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GS Paper: GS3

  • India and the US-China chips war

    Central Idea

    • The recent visit of Prime Minister Narendra Modi to Washington DC has solidified the US-India technology partnership, marking technology as the new frontier in geopolitics. One crucial aspect of this partnership is the joint commitment to diversify the global semiconductor supply chain, which lies at the heart of the rivalry between the United States and China. This op-ed examines the significance of this collaboration and its potential implications for India’s semiconductor industry.

    *Relevance of the topic

    *India Semiconductor Mission (ISM) builds a vibrant semiconductor and display ecosystem to enable India’s emergence as a global hub for electronics manufacturing and design

    Semiconductors: The New Strategic Resource

    • Technological Dependence: Semiconductors are essential components in various advanced technologies, including smartphones, computers, artificial intelligence, and defence systems. Countries heavily rely on these technologies for economic growth, national security, and global competitiveness.
    • Critical Infrastructure: Semiconductors are considered critical infrastructure due to their role in powering and enabling essential sectors such as telecommunications, energy, transportation, healthcare, and finance. Disruptions in semiconductor supply chains can have far-reaching consequences.
    • Limited Manufacturing Capability: Only a few countries possess the advanced manufacturing capabilities required to produce semiconductors. These manufacturing processes involve complex fabrication plants and specialized equipment, making it difficult for new entrants to establish a foothold in the industry.
    • Global Supply Chain: The semiconductor industry relies on a global supply chain, with various stages of production taking place in different countries. Certain regions, such as Taiwan, South Korea, and the United States, play a dominant role in semiconductor fabrication, assembly, and testing.
    • National Security Concerns: The control and security of semiconductor supply chains have become matters of national security for many countries. Dependence on foreign sources for critical technologies raises concerns about vulnerabilities, potential disruptions, and the risk of compromising sensitive information.
    • Economic Competitiveness: Semiconductors contribute significantly to a country’s economic competitiveness. Advanced semiconductor industries can attract high-value investments, foster innovation, and create skilled job opportunities, contributing to economic growth and technological leadership.
    • Technological Sovereignty: Countries view the development of indigenous semiconductor capabilities as crucial for technological sovereignty and reducing dependence on external sources. Achieving self-sufficiency in semiconductor manufacturing enables greater control over technological advancements and mitigates potential risks.

    India-US iCET Initiative

    • Announcement: The India-US Initiative on Critical and Emerging Technologies (iCET) was announced during the Quad summit held in Tokyo in 2022. It reflects the shared commitment of India and the United States to enhance cooperation in critical and emerging technologies.
    • Areas of Cooperation: The iCET initiative focuses on fostering collaboration between India and the United States in various domains, including semiconductor technology, resilient supply chains, cybersecurity, artificial intelligence, and other critical and emerging technologies.
    • Bilateral Engagement: The iCET initiative involves regular bilateral engagements between India and the United States to discuss and advance cooperation in the identified areas. High-level officials, including National Security Advisers and counterparts from relevant ministries, participate in these discussions.
    • Semiconductor Collaboration: Within the iCET framework, India and the United States have expressed a commitment to collaborate in the development of a semiconductor design, manufacturing, and fabrication ecosystem in India. The aim is to enhance India’s capabilities in the semiconductor sector and promote the growth of a skilled workforce.
    • Skill Development and Workforce: The iCET initiative also emphasizes the importance of skill development and workforce training in critical and emerging technologies. India and the United States seek to promote the development of a skilled talent pool capable of driving innovation and contributing to the growth of these sectors.

    US-China rivalry in the context of semiconductor chips

    • Technological Leadership: Both the US and China recognize the strategic importance of semiconductor chips in driving innovation and economic growth. The United States has long been a leader in semiconductor design and manufacturing, while China has made significant efforts to catch up and become more self-sufficient in chip production.
    • Intellectual Property Concerns: Intellectual property theft and forced technology transfer have been areas of concern in the US-China rivalry regarding semiconductor chips. The US accuses China of engaging in unfair practices to acquire advanced chip technologies and intellectual property, undermining the competitiveness of American semiconductor companies.
    • Trade Tensions: The US-China trade tensions have had a significant impact on the semiconductor industry. The US government-imposed restrictions on Chinese technology companies like Huawei, limiting their access to American-made chips and semiconductor equipment. This has had implications for China’s domestic chip manufacturing capabilities.
    • Export Controls: The United States has tightened export controls on semiconductor-related technologies to prevent their transfer to China, citing national security concerns. These controls have restricted Chinese access to advanced chip-making equipment and technologies, impacting China’s ability to develop its semiconductor industry.
    • Self-Sufficiency Goals: Both the US and China have set goals to enhance their self-sufficiency in semiconductor chips. The US has aimed to bolster domestic chip manufacturing capabilities, reduce reliance on foreign suppliers, and secure its supply chain. China’s Made in China 2025 plan emphasizes developing indigenous semiconductor technologies to become a global leader in chip production.
    • Geopolitical Implications: The semiconductor industry’s geopolitical implications are significant. Control over chip technologies and supply chains can provide a country with economic advantages, technological superiority, and potential leverage in trade disputes or geopolitical conflicts. The US and China view the semiconductor industry as crucial for maintaining their global influence and national security.

    India’s Semiconductor Challenge

    • Lack of Domestic Manufacturing: India has limited domestic semiconductor manufacturing capabilities. The country heavily relies on imports to meet its demand for semiconductors, which poses challenges in terms of supply chain vulnerabilities, dependence on foreign suppliers, and potential risks to national security.
    • Absence of Chip Ecosystem: Building a complete chip ecosystem involves not only semiconductor manufacturing but also the development of ancillary industries, specialized infrastructure, and a skilled workforce. India currently lacks a comprehensive chip ecosystem, which is crucial for attracting investments and fostering innovation in the semiconductor industry.
    • Power and Water Supply: Semiconductor manufacturing requires uninterrupted and uninterruptible power supply, as well as a steady and ample supply of pure water. India faces challenges in providing 24×7 power and water supply, which are critical infrastructure requirements for establishing semiconductor fabrication plants (fabs).
    • Skill Gap: Developing a skilled workforce for the semiconductor industry is essential but poses a challenge in India. The complex nature of chip manufacturing requires specialized expertise, and India needs to bridge the skill gap by investing in training programs, educational institutions, and research and development initiatives.
    • Investment and Collaboration: Attracting major international chip makers to establish fabrication plants in India has proven to be challenging. While the government has allocated funds for the semiconductor industry and incentivized investments, India needs to enhance its value proposition to attract big players and forge international collaborations.
    • Regulatory Framework: Creating a favorable regulatory environment, including policies, intellectual property rights protection, and ease of doing business, is crucial for the growth of the semiconductor industry. India needs to address regulatory challenges and provide a supportive framework to encourage investments and foster innovation.
    • Free Trade Agreements: India’s reluctance to enter into free trade agreements, such as with Taiwan, has hindered its efforts to attract major chip manufacturers. Such agreements can provide advantages in terms of technology transfer, market access, and attracting investments from established players

    Way ahead

    • Strengthen Domestic Manufacturing: India should continue to invest in semiconductor fabrication plants (fabs) and create a conducive environment for both domestic and foreign companies to establish semiconductor manufacturing facilities. This requires robust infrastructure, reliable power supply, access to advanced equipment, and a favorable regulatory framework.
    • Skill Development and Research: The focus on skill development should continue, with emphasis on nurturing a skilled workforce specialized in chip design, manufacturing, and fabrication. Collaborations between industry and academia can play a crucial role in promoting research and development, knowledge sharing, and fostering innovation in the semiconductor field.
    • Strategic Partnerships: India should actively pursue strategic partnerships and collaborations with global semiconductor companies, industry associations, and research institutions. These partnerships can facilitate technology transfer, access to advanced manufacturing processes, and market opportunities. Government incentives and support can further encourage international players to invest in India’s semiconductor ecosystem.
    • Enable Ancillary Industries: To create a comprehensive chip ecosystem, India needs to develop ancillary industries that support the semiconductor sector. This includes nurturing electronics manufacturing capabilities, promoting indigenous demand for chips, and fostering a supportive environment for related industries, such as packaging, testing, and materials.
    • Policy Reforms: The Indian government should continue to focus on policy reforms that promote a favorable business environment for the semiconductor industry. This includes streamlining regulatory processes, protecting intellectual property rights, improving ease of doing business, and providing incentives for research, development, and investment in the semiconductor sector.
    • International Collaborations: Strengthening collaborations within the Quad framework, particularly with the United States, Japan, and Australia, can provide access to expertise, technology, and market opportunities. Engaging with other semiconductor-rich countries, such as Taiwan, South Korea, and Israel, can also open avenues for knowledge sharing, partnerships, and technology transfer.

    Conclusion

    • The US-India technology partnership, with a focus on diversifying the semiconductor supply chain, holds immense potential for India’s growth in the industry. While India faces challenges in establishing a robust chip ecosystem, investments from companies like Micron Technology, along with collaborative initiatives, can pave the way for a more self-reliant and technologically advanced India. By positioning itself in the global chip war, India has embarked on a journey that promises to shape its technological landscape and strengthen its ties with the United States.

    Also read:

    India’s Push for Semiconductors

     

  • Aspartame: the Carcinogenic additive in Diet Cola

    aspartame

    Central Idea

    • The cancer research arm of the World Health Organization (WHO) is reportedly considering listing aspartame, a popular sugar substitute ‘Aspartame’ as “possibly carcinogenic to humans.”
    • This potential listing by the International Agency for Research on Cancer (IARC) has generated controversy as it contradicts previous studies that found no evidence linking aspartame to cancer.

    What is Aspartame?

    • Aspartame is widely used as an artificial sweetener in various food and beverage products.
    • It is made from the dipeptide of two amino acids, L-aspartic acid and L-phenylalanine.
    • It is approximately 200 times sweeter than table sugar and is commonly used in diet soft drinks, sugar-free gum, and other sugar-free products.
    • It is favored by those seeking to reduce calorie intake or manage diabetes.

    Safety Record and Regulatory Approvals

    • Aspartame has undergone extensive studies over 40 years, with over 100 studies finding no evidence of harm caused by its consumption.
    • The US Food and Drug Administration (FDA) has permitted its use in food since 1981, and it has been reviewed multiple times for safety.
    • The European Food Safety Authority (EFSA), as well as national regulators in various countries, also deem aspartame safe for consumption.
    • However, individuals with phenylketonuria (PKU), a rare genetic disorder, should avoid aspartame due to the presence of phenylalanine.

    Controversies and Impact of WHOs Listings

    • Past IARC rulings have raised concerns, led to lawsuits, and influenced manufacturers to seek alternatives due to public confusion.
    • The potential listing of aspartame as “possibly carcinogenic” by the IARC contradicts previous scientific consensus on its safety.
    • Critics argue that IARC assessments can be confusing to the public and may create unnecessary fear and misinformation.

  • Neutrinos: the Ghost Particles detected for first time

    neutrino

    Central Idea

    • The IceCube Neutrino Observatory, a gigaton detector located at the Amundsen-Scott South Pole Station, has achieved a significant scientific breakthrough by producing an image of the Milky Way using neutrinos.
    • Neutrinos are minuscule particles and serve as ghostlike astronomical messengers.

    IceCube Neutrino Observatory  

    • The IceCube Neutrino Observatory is a unique detector encompassing a cubic kilometer of Antarctic ice with over 5,000 light sensors.
    • It detects high-energy neutrinos, which possess energies millions to billions of times higher than those produced by stellar fusion reactions.

    What are Neutrinos?

    • Neutrinos are fundamental particles in the Standard Model of particle physics.
    • They belong to the family of elementary particles called leptons, which also includes electrons and muons.
    • Neutrinos have extremely low mass, and they interact very weakly with matter, making them challenging to detect.

    Properties of Neutrinos
    Electric Charge Electrically Neutral
    Mass Extremely Low (Exact Masses Not Known)
    Flavors Electron Neutrino, Muon Neutrino, Tau Neutrino
    Interaction Weak Interaction
    Speed Close to the Speed of Light
    Spin Fermion, Half-Integer Spin
    Neutrino Oscillations Neutrinos Change Flavor during Travel
    Interactions Very Weak Interaction with Matter
    Abundance Among the Most Abundant Particles in the Universe
    Cosmic Messengers Can Carry Information from Distant Cosmic Sources

     

    Neutrino Emission from the Milky Way

    • The IceCube Collaboration’s research reveals evidence of high-energy neutrino emission from the Milky Way.
    • This emission, unlike light, allows researchers to observe the universe beyond nearby sources within our galaxy.
    • The detection of neutrinos from the galactic plane of the Milky Way confirms its status as a source of cosmic rays and high-energy particles.

    Challenges and Breakthroughs

    • Detecting neutrinos from the Milky Way’s southern sky presented challenges due to background interference from cosmic-ray interactions with Earth’s atmosphere.
    • IceCube researchers developed advanced data analysis techniques, including machine learning algorithms, to identify and analyze neutrino events.
    • These methods improved the identification of neutrino cascades and enhanced the accuracy of energy and direction reconstruction.

    Implications and Future Prospects

    • The study utilized 60,000 neutrinos from ten years of IceCube data, providing a more comprehensive analysis than previous studies.
    • The research confirms the Milky Way as a source of high-energy neutrinos, leading to further investigations to identify specific sources within the galaxy.
    • Neutrino astronomy offers a unique perspective to explore the universe, complementing traditional observations using light.

  • Centre puts norms against ‘Dark Patterns’ in Online Ads

    dark pattern

    Central Idea

    • The Department of Consumer Affairs (DoCA) and the Advertising Standards Council of India (ASCI) have joined forces to tackle unethical advertising practices in India.
    • Within the next two months, the authorities plan to release guidelines to combat dark patterns in Indian advertising.

    Understanding Dark Patterns

    • Dark patterns are manipulative marketing techniques that deceive customers through unethical practices.
    • They encompass a wide range of tactics, including creating false urgency, employing subscription traps, and sneaking items into the checkout basket, using disguised advertising, and manipulating prices during checkout.

    Types of dark patterns advertising

    • Disguised ads: Presenting advertisements in a way that makes them look like regular content or organic recommendations, deceiving users into engaging with promotional material unknowingly.
    • False urgency: Creating a sense of urgency by displaying countdown timers, limited-time offers, or stock availability to pressure consumers into making quick decisions without fully considering their options.
    • Sneak into basket: Adding additional products or services to the shopping cart without the user’s explicit consent or knowledge, often through pre-selected checkboxes or hidden options.
    • Hidden costs: Concealing or downplaying additional fees, charges, or subscriptions until the final stages of the checkout process, misleading consumers about the actual cost of a product or service.
    • Confirm-shaming: Using manipulative language or guilt-tripping tactics to pressure users into taking a specific action they may not want to, such as subscribing to newsletters or sharing personal information.
    • Roach motel: Making it easy for users to sign up for a service but intentionally creating barriers or complexities when they try to cancel or unsubscribe, making it difficult for them to leave.

    Consequences of such ads

    Dark patterns can lead to unintended purchases, addiction and overuse of products or services, and privacy violations.

    • Unintended purchases: Dark patterns can manipulate consumers into making purchases they did not intend to make, leading to unnecessary expenses and financial strain.
    • Addiction and overuse: Some dark patterns are designed to create addictive behaviors, keeping consumers engaged with a product or service beyond what is healthy or necessary.
    • Privacy violations: Dark patterns may deceive consumers into unknowingly sharing sensitive personal information, compromising their privacy and leaving them vulnerable to data breaches or identity theft.
    • Psychological manipulation: Dark patterns exploit cognitive biases and psychological vulnerabilities to manipulate consumer behavior, leading to decisions that are not based on informed choices but rather on emotional manipulation.

    Why discuss this?

    • Rapid growth of the Indian online space: The substantial expansion of the online sector in India raises concerns about the potential harm caused by dark patterns.
    • Dominance of digital platforms: With digital platforms becoming the primary source of information, goods, and services for consumers, the manipulation of UI/UX design and online choice architecture can significantly impact consumer well-being.

    Industry’s Role in Self-Regulation

    • Importance of self-regulation: The consensus among stakeholders is that self-regulation within the industry is crucial to effectively address and counter dark patterns.
    • Sectors to self-regulate: Various sectors, including online shopping, e-ticketing, restaurants, and travel, can adopt self-regulatory measures.

    Way forward

    • Providing tools for informed choices: Stakeholders suggested equipping users with browser extensions that can help detect and block dark patterns, enabling them to make more informed decisions.
    • Encouraging reporting: Users are encouraged to report instances of dark patterns, and efforts will be made to raise awareness among small and medium-scale merchants about these deceptive practices.
    • Consensus on self-regulation: All stakeholders unanimously agreed that industry self-regulation plays a pivotal role in countering deceptive online practices and protecting consumers’ interests.
    • Commitment to consumer protection: The meeting concluded with a commitment to continue exploring ways to counter dark patterns and safeguard consumer rights and interests.

  • Places in news: Debrigarh Wildlife Sanctuary

    debrigarh

    Central Idea

    • Debrigarh, a wildlife sanctuary in Odisha’s Bargarh district, has achieved a significant milestone by becoming completely free of any human settlement.

    Debrigarh Wildlife Sanctuary

    • Geographic Position: The Debrigarh Wildlife Sanctuary is located in the Bargarh district of Odisha, near the city of Sambalpur and adjacent to the Hirakud Dam.
    • Total Area: The sanctuary spans a total area of 346.91 km2, providing ample space for the preservation of wildlife and their natural habitats.
    • Flora and Fauna: The sanctuary boasts a diverse range of flora and fauna, including over 40 species of mammals, 200 species of birds, 40 species of reptiles, 12 species of amphibians, 42 species of fishes, 39 species of odonates, 85 species of butterflies, and 38 species of spiders.
    • Aquatic Biodiversity: The sanctuary’s unique feature is its support for both terrestrial and aquatic biodiversity. The presence of the Hirakud reservoir contributes to the sanctuary’s appeal, attracting numerous migratory waterfowl during winter.
    • Medicinal flora: The sanctuary is home to over 250 plant species, many of which hold significant ethnobotanical and medicinal value.

    Why in news?

    • Peaceful rehabilitation: Debrigarh stands out as one of the few wildlife sanctuaries in Odisha where human settlements have been completely removed.
    • Voluntary Relocation: The relocation of 400 families was carried out through a series of consultations, without the use of force.
    • Exceptional Cases: Debrigarh joins Nalabana Bird Sanctuary in Chilika Lake as an exceptional example of wildlife sanctuaries without permanent human settlements.

    Positive Impact on Wildlife Conservation

    • Reduction in Conflict: The relocation has immediately resulted in a tangible drop in man-wildlife conflicts within the 353.81 sq. km Debrigarh wildlife sanctuary.
    • Tiger Incursion Example: The sanctuary’s inviolability was recently demonstrated when a tiger from neighboring Chhattisgarh crossed over into Debrigarh.
    • Preservation of Habitat: Removing human settlements from critical wildlife sanctuaries ensures the preservation and protection of biodiversity.

    Benefits to Villagers and Sanctuary

    • Improved Living Conditions: The relocation was necessary as the villagers lacked access to basic facilities such as electricity, healthcare, and education.
    • Compensation: Each eligible family received ₹15 lahks as compensation for their voluntary relocation, ensuring their well-being in new settlements.
    • Win-Win Situation: The relocation serves the interests of both the villagers, who gain access to better facilities, and the sanctuary, which is now free from human settlements.

  • GMRT: India’s Largest Radio Telescope  

    gmrt

    Central Idea

    • India’s Giant Metrewave Radio Telescope (GMRT) is part of an international effort involving six large telescopes.
    • The telescopes have provided evidence confirming the presence of gravitational waves through pulsar observations.

    Giant Metrewave Radio Telescope (GMRT)

    • The GMRT is an array of thirty fully steerable parabolic radio telescopes located near Narayangaon, Pune, in India.
    • It is renowned as the world’s largest and most sensitive radio telescope array operating at low frequencies.
    • It is operated by the National Centre for Radio Astrophysics (NCRA), a part of the Tata Institute of Fundamental Research, Mumbai.
    • It has made significant contributions to the field of astronomy since its construction under the guidance of Late Prof. Govind Swarup between 1984 and 1996.
    • The recent upgrade of the GMRT has further enhanced its capabilities, earning it the name “upgraded Giant Metrewave Radio Telescope” (uGMRT).

    Location and Specifications

    • Location: The GMRT Observatory is situated approximately 80 km north of Pune, near Khodad, with the town of Narayangaon just 9 km away. The NCRA office is located within the Savitribai Phule Pune University campus.
    • Telescope Array: The GMRT consists of thirty fully steerable parabolic radio telescopes, each with a diameter of 45 meters.
    • Interferometry Array: The telescopes are configured in an interferometric array with baselines of up to 25 kilometres, allowing for precise and detailed observations.

    Science and Observations

    • Galaxy Formation and 21-cm Line Radiation: The GMRT was designed to search for highly redshifted 21-cm line radiation from primordial neutral hydrogen clouds, enabling the determination of the epoch of galaxy formation in the universe.
    • Diverse Astronomical Objectives: Astronomers from around the world utilize the GMRT for studying a wide range of celestial objects, including HII regions, galaxies, pulsars, and supernovae, as well as the Sun and solar winds.

    Remarkable Discoveries

    • Most Distant Galaxy: In August 2018, the GMRT discovered the most distant known galaxy, located 12 billion light-years away.
    • Ophiuchus Supercluster Explosion: In February 2020, the GMRT played a crucial role in observing the largest explosion ever recorded in the universe, the Ophiuchus Supercluster explosion.
    • Radio Signal from the Distant Universe: In January 2023, the GMRT detected a radio signal originating from 8.8 billion light-years away, specifically a fast radio burst (FRB) known as FRB 2023L.

    Recent Observations

    • Time Aberrations: The team observed time aberrations in the signals emitted by pulsars, indicating the possible presence of gravitational waves.
    • Galactic-Scale Gravitational Wave Detector: Scientists distributed ultra-stable pulsar clocks across the Milky Way to create a virtual detector sensitive to gravitational wave signals.
    • Arrival Time Variations: The arrival times of signals from pulsars were affected by the presence of gravitational waves, causing slight delays or advances.

    Significance of the Findings

    • Humming Signals: Nano-hertz signals caused by gravitational waves were detected, leading to the identification of their presence in the universe.
    • Opening a New Window: The team’s results represent a significant milestone in exploring the gravitational wave spectrum, providing new insights into astrophysics.
    • Sensitivity and Timeframe: Detecting these elusive nano-hertz gravitational waves requires sensitive telescopes like GMRT and long-term observations due to their slow variations.

  • Centre identifies 30 Critical Minerals: Why, how, and importance of the exercise

    critical

    Central Idea

    • The Ministry of Mines has strategically identified 30 critical minerals, including lithium, cobalt, nickel, and graphite, crucial for the country’s economic development and national security.
    • The move aims to address supply chain vulnerabilities and ensure availability of these minerals for key industries such as clean technologies, information technology, advanced manufacturing, and defense.

    What are Critical Minerals?

    • Critical minerals are elements that are crucial to modern-day technologies and are at risk of supply chain disruptions.
    • These minerals are used in making mobile phones, computers, batteries, electric vehicles, and green technologies like solar panels and wind turbines.
    • Minerals such as antimony, cobalt, gallium, graphite, lithium, nickel, niobium, and strontium are among the 22 assessed to be critical for India.
    • Many of these are required to meet the manufacturing needs of green technologies, high-tech equipment, aviation, and national defence.

    Three-Stage Assessment Process

    1. Analysis of Global Strategies: The expert team studied the strategies of major economies and identified 69 elements/minerals considered critical by these countries.
    2. Inter-Ministerial Consultation: Different ministries were consulted to identify minerals critical to their respective sectors.
    3. Empirical Formula for Criticality Evaluation: An empirical formula was derived considering economic importance and supply risk, similar to the methodology used by the European Union.

    List of Critical Minerals for India

    • Identified Minerals: The assessment resulted in a list of 30 critical minerals, including antimony, beryllium, cobalt, copper, lithium, nickel, rare earth elements, silicon, tin, titanium, tungsten, and others.
    • Fertilizer Minerals: Two minerals critical for fertilizer production, phosphorous and potash, are also included.

    Why are these resources critical?

    • Clean energy transition: Critical minerals are essential to the ecosystem that fuels the world’s transition towards clean energy and digital economy.
    • Strategic nature: Any supply shock can severely imperil the economy and strategic autonomy of a country that is over-dependent on others to procure critical minerals.
    • Rare availability: Supply risks exist due to rare availability, growing demand, and complex processing value chain.

    What is the China ‘threat’?

    • Dominant role: China is the world’s largest producer of 16 critical minerals, including cobalt and rare earth elements.
    • Monopoly in processing: The country has a strong presence across the board in processing operations, with a share of refining around 35% for nickel, 50-70% for lithium and cobalt, and nearly 90% for rare earth elements.
    • Control over offshore mines: China also controls cobalt mines in the Democratic Republic of Congo, from where 70% of this mineral is sourced.
    • Supply chain dominance: The country’s dominance in critical minerals production and processing raises concerns of a supply disruption in case of a geopolitical conflict.

    Challenges in ensuring resilient critical minerals supply

    • Limited availability of critical minerals: The rare availability of critical minerals poses a challenge in meeting the growing demand for these minerals.
    • Geopolitical risks: Complex supply chains can be disrupted by hostile regimes or politically unstable regions, leading to supply chain disruptions.
    • Dominance of certain countries: A few countries, such as China, are the dominant producers of critical minerals, leading to concerns over supply disruptions in case of a geopolitical conflict.
    • Increasing demand for critical minerals: With the shift towards renewable energy technologies and electric vehicles, the demand for critical minerals such as copper, lithium, and rare earth elements is increasing rapidly.
    • Reliance on foreign partners: Countries with limited reserves and higher requirements for critical minerals may have to rely on foreign partners to meet their domestic needs, leading to supply chain vulnerabilities.
    • Environmental and social concerns: The extraction and processing of critical minerals can have negative environmental and social impacts, leading to challenges in meeting sustainability goals.

    What are countries around the world doing about it?

    Several countries are taking measures to ensure a consistent supply of critical minerals to their domestic markets.

    • US: It has ordered a review of vulnerabilities in its critical minerals supply chains and shifted its focus on expanding domestic mining, production, processing, and recycling of critical minerals and materials.
    • Australia: Its Critical Minerals Facilitation Office (CMFO) and KABIL had recently signed an MoU aimed at ensuring reliable supply of critical minerals to India.
    • UK: It has unveiled its new Critical Minerals Intelligence Centre to study the future demand for and supply of these minerals, and its critical mineral strategy will be unveiled later this year.

    India’s Domestic and Global Outreach

    • Domestic Exploration Efforts: The Geological Survey of India conducted advanced mineral exploration in Jammu & Kashmir, identifying inferred lithium resources. Further exploration is planned in different parts of the country.
    • Joint Venture Company: Khanij Bidesh India Ltd. (KABIL) has been established to acquire overseas mineral assets, including lithium, cobalt, and rare earth elements, ensuring a reliable supply.
    • Mineral Security Partnership (MSP): India’s inclusion in the MSP, a collaboration of 14 countries, highlights the country’s focus on securing critical mineral supply chains globally and reducing dependency on China.

    What should India do to ensure resilient supply?

    • Developing domestic sources of critical minerals: This can be achieved by promoting exploration and mining activities, both by public and private sector entities.
    • Encouraging responsible mining practices: The Indian government should encourage responsible mining practices that minimize the negative environmental and social impacts of mining activities.
    • Need for a Specialized Agency: The expert team proposed the establishment of a National Institute or Center of Excellence dedicated to critical minerals, similar to Australia’s CSIRO.
    • Promoting transparency in the supply chain: India should promote transparency in the critical minerals supply chain by ensuring the traceability of minerals from the point of extraction to the point of end-use.
    • Investing in research and development: India should invest in research and development to develop new technologies and processes for efficient extraction, processing, and recycling of critical minerals.
    • Developing a national critical minerals strategy: India should develop a national critical minerals strategy that identifies priority minerals, promotes domestic exploration and mining, and promotes sustainable and responsible mining practices.

    Conclusion

    • India has a significant mineral geological potential, many minerals are not readily available domestically.
    • Hence, India needs to develop a national strategy to ensure resilient critical minerals supply chains, which focuses on minerals found to be critical in this study.

  • PM-PRANAM Scheme gets cabinet nod

    pranam

    Central Idea

    • The union cabinet has given its approval to PM-PRANAM scheme, which aims to promote the usage of alternative fertilizers and balanced utilization of chemical fertilizers.
    • This scheme, announced in the budget for 2023-24, reflects the government’s commitment to sustainable agricultural practices and the conservation of natural resources.

    What is PM-PRANAM Scheme?

    • PM-PRANAM stands for Prime Minister Promotion of Alternate Nutrients for Agriculture Management Yojana.
    • The scheme was proposed during the National Conference on Agriculture for Rabi Campaign in September 2022.
    • Its objective is to reduce the subsidy burden on chemical fertilizers by promoting the use of alternative fertilizers.

    Notable features of the scheme

    • Incentivizing States and UTs: The scheme incentivizes states and Union Territories to promote the usage of alternative fertilizers and achieve a balanced use of chemical fertilizers. States that demonstrate significant savings in funds due to reduced chemical fertilizer usage receive grants as incentives.
    • Subsidy Savings Allocation: Around 50% of the subsidy savings resulting from reduced chemical fertilizer consumption will be allocated as a grant to the state that exhibits the highest savings. This encourages states to actively participate in the adoption of alternative fertilizers.
    • Creation of Assets: A significant portion (70%) of the granted funds will be utilized for creating assets associated with the technological integration of alternate fertilizers. This includes establishing production units at the village, block, and district levels, facilitating local production and availability of alternative fertilizers.
    • Recognition and Incentives for Farmers: The remaining 30% of the granted funds will be utilized to incentivize and recognize farmers and other village entities for their contributions to reducing fertilizer usage. This recognizes their efforts in adopting sustainable agricultural practices.
    • Environmentally Friendly Farming Practices: The scheme aims to promote environmentally friendly farming practices by encouraging the adoption of alternative fertilizers. This reduces the dependency on chemical fertilizers, which in turn contributes to environmental conservation and sustainability.
    • Long-term Soil Health and Agricultural Ecosystems: By promoting a balanced use of fertilizers, the scheme ensures the long-term health and fertility of agricultural ecosystems. It emphasizes sustainable agricultural practices that preserve soil health and protect natural resources.
    • Technological Integration: The scheme supports the integration of technology into agriculture for the production and utilization of alternative fertilizers. This includes the establishment of production units at the grassroots level, encouraging local production and accessibility of alternative fertilizers.

  • Mahalanobis in the era of Big Data and AI

    Big Data

    Central Idea

    • Professor P.C. Mahalanobis, the pioneer of statistics in India, left an indelible mark on the field of statistics and survey culture in the country. His contributions, including the establishment of the Indian Statistical Institute, continue to shape the nation’s statistical landscape. As India grapples with the evolving socio-economic dynamics in the post-pandemic era, the absence of Mahalanobis’s expertise is keenly felt. This era, characterized by copious amounts of data, is commonly referred to as the age of Big Data

    *Relevance of the topic*

    • Due to the outbreak of the Covid-19 pandemic, the Census 2021 and the related field activities have been postponed.
    • Questions over data quality and delay in releasing surveys has been raised
    • You can use this as case study and examples

    Mahalanobis’s strategy in handling large-scale data

    • Tackling Big Data: Mahalanobis encountered a Big Data challenge when his large-scale surveys yielded substantial amounts of data that required effective analysis for planning purposes. He successfully persuaded the government to procure the country’s first two digital computers in 1956 and 1958 for the Indian Statistical Institute. This accomplishment marked the introduction of computers and their utilization in handling vast amounts of data in India.
    • Embracing Technology: Mahalanobis embraced technology throughout his career. He built simple machines to facilitate surveys and measurements, displaying a keen interest in leveraging technology for data collection and analysis. His adoption of digital computers showcases his progressive approach to incorporating technological advancements into statistical practices.
    • Mathematical Calculations: Mahalanobis’s strategy involved employing complex mathematical calculations to tackle the extensive data generated from surveys. By utilizing digital computers, he aimed to streamline and expedite the process of analyzing large-scale datasets, enabling effective planning and decision-making.
    • Built-in Cross-Checks: Mahalanobis was inspired by Kautilya’s Arthashastra and introduced the concept of built-in cross-checks in his surveys. This approach aimed to ensure data accuracy and reliability, minimizing errors and contradictions in the collected data. These cross-checks were implemented to enhance the quality control of statistical analysis and maintain the integrity of the findings.

    Advantages of Big Data

    • Improved Decision-Making: Big Data analytics provides organizations with valuable insights and patterns derived from vast amounts of data. These insights support data-driven decision-making, enabling organizations to make informed and evidence-based choices that can lead to improved outcomes.
    • Enhanced Customer Understanding: Big Data allows organizations to gain a deeper understanding of their customers. By analyzing large and diverse datasets, businesses can identify customer preferences, behavior patterns, and trends, enabling personalized marketing strategies, product development, and customer experiences.
    • Operational Efficiency: Big Data analytics can optimize operational processes by identifying bottlenecks, inefficiencies, and areas for improvement. By analyzing data from various sources, organizations can streamline workflows, reduce costs, and enhance productivity.
    • Innovation and New Product Development: Big Data insights can drive innovation and the development of new products and services. By analyzing market trends, consumer demands, and competitive landscapes, organizations can identify opportunities for innovation and create products tailored to specific market needs.
    • Fraud Detection and Security: Big Data analytics can help in detecting and preventing fraudulent activities. By analyzing patterns and anomalies in data, organizations can identify potential fraud or security breaches in real-time, reducing financial losses and protecting sensitive information.
    • Personalized Marketing and Customer Experience: Big Data enables targeted and personalized marketing campaigns. By analyzing customer data, organizations can segment their audience, deliver customized messages, and create personalized experiences that resonate with individual customers.
    • Improved Healthcare and Public Health: Big Data analytics has the potential to revolutionize healthcare. By analyzing patient data, medical records, and clinical research, healthcare providers can make better diagnoses, develop personalized treatment plans, and identify public health trends for proactive interventions.

    key challenges associated with Big Data

    • Data Quality and Integrity: Ensuring the quality and integrity of Big Data can be a significant challenge. Data may contain errors, inconsistencies, and biases, which can adversely affect the accuracy and reliability of analyses and insights.
    • Data Privacy and Security: The vast amount of data collected and stored in Big Data systems raises concerns about privacy and security. Safeguarding sensitive information and preventing unauthorized access or data breaches require robust security measures and compliance with privacy regulations.
    • Data Storage and Management: Storing and managing large volumes of data can be complex and costly. Big Data requires scalable and efficient storage solutions, including distributed storage systems and cloud-based platforms. Managing data across various sources and formats also poses challenges.
    • Data Processing and Analysis: Processing and analyzing massive datasets in a timely manner can be computationally intensive and time-consuming. Traditional data processing tools and techniques may not be suitable for handling Big Data, requiring the use of specialized frameworks, algorithms, and infrastructure.
    • Data Integration and Interoperability: Integrating and making sense of diverse data sources can be challenging due to differences in formats, structures, and semantics. Ensuring interoperability and data integration across systems and platforms is crucial for deriving comprehensive insights from Big Data.

    Big Data

    Way forward: Mahalanobis’s potential approach to Big Data and AI

    • Embrace Technological Advancements: Following Mahalanobis’s lead, it is crucial to embrace the latest technological advancements in handling Big Data. Continuously explore emerging technologies, such as advanced analytics tools, cloud computing, and distributed computing frameworks, to efficiently process and analyze large-scale datasets.
    • Foster Statistical Expertise: Cultivate statistical expertise to navigate the complexities of Big Data. Invest in training programs and educational initiatives to develop a skilled workforce capable of extracting insights and interpreting the vast amounts of data generated. Promote interdisciplinary collaboration, involving statisticians, technologists, domain experts, and policymakers.
    • Ensure Data Integrity and Quality: Establish robust data governance frameworks to ensure the integrity and quality of Big Data. Implement built-in cross-checks, validation processes, and quality control measures to enhance data accuracy, reliability, and transparency. Adhere to ethical guidelines to safeguard privacy, prevent bias, and address fairness in AI and Big Data applications.
    • Encourage Ethical AI and Big Data Practices: Promote ethical AI and Big Data practices by integrating principles such as transparency, fairness, and accountability. Develop guidelines and regulations that address potential biases, discrimination, and privacy concerns. Foster a culture of responsible data use and continuous evaluation of AI systems to mitigate risks and ensure positive societal impact.
    • Foster Collaboration and Interdisciplinary Approaches: Promote collaboration across disciplines, sectors, and organizations to leverage diverse expertise in tackling Big Data challenges. Foster partnerships between academia, industry, and government entities to encourage knowledge sharing, research collaboration, and the development of innovative solutions.
    • Invest in Capacity Building and Education: Invest in educational programs and initiatives to build a skilled workforce capable of harnessing the potential of Big Data and AI. Promote data literacy and provide training opportunities to empower individuals and organizations to effectively collect, analyze, and interpret data. Support research and development in the field of AI and Big Data to drive innovation.
    • Inform Evidence-based Decision-making: Advocate for evidence-based decision-making by integrating data-driven insights into policy formulation and resource allocation. Encourage policymakers to leverage Big Data analytics to understand societal trends, make informed decisions, and address pressing challenges effectively.

    Conclusion

    • Professor P.C. Mahalanobis’s legacy as a statistical luminary remains relevant in the age of Big Data and AI. His unique combination of perfectionism, tireless dedication, and visionary leadership positions him as an ideal candidate to handle vast amounts of data and embrace technological advancements for the betterment of humanity and national development. As India’s statistical landscape continues to evolve, the absence of Mahalanobis’s expertise and guidance is keenly felt

    Also read:

    Remembering P C Mahalanobis

     

  • Green Credit Scheme to Incentivize Environmental Actions

    Central Idea

    • The Ministry of Environment has released a draft notification outlining a proposed ‘Green Credit Scheme’ to provide incentives for various environmental activities.
    • The scheme aims to encourage actions such as afforestation, water conservation, waste management, and addressing air pollution by allowing individuals and organizations to generate tradable ‘green credits.’

    What is Green Credit Programme (GCP)?

    • GCP will be launched at the national level, utilizing a competitive market-based approach to encourage voluntary environmental actions.
    • The scheme will incentivize individual and community behaviors, as well as motivate private sector industries, companies, and other entities to fulfill their existing obligations.
    • By participating in activities that generate or allow the purchase of green credits, stakeholders can align with the objectives of the scheme.

    Creating Supply and Demand for Green Credits

    • The government’s immediate focus is to create a supply of green credits through voluntary actions.
    • The subsequent step involves introducing laws or regulations to incentivize companies and organizations to purchase credits, thereby creating demand.
    • Unlike carbon markets that primarily trade greenhouse gas emissions, the Green Credit Scheme accounts for a broader range of actions, making it more complex.

    Sectors for Green Credit Generation

    The notification outlines following sectors or activities that qualify for generating green credits:

    • Tree plantation-based green credit: Promotes activities to increase green cover through tree plantation and related initiatives.
    • Water-based green credit: Encourages water conservation, water harvesting, efficient water use, and wastewater treatment and reuse.
    • Sustainable agriculture-based green credit: Promotes natural and regenerative agricultural practices, land restoration, and improvement of productivity, soil health, and nutritional value.
    • Waste management-based green credit: Fosters sustainable waste management practices and improvements in waste handling.

    Uniqueness and Complexity of the Scheme

    • The proposed Green Credit Scheme covers a wider range of actions compared to similar initiatives worldwide.
    • Unlike existing schemes, this program accounts for diverse activities, making its implementation and accounting mechanisms more intricate.