangered Sangai (Manipur brow-antlered deer).
• Productive Ecosystem: Wetlands are among the most productive ecosystems in the world, comparable to rain forests and coral reefs. An immense variety of species of microbes, plants, insects, amphibians, reptiles, birds, fish and mammals can be part of a wetland ecosystem. Eg:In many such wetland areas of India, like Bharatpur wild life sanctuary in Rajasthan, and little Rann of Kutch and coastal areas of Saurashtra in Gujarat, many migratory species of birds, including siberian crane, from western and European countries come during winter.
• Eg:In many such wetland areas of India, like Bharatpur wild life sanctuary in Rajasthan, and little Rann of Kutch and coastal areas of Saurashtra in Gujarat, many migratory species of birds, including siberian crane, from western and European countries come during winter.
• Promotes Genetic diversity:They act as a genetic reservoir for various species of plants, especially rice.
• Tourism:Wet-lands such as coral reefs, beaches, reservoirs, lakes and rivers are considered to be a significant part of the tourism experience in the country. For instance, as per an estimate, every year, around seven million tourist visit Kerala’s backwaters, beaches and wildlife sanctuaries, 3 million visit Uttarakhand’s lakes and other natural wetlands and one million visit Dal lake in Jammu and Kashmir.
• For instance, as per an estimate, every year, around seven million tourist visit Kerala’s backwaters, beaches and wildlife sanctuaries, 3 million visit Uttarakhand’s lakes and other natural wetlands and one million visit Dal lake in Jammu and Kashmir.
• Cultural Significance: Wetlands especially lakes and ponds are intrinsically linked to the local culture. They are revered by the masses in recognition of the fact that they are the means of sustenance of their livelihood. Eg: Pushkar lake in Rajasthan and Ramappa lake in Telangana
• Eg: Pushkar lake in Rajasthan and Ramappa lake in Telangana
Threats to wetlands
Urbanization | Wetlands near urban centers are under increasing developmental pressure for residential, industrial and commercial facilities. Urban wetlands are essential for preserving public water supplies.
Anthropogenic activities | Due to unplanned urban and agricultural development, industries, road construction, impoundment, resource extraction and dredge disposal, wetlands have been drained and transformed, causing substantial economic and ecological losses in the long term.
Agricultural activities | Following the Green Revolution of the 1970s, vast stretches of wetlands have been converted to paddy fields. Construction of a large number of reservoirs, canals and dams to provide for irrigation significantly altered the hydrology of the associated wetlands.
Hydrologic activities | Construction of canals and diversion of streams and rivers to transport water to lower arid regions for irrigation has altered the drainage pattern and significantly degraded the wetlands of the region.
Deforestation | Removal of vegetation in the catchment leads to soil erosion and siltation
Pollution | Unrestricted dumping of sewage and toxic chemicals from industries has polluted many freshwater wetlands
Salinization | Over withdrawal of groundwater has led to salinization
Aquaculture | Demand for shrimps and fishes has provided economic incentives to convert wetlands and mangrove forests to develop pisciculture and aquaculture ponds.
Introduced species | Indian wetlands are threatened by exotic introduced plant species such as water hyacinth and salvinia. They clog waterways and compete with native vegetation.
Climate change | Increased air temperature; shifts in precipitation; increased frequency of storms, droughts, and floods; increased atmospheric carbon dioxide concentration; and sea level rise could also affect wetlands.
Measures needed
• Protection: The primary necessity today is to protect the existing wetlands. Of the many wetlands in India only around 68 wetlands are protected. But there are thousands of other wetlands that are biologically and economically important but have no legal status.
• Planning, managing and monitoring: Wetlands that come under the Protected area network have management plans but others do not. It is important for various stakeholders along with the local community and corporate sector to come together for an effective management plan. Active monitoring of these wetland systems over a period of time is essential.
• Comprehensive inventory: There has been no comprehensive inventory of all the Indian wetlands despite the efforts by the Ministry of Environment and Forests, Asian Wetland Bureau and World Wide Fund for Nature. The inventory should involve the flora, fauna, and biodiversity along with values. It should take into account the various stakeholders in the community too.
• Legislation: Although several laws protect wetlands there is no special legislation pertaining specially to these ecosystems. Environment Impact Assessmentneeded for major development projects highlighting threats to wetlands need to be formulated.
• Coordinated approach: Since wetlands are common property with multi-purpose utility, their protection and management also need to be a common responsibility.
• Research: There is a necessity for research in the formulation of national strategy to understand the dynamics of these ecosystems. This could be useful for the planners to formulate strategies for the mitigation of pollution.
• Building awareness: For achieving any sustainable success in the protection of these wetlands, awareness among the general public, educational and corporate institutions must be created.
Conclusion
Communities engage with wetlands in various ways – from seeking livelihoods to spiritual fulfilment. The values community hold for wetlands are expressed in diverse ways. It is important to integrate community linkages in wetlands management planning, and incentivize community stewardship. This is crucial as over 85% of wetlands in India are in the form of village ponds and tanks.
Answer the following questions in 250 words(15 marks each):
General Studies – 1
6. By addressing the root causes of child marriage and implementing targeted interventions, we can create a future where girls are empowered to reach their full potential, free from the harmful effects of early and forced marriage. Discuss.
Reference: Indian Express , Insights on India.
Introduction
Child marriage usually refers to a social phenomenon practiced in some societies in India, where a young child (usually a girl below the age of fifteen) is married to an adult man. A second form of practice of child marriage is that in which the parents of the two children (the girl and boy) arrange a future marriage.
Recent analysis by UNICEF points out that one in three of the world’s child brides live in India. It has also warned India against the increase in child marriages owing to the adversaries of COVID-19.
The factors that encourage its subsistence are usually a combination of poverty, the lack of education, continued perpetration of patriarchal relations that encourage and facilitate gender inequalities, and cultural perspectives that encourage the phenomenon to thrive.
Factors leading to continued prevalence of child marriage in India
• Lack of education: A big determinant of the age of marriage is education. Around 45% of women with no education and 40% with primary education married before the age of 18, according to NFHS-4.
• Seen as a Burden: Economically, child marriages work as mechanisms that are quick income earners. A girl child is seen as a leeway to a large dowry, to be given to her family upon her marriage.
• Poverty: In terms of economic status, women from poor households tend to marry earlier. While more than 30% of women from the lowest two wealth quintiles were married by the age of 18, the corresponding figure in the richest quintile was 8%.
• Social background: Child marriages are more prevalent in rural areas and among Scheduled Castes and Scheduled Tribes.
• Trafficking: Poor families are tempted to sell their girls not just into marriage, but into prostitution, as the transaction enables large sums of money to benefit the girl’s family and harms the girl. There is apathy towards their girls and the money by selling their girls is used for the benefit of their sons
• In recent years, several high courts have opined that child marriage is allowed under personal laws in various communities.
Measures to curb child marriage
Education
• It is one of the most effective strategiesto protect children against marriage.
• When girls are able to stay in school an attitudinal change can also occur towards their opportunities within the community.
Congregating child protection workers:
• One way of keeping a check on child marriages during the pandemicwould be to ensure that there is a strong cohort of child protection workers among essential health workers.
• India has a robust system of grassroots workerswho have done commendable work in ensuring that health and other social security services reach people on in these dire times.
• If such workers were incorporated into the system, they couldkeep a check on girl children at risk of early marriage and take steps to avert these.
• This could be in the form of awareness counsellingand helping some benefits reach the family concerned.
Gender sensitization programs:
• Gender training programs should be spread throughout the district for police and NGOs. Government of India along with organizations like UNICEF and NGOs should make the efforts for the implementation of the convergent national strategy, which includes:
Law enforcement:
• Capacity-building on laws, support mechanisms such as a child marriage telephone hotlineshould be implemented in true letter and spirit. E.g.: Odisha Child Marriage Resistance Forum.
Girls’ empowerment:
• Imparting Life skills, protection skills, higher education and employment opportunitiesshould be ensured to each and every girl child.
• Primary and secondary education for girls should be promoted.
Community mobilization:
• Working with influential leaders, oaths and pledges, counselling, folk and traditional media.
• Government’s partnerships with civil society organizations and communitiesare key to supporting community mobilization efforts and mindset changes and partnerships with the media are very important for raising awareness of child marriage.
Promoting convergence:
• programs and sectors at all levels should be converged, in particular with education and social protection schemes and programmes.
• Government of India has already enacted laws like Child marriage prohibition act 2006 and started many initiatives like Beti Bachao Beti Padhao, Sukanya Samriddhi Yojanato incentivize the people to give equal treatment to their daughters as their sons.
Incentives:
• Conditional Cash Transfer schemesaddresses issues more towards the individual rather than the household, which is the focus of the government.
• Certain national schemes, is, related to maternity benefits and the survival and education of the girl child which addresses the problem of child marriage directly or indirectly. E.g.: Dhanalakshmi, Rajiv Gandhi Scheme for Empowerment of Adolescent girls (SABLA)
• CCTs have benefits of legal protection of the marriage as well as ensuring education of girls.
Conclusion
Transformative and well-resourced measures that increase access to education, health and overall girl’s empowerment will not just help in eliminating child marriage but also lead to the long-term positive health and education outcomes thus help India reach its SDG targets by 2030.
General Studies – 2
7. The demand for reservation arises from historical injustices, social inequalities, and systemic discrimination faced by marginalized communities. While reservation policies aim to address inequalities and promote social justice, they alone cannot eradicate all forms of inequality. Critically analyse.
Reference: Indian Express , Insights on India
Introduction
India’s reservation system, deeply rooted in the country’s age-old caste system, aims to provide equitable access to government jobs, educational institutions, and legislatures for historically disadvantaged sections of the population. Originating as a means of addressing historical injustices based on caste identity, the reservation system operates as a quota-based affirmative action, often referred to as positive discrimination. Governed by government policies backed by the Indian Constitution, it has undergone significant evolution over the years.
Historical Background and Evolution
• Communal Award (1933): British Prime Minister Ramsay Macdonald introduced the “Communal Award,” providing separate electorates for various religious and caste groups, including Dalits. Formalized caste-based reservations, addressing historical injustices.
• British Prime Minister Ramsay Macdonald introduced the “Communal Award,” providing separate electorates for various religious and caste groups, including Dalits.
• Formalized caste-based reservations, addressing historical injustices.
• Post-Independence Expansion: Initially focused on Scheduled Castes (SCs)and Scheduled Tribes (STs). Expanded to include Other Backward Classes (OBCs)in 1991 based on the recommendations of the Mandal Commission. Mandal Commission (1978): Defined socially and educationally backward classes, recommended 27% reservation in government jobs for OBCs.
• Initially focused on Scheduled Castes (SCs)and Scheduled Tribes (STs).
• Expanded to include Other Backward Classes (OBCs)in 1991 based on the recommendations of the Mandal Commission.
• Mandal Commission (1978): Defined socially and educationally backward classes, recommended 27% reservation in government jobs for OBCs.
• Constitutional Amendments and Supreme Court Verdicts: 77th, 81st, and 85th Amendmentsintroduced provisions for reservation in promotions, consequential seniority, and unfilled vacancies for SCs/STs. Landmark Cases: State of Madras v. Smt. Champakam Dorairajan and Indra Sawhney v. Union of India shaped the scope and extent of reservation policies.
• 77th, 81st, and 85th Amendmentsintroduced provisions for reservation in promotions, consequential seniority, and unfilled vacancies for SCs/STs.
• Landmark Cases: State of Madras v. Smt. Champakam Dorairajan and Indra Sawhney v. Union of India shaped the scope and extent of reservation policies.
Impact of Reservation
• Resource Allocation: Positive: Provides historically marginalized groups access to educational institutions and jobs. Enhances human capital development. Negative: May lead to inefficiencies if merit is compromised. Allocation of resources based on quotas can hinder overall productivity. Social Harmony: Positive: Fosters inclusion and representation. Breaks down barriers, promotes diversity. Negative: Can create resentment among non-reserved categories. Sometimes perpetuates caste divisions. Economic Efficiency: Positive: Diverse workforce brings varied perspectives. Inclusion leads to innovation and creativity. Negative: Merit-based selection may suffer. Creamy layer exclusion is essential to maintain efficiency.
• Positive: Provides historically marginalized groups access to educational institutions and jobs. Enhances human capital development.
• Provides historically marginalized groups access to educational institutions and jobs.
• Enhances human capital development.
• Negative: May lead to inefficiencies if merit is compromised. Allocation of resources based on quotas can hinder overall productivity.
• May lead to inefficiencies if merit is compromised.
• Allocation of resources based on quotas can hinder overall productivity.
• Social Harmony: Positive: Fosters inclusion and representation. Breaks down barriers, promotes diversity. Negative: Can create resentment among non-reserved categories. Sometimes perpetuates caste divisions. Economic Efficiency: Positive: Diverse workforce brings varied perspectives. Inclusion leads to innovation and creativity. Negative: Merit-based selection may suffer. Creamy layer exclusion is essential to maintain efficiency.
• Positive: Fosters inclusion and representation. Breaks down barriers, promotes diversity.
• Fosters inclusion and representation.
• Breaks down barriers, promotes diversity.
• Negative: Can create resentment among non-reserved categories. Sometimes perpetuates caste divisions.
• Can create resentment among non-reserved categories.
• Sometimes perpetuates caste divisions.
• Economic Efficiency: Positive: Diverse workforce brings varied perspectives. Inclusion leads to innovation and creativity. Negative: Merit-based selection may suffer. Creamy layer exclusion is essential to maintain efficiency.
• Positive: Diverse workforce brings varied perspectives. Inclusion leads to innovation and creativity.
• Diverse workforce brings varied perspectives.
• Inclusion leads to innovation and creativity.
• Negative: Merit-based selection may suffer. Creamy layer exclusion is essential to maintain efficiency.
• Merit-based selection may suffer.
• Creamy layer exclusion is essential to maintain efficiency.
Role in Reducing Inequalities
• Potential: Social Upliftment: Provides opportunities to historically oppressed communities. Elevates socio-economic status. Political Empowerment: Increases representation in legislatures. Amplifies voices of marginalized groups. Limitations: Creamy Layer Issue: Well-off individuals within reserved categories benefit disproportionately. Merit vs. Quota Debate: Balancing meritocracy and social justice is challenging. Some argue that reservations should be based on economic criteria rather than caste. Resource Constraints: Limited resources may hinder effective implementation.
• Social Upliftment: Provides opportunities to historically oppressed communities. Elevates socio-economic status.
• Provides opportunities to historically oppressed communities.
• Elevates socio-economic status.
• Political Empowerment: Increases representation in legislatures. Amplifies voices of marginalized groups.
• Increases representation in legislatures.
• Amplifies voices of marginalized groups.
• Limitations: Creamy Layer Issue: Well-off individuals within reserved categories benefit disproportionately. Merit vs. Quota Debate: Balancing meritocracy and social justice is challenging. Some argue that reservations should be based on economic criteria rather than caste. Resource Constraints: Limited resources may hinder effective implementation.
• Creamy Layer Issue: Well-off individuals within reserved categories benefit disproportionately.
• Well-off individuals within reserved categories benefit disproportionately.
• Merit vs. Quota Debate: Balancing meritocracy and social justice is challenging. Some argue that reservations should be based on economic criteria rather than caste.
• Balancing meritocracy and social justice is challenging.
• Some argue that reservations should be based on economic criteria rather than caste.
• Resource Constraints: Limited resources may hinder effective implementation.
• Limited resources may hinder effective implementation.
Balanced Opinion
While reservations have undoubtedly played a crucial role in addressing historical injustices and promoting social inclusion, they are not a panacea. A balanced approach involves:
• Targeted Interventions: Focus on economically weaker sections rather than solely caste-based reservations.
• Merit-Based Selection: Ensure that merit is not compromised.
• Holistic Development: Combine reservations with skill development and education.
• Regular Review: Periodic evaluation to assess effectiveness and address shortcomings.
Conclusion
Reservations are a necessary tool for social justice, but their design and implementation require constant scrutiny and adaptation to meet the evolving needs of an inclusive society.
8. By implementing effective regulatory measures, the government can foster a safer, more inclusive, and responsible online gaming environment that maximizes the benefits of gaming while mitigating potential risks and harms. Evaluate.
Reference: The Hindu
Introduction
Online gaming refers to video games/mobile games that are played over the internet through various devices. E.g., multiplayer online battle arena (MOBA) games, first-person shooter (FPS) games, massively multiplayer online role-playing games (MMORPGs), and many others.
The Prime Minister’s vision to establish India as a prominent global gaming hub has received renewed attention as he engaged with seven of the top gamers in the country. However, collective actions, including responsible gaming initiatives and measures for ensuring privacy and data security, are essential.
Types of online gaming:
• e-sports (well-organized electronic sports which include professional players),
• Fantasy sports
• Casual games: these can be either skill-based (mental skill) or chance based (based on a random activity like a roll of a dice) online games.
Issues with online gaming
Issues with Online Gaming | Description
Addiction | Online gaming addiction can lead to physical and psychological harm, as well as interfere with daily life activities. Gambling addiction: Online gambling games can lead to addiction and financial problems.
Cyberbullying | Online gaming can involve communication with other players through chat or voice features, which can lead to cyberbullying and harassment.
Security risks | Online gaming platforms are at risk of cyber-attacks and data breaches, which can result in compromised personal and financial information.
Inappropriate content | It can contain violent, sexual, or other inappropriate content that is not suitable for all ages.
Ethical Concerns | It can perpetuate negative stereotypes and biases, particularly towards marginalized groups; In-game purchases can lead to overspending or exploiting vulnerable individuals
Cheating and hacking | It can be prone to cheating and hacking, which can ruin the gameplay experience for others.
Physical and health issues | Long periods of sitting and staring at a screen can cause physical health problems such as eyestrain, back pain, and carpal tunnel syndrome.
Social isolation | Excessive online gaming can lead to social isolation and a lack of face-to-face communication with others.
Gambling addiction: Online gambling games can lead to addiction and financial problems.
Measures needed
• There is an urgent need for robust regulation in the online gaming industry. Attempts by some state governments to ban online gaming face challenges due to the cross-border nature of the internet.
• The Online Gaming (Regulation) Bill, 2022, introduced as aPrivate Members Bill, should be reformed and adopted by the Parliament.
• TheInformation Technology (Intermediary Guidelines and Digital Media Ethics Code) Rules, 2021, marked a commendable step towards oversight in the online gaming industry.
• However, the delayed notification of Self-Regulatory Bodies has slowed progress, emphasising the need for strict regulation to protect the large gaming population in India.
• Establishing a framework is urgent not only for protecting digital citizens and national interests but also for ensuring the responsible growth of the online gaming sector.
• The focus should be on harm reduction, player protection, and the overall well-being of society.
• The regulatory framework should be compliant with the data privacy norms as per Digital India Act, 2023and Information Technology Act, 2000.
Way forward
• Clear and consistent regulations, responsible gaming measures, industry self-regulation, public awareness campaigns, and collaboration between industry and government can all help to create a sustainable and responsible online gaming industry in India.
• The UK model for online gaming regulation involves a centralized government regulator that enforces strict measures to ensure player protection.
• Quarterly reports on regulatory effects are published, imposing significant fineson operators violating player protection requirements.
• This strict enforcement, coupled with harm reduction efforts, has led to a decline in disordered gaming and risky behaviour
Conclusion
The online gaming industry in India can continue to grow and provide entertainment and employment opportunities while also protecting players and promoting responsible gaming practices
General Studies – 3
9. Artificial intelligence (AI) offers significant potential to enhance climate resilience. Integrating AI into interdisciplinary approaches is crucial for building holistic and adaptive responses to climate change. Critically analyse.
Reference: Live Mint
Introduction
AI is already significantly impacting climate change strategies. At the recent COP28, NASA and IBM announced that an Artificial Intelligence (AI) tool would be available on the open-source AI platform. This will help users monitor the Earth from space, measuring environmental changes. The model can help scientists estimate the past and future extent of wildfires, floods, and urban heat maps.
AI and climate change
Application | Description | Example
Deforestation monitoring | Deforestation and land use changes cause more than 10% of global greenhouse gas emissions. Using AI to monitor forest sounds and detect illegal logging | Non-profit organization the Rainforest Connection’s “Guardian” devices, which attach acoustic monitoring sensors to trees to detect sounds associated with illegal logging
Carbon footprint reduction in the industry | Using AI to optimize industrial processes and reduce carbon emissions | Fero Labs’ AI-driven optimization software, which reduces the amount of mined ingredients used in steel production
Energy efficiency in buildings | Using AI to optimize heating, ventilation, and air conditioning systems in buildings | Arup’s Neuron app, which uses IoT sensors to gather data on building energy usage and optimize HVAC systems
Wildlife conservation | Using AI to monitor and protect endangered species | Rouxcel Technology’s AI-enabled bracelets for rhinos, monitor their movements and alert authorities to potential threats
Smart agriculture | Using AI to optimize farming processes and reduce waste | John Deere’s AI-powered system, which optimizes planting, irrigation, and fertilization for crops
Climate modelling | Using AI to make predictions about climate patterns and inform climate policy | The UK’s Met Office, which uses AI to model climate patterns and inform government policy on climate change
Renewable energy management | Using AI to manage and optimize renewable energy sources | IBM’s Watson Energy, which uses AI to optimize the performance of wind and solar energy systems
AI and Climate Change usecases
• In the transportation industry, AI-enabled vehicles can minimise energy use by mapping and identifying the most efficient routes.
• Farmers can optimise crop irrigation, reducing water wastage and leading to more productive harvests.
• In India, AI-equipped peanut farmers have already witnessed a 30 per cent increase in yield.
• AI may also be used to cut emissions and the impacts of greenhouse gases, and remove already existing emissions from the environment.
• In Africa, AI is being used in a United Nations project to help communities vulnerable to climate change in Burundi, Chad and Sudan.
• AI is being used in the metal and mining, oil, and gas industries to decarbonize their operations
Challenges in the use of AI for tackling climate change
Challenge | Example
Data quality and quantity | AI models require high-quality data to perform accurately, and the availability of large and diverse datasets can be limited
Bias in data and algorithms | For example, an AI system that recommends conservation areas to protect might not account for cultural significance or indigenous knowledge.
Interpretability | E.g., it may be challenging to understand how a deep learning model classifies satellite images to detect deforestation.
Scalability and deployment | E.g., deploying sensors to collect environmental data in remote locations or deploying drones to monitor wildlife may require significant investment.
Ethical considerations | E.g., the use of facial recognition technology to monitor endangered species could violate the privacy of individuals visiting conservation areas.
Conclusion
AI is a powerful tool that, when used appropriately, can help address some of the most pressing climate change challenges facing our planet. By leveraging the strengths of AI and addressing the challenges it presents, we can develop sustainable and innovative solutions for a better future.
10. Military education and academic preparation are of paramount importance in enabling military leaders in the country to effectively navigate complex security challenges of the modern day. Critically analyse the scenario of military education and steps that are needed to make it robust and effective.
Reference: The Hindu
Introduction
Military education plays a pivotal role in shaping competent leaders who can effectively address the complexities of modern security challenges. However, several issues hinder its effectiveness.
In India’s own neighbourhood, it is reported that Pakistan has created two universities for its armed forces, while China has three, although a report of the Australian Strategic Policy Institute lists more than 60 Chinese universities with military and security links. In this context, the absence of the long overdue Indian Defence University (IDU) is concerning.
Importance of Military Education:
• Foundation for Effective Leadership: Military education equips officers with essential skills, knowledge, and discipline to execute missions and safeguard their comrades. It also fosters leadership abilities critical for success in the armed forces.
• Intellectual Architecture for Battlefield Success: Rigorous education provides the intellectual framework necessary for effective military operations. It contributes to stable civil-military relations, critical analysis, and reflective practices.
Challenges Faced by Military Education:
• Tactical Bias: India’s Professional Military Education (PME) system predominantly emphasizes tactical aspects, neglecting strategic studies. Senior leaders lack exposure to broader perspectives, hindering their ability to provide qualitative advice at the strategic level.
• Technology Over Humanities: PME prioritizes technology over humanities, missing the holistic understanding required for effective decision-making.
• Lack of Interdisciplinary Perspectives: Military education often fails to incorporate interdisciplinary viewpoints, essential for addressing multifaceted security challenges.
• Traditional Warfare Focus: The curriculum remains fixated on conventional warfare, overlooking the changing nature of conflicts and hybrid threats.
Steps to Enhance Military Education:
• Operationalize the Indian Defence University (IDU): The IDU, long overdue, must become fully functional. It should serve as a hub for academic excellence, fostering strategic thinking and joint warfighting capabilities. IDU’s syllabi should be reviewed to strike a balance between technology and humanities, evolving from an initial focus on technology to senior-level emphasis on broader perspectives.
• The IDU, long overdue, must become fully functional. It should serve as a hub for academic excellence, fostering strategic thinking and joint warfighting capabilities.
• IDU’s syllabi should be reviewed to strike a balance between technology and humanities, evolving from an initial focus on technology to senior-level emphasis on broader perspectives.
• Broad-Based Education: PME must recognize that military activity occurs within a constellation of forces. A comprehensive education system should incorporate diverse perspectives beyond combat. Autonomy within the military sphere has diminished, necessitating a broader vision that aligns with political, social, and cultural contexts.
• PME must recognize that military activity occurs within a constellation of forces. A comprehensive education system should incorporate diverse perspectives beyond combat.
• Autonomy within the military sphere has diminished, necessitating a broader vision that aligns with political, social, and cultural contexts.
Way Forward
• Faculty Development: Recruit a multi-disciplinary faculty capable of imparting strategic insights. Blend civilian and military expertise to enhance teaching quality.
• Recruit a multi-disciplinary faculty capable of imparting strategic insights.
• Blend civilian and military expertise to enhance teaching quality.
• Curriculum Evolution: Shift from technology-centric early stages to humanities-focused senior levels. Incorporate critical approaches to address self-propagating wartime dynamics.
• Shift from technology-centric early stages to humanities-focused senior levels.
• Incorporate critical approaches to address self-propagating wartime dynamics.
• Strategic Vision: IDU should foster a multifaceted understanding of political, social, and cultural landscapes. Prepare officers to navigate complex security challenges, considering media scrutiny and heightened political sensitivity.
• IDU should foster a multifaceted understanding of political, social, and cultural landscapes.
• Prepare officers to navigate complex security challenges, considering media scrutiny and heightened political sensitivity.
Conclusion
India’s military prowess hinges on robust education. By operationalizing the IDU and recalibrating PME, we can equip leaders to excel in an ever-changing security landscape. In this pursuit, we must remember Thucydides’ wisdom: “A nation which makes a distinction between its scholars and its warriors will have its thinking done by cowards and its fighting done by fools.”
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