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GS Paper: GS3-17.Awareness in the fields of IT, Space, Computers, Robotics, Nano-technology, Bio-technology and issues relating to Intellectual Property Rights.

  • Preliminary Findings of the Genome India Project

    Why in the News?

    The preliminary findings of Genome India Project, based on the whole genome sequencing of 10,074 healthy and unrelated Indians from 85 populations across the country, were published recently.

    About Genome India Project

    • The Genome India Project was launched in January 2020 to map the genetic diversity of India’s population.
    • It is a collaborative project supported and funded by the Department of Biotechnology, GoI, involving multiple institutions across the country.
    • Objectives:
      • Decode the genetic diversity of India’s population through large-scale genome sequencing.
      • Create an exhaustive catalog of genetic variations, including common, low-frequency, rare, single nucleotide polymorphisms (SNPs), and structural variations.
      • Develop a reference haplotype structure for Indians, which can be used to impute missing genetic variation in future studies.
      • Design genome-wide arrays for research and diagnostics at an affordable cost.
      • Establish a biobank for DNA and plasma collected for future research use.
    • The Genome India Database, which houses the genetic data, is now available to researchers worldwide and is stored at the Indian Biological Data Centre (IBDC) in Faridabad, Haryana.

    Preliminary findings of the Study

    • The project genotyped 10,074 individuals from 85 populations, including 32 tribal and 53 non-tribal groups across India.
    • Blood samples were collected from around 20,000 individuals, with DNA samples from 10,074 individuals subjected to whole genome sequencing.
    • A total of 180 million genetic variants were identified, of which 130 million are in non-sex chromosomes (22 autosomes) and 50 million are in sex chromosomes X and Y.
    • Variant Significance:
      • Variants associated with diseases.
      • Rare variants.
      • Variants unique to India or specific communities.
    [UPSC 2016] In the context of the developments in Bioinformatics, the term ‘transcriptome’, sometimes seen in the news, refers to

    (a) a range of enzymes used in genome editing

    (b) the full range of mRNA molecules expressed by an organism

    (c) the description of the mechanism of gene expression

    (d) a mechanism of genetic mutations taking place in cell

     

  • ESA’s Biomass Mission

    Why in the News?

    The European Space Agency (ESA) is preparing to launch Biomass Mission to map the world’s forests and enhance our understanding of their crucial role in the global carbon cycle.

    ESA's Biomass Mission

    About the Biomass Mission by ESA

    • The ESA will launch the Biomass mission on April 29, 2025, aboard the Vega C rocket from French Guiana.
    • The mission aims to map the world’s forests, gathering data on their role in the carbon cycle and how they change over time.
    • It will be placed in a sun-synchronous orbit (SSO) at around 666 km, optimizing sunlight for observations.
    • It is the 7th mission in ESA’s Earth Explorer Program, focusing on data related to Earth’s atmosphere, hydrosphere, and land surface.

    Features of the Biomass Mission:

    • Biomass uses a P-band Synthetic Aperture Radar (SAR) sensor (70 cm frequency), capable of penetrating forest canopies to measure carbon storage in trees and the forest floor.
    • It will be the first satellite to use this cutting-edge P-band SAR technology, offering unprecedented forest biomass data.
    • Equipped with a 12-meter antenna, the satellite will deploy upon launch to conduct broad Earth observations.
    • It will create 3D images of forests, from canopy to roots, providing detailed insights into forest health and carbon storage.

    Significance of the Biomass Mission:

    • The mission will fill critical gaps in forest biomass and height data, improving understanding of forests’ role in the carbon cycle and climate change.
    • Biomass will measure carbon storage in forests and track changes due to deforestation and human activity.
    • The mission’s data will aid climate change mitigation strategies by tracking carbon fluxes between forests and the atmosphere.
    • It will support environmental monitoring, assist policymakers, and contribute to global climate change strategies.
    [UPSC 2010] Consider the following statements:

    The Satellite Oceansat-2 launched by India helps in

    1. estimating the water vapour content in the atmosphere.

    2. predicting the onset of monsoons.

    3. monitoring the pollution of coastal waters.

    Which of the statements given above is/are correct?

    (a) 1 only (b) 2 and 3 only (c) 1 and 3 only (d) 1,2 and 3

     

  • Technology and Innovation Report, 2025

    Why in the News?

    The Technology and Innovation Report, 2025 was recently issued by United Nations Conference on Trade and Development (UNCTAD).

    About the Technology and Innovation Report

    • The report is released by the UN Conference on Trade and Development (UNCTAD).
    • It addresses critical issues related to science, technology, and innovation, with a particular focus on developing countries. The report emphasizes policy-relevant analysis and conclusions.
    • The theme for the 2025 edition is “Inclusive Artificial Intelligence for Development.”

    Key Highlights of the Report:

    • Global Highlights:
      • Developed countries lead in technology preparedness, but nations like China, India, and Brazil outperform their income levels.
      • AI market projected to reach USD 4.8 trillion by 2033, fuelling global digital transformation.
      • 100 companies, mostly in the U.S. and China, account for 40% of global corporate R&D spending.
      • AI will affect 40% of jobs globally, raising concerns over automation and job displacement.
      • U.S. leads in AI investment with USD 67 billion, followed by China (USD 7.8 billion) and India (USD 1.4 billion).
      • AI Governance Gap: 118 countries, mainly from the Global South, are absent from global AI governance discussions.
    • Indian Prospects:
      • India ranks 36th in the Readiness for Frontier Technologies Index in 2024, up from 48th in 2022. It ranks 10th globally with USD 1.4 billion in AI investments.
      • India has a talent pool of 13 million AI developers, contributing significantly to open-source platforms like GitHub.
      • The India AI Mission (2024) focuses on AI innovation through collaborations with the private sector and academia.
      • India leads in nanotechnology and has AI excellence centres like IIT Hyderabad and IIT Kharagpur.
    [UPSC 2019] The Global Competitiveness Report is published by the:

    (a) International Monetary Fund (b) United Nations Conference on Trade and Development (c) World Economic Forum (d) World bank

     

  • [4th April 2025] The Hindu Op-ed: The other space race — the geopolitics of satellite net

    PYQ Relevance:

    [UPSC 2024] Can India become a space power by solely relying on its indigenous technology, or is it imperative to forge technological alliances and collaborations with other nations to stay competitive in the global space race? Elaborate your views. 

    Linkage:  India’s choice to partner with Starlink, a US-based network, over waiting for indigenous solutions or potentially partnering with China, illustrating the geopolitical considerations in space technology.

     

    Mentor’s Comment: Many parts of India still lack fiber and mobile networks. Starlink’s tie-up with Airtel and Jio helps bring fast Internet to remote areas without big infrastructure costs. While good for business, it raises concerns about U.S. digital control. Starlink’s dominance, with 7,000 satellites, risks creating a monopoly and giving private firms major control over key infrastructure.

    Today’s editorial analyzes  Starlink’s tie-up with Airtel and Jio and its impact. This will help in GS paper 2 and GS Paper 3.

    _

    Let’s learn!

    Why in the News?

    It’s still unclear whether satellite Internet will help everyone get connected or just make the digital gap worse in a new way from space.

    What are the economic and strategic benefits of India’s partnership with Starlink?

    • Bridging the Digital Divide: Enables high-speed internet access in rural, remote, and hilly areas where laying fiber-optic cables is difficult or expensive. Eg:  Remote villages in Ladakh or Northeast India can access e-learning, telemedicine, and government services through satellite internet.
    • Cost-effective Infrastructure Expansion: Reduces the capital and operational costs for Indian telecom companies like Airtel and Jio, as satellite internet bypasses the need for expensive terrestrial infrastructure. Eg : Instead of building hundreds of towers in sparsely populated areas, Airtel can provide service using Starlink’s satellite network.
    • Strategic Geopolitical Alignment: Aligns India with the U.S.-led democratic digital alliance, distancing itself from authoritarian tech ecosystems like China’s GuoWang. Eg: Choosing Starlink over Chinese alternatives reflects India’s broader Indo-Pacific strategy of cooperation with like-minded nations.
    • Boost to Domestic Capability via Partnership Model: Collaborating through Indian partners (Airtel, Jio) offers regulatory oversight, scope for technology transfer, and growth of India’s tech ecosystem. Eg: Local data routing, domestic satellite ground stations, and service operations can help build technical capacity and expertise in India.
    • Strategic Communication Redundancy Enhances national security by providing backup communication systems during disasters or network blackouts. Eg: During natural calamities like cyclones or earthquakes, satellite internet can keep remote regions connected when ground networks fail.

    Why is Starlink’s monopolistic control a concern, and how does it impact India?

    • Overdependence on a Foreign Private Entity: Reliance on Starlink gives a U.S.-based private firm significant control over India’s digital backbone in remote areas.
       Eg: If Starlink alters service terms or suspends access due to U.S. geopolitical interests, India’s connectivity in border or conflict zones could be compromised.
    • National Security Risks: Communication infrastructure operated from outside the country raises concerns over surveillance, data sovereignty, and wartime disruption. Eg: During the Russia-Ukraine war, Starlink restricted access to its services in conflict zones — India could face similar risks in sensitive areas like Jammu & Kashmir or Arunachal Pradesh.
    • Market Distortion and Limited Competition: Starlink’s first-mover advantage and satellite volume (~7,000 satellites) could outcompete smaller or local satellite internet ventures. Eg: Domestic players like ISRO’s satellite internet plans or private Indian firms may struggle to gain market share or scale up effectively.
    • Pricing Power and Affordability Issues: Monopoly allows Starlink to set high prices, making services unaffordable for large sections of rural and poor populations. Eg: Without competition or regulation, satellite internet packages may remain out of reach for rural schoolchildren or small farmers.
    • Reduced Technological Sovereignty: Long-term reliance may hinder India’s ability to develop indigenous alternatives, stalling progress toward digital self-reliance. Eg: Starlink dominance might delay ISRO’s or IN-SPACe’s efforts in launching Indian LEO satellite constellations.

    Who are the key global players in satellite internet?

    Player Country Project Name Key Features Example / Status
    SpaceX USA Starlink – Operates 7,000+ satellites in Low Earth Orbit (LEO)

    – Provides global broadband internet

    		 – Services available in 70+ countries

    – Partnerships with Airtel & Jio in India for rural access
    China Satellite Network Group China GuoWang – State-run project for national security & digital sovereignty

    – Aims to deploy 13,000+ satellites

    		 – Strategic focus on Indo-Pacific and Belt & Road countries
    Amazon USA Project Kuiper – Plans to deploy 3,000+ satellites

    – Emerging competitor in global internet services

    		 – FCC approved

    – Aims to launch by 2026

    – Focus on North America & developing markets

     

    How does India’s choice of Starlink over indigenous or Chinese alternatives reflect its Indo-Pacific strategy?

    • Strategic Alignment with Democratic Partners: India’s preference for Starlink (a U.S.-based company) indicates alignment with democratic nations in the Indo-Pacific region. Eg: By avoiding Chinese alternatives like GuoWang, India reinforces its commitment to frameworks like Quad (India, U.S., Japan, Australia) that promote a free, open, and secure Indo-Pacific.
    • Countering China’s Digital Influence: India’s decision helps prevent Chinese technological dominance in Asia, especially in sensitive sectors like space and communication.Eg: Partnering with Starlink counters China’s Digital Silk Road ambitions and limits Beijing’s potential surveillance or control via GuoWang.
    • Enhancing Strategic Interoperability: Collaborating with U.S. technologies builds compatibility with partner nations’ digital and defense infrastructure. Eg: Starlink’s use in defense communication, as seen in Ukraine, could serve as a backup during emergencies in border regions like Ladakh or Arunachal Pradesh.
    • Economic Pragmatism and Speed: India needs fast, scalable connectivity. Starlink offers a quicker solution compared to long timelines for domestic capability development. Eg: Indigenous LEO satellite programs are still in nascent stages, while Starlink is already operational, helping bridge rural digital gaps.
    • Signal of Strategic Autonomy, Not Dependency: By routing Starlink through Indian firms like Jio and Airtel, India retains some control, showing a model of “managed dependency.” Eg: Unlike full foreign control, this hybrid model mirrors India’s “Act East” and “Neighbourhood First” policies that balance strategic autonomy with global partnerships.

    What steps can ensure digital sovereignty? (Way forward)

    • Develop Indigenous Satellite Infrastructure: Investing in homegrown satellite constellations enhances strategic independence and reduces reliance on foreign networks.Eg: ISRO and private players like IN-SPACe can develop India’s own LEO satellite systems to serve rural and border areas.
    • Enforce Strong Regulatory Frameworks: Mandating data localization, technology transfer, and operational oversight ensures control over foreign tech operations. Eg: India can require local data storage and security vetting for Starlink services, similar to norms for other digital services.
    • Strengthen Public Sector Participation: Involving state-owned enterprises like BSNL in satellite internet rollouts can provide public oversight and reduce strategic vulnerabilities.Eg: Partnering Starlink with BSNL could combine reach and regulation, giving the government more control over critical infrastructure.

  • Majorana 1 Chip and the Pursuit of Quantum Computing

    Why in the News?

    In December 2024, Microsoft introduced its quantum computing chip, Majorana 1, designed to solve industrial-scale problems by utilizing the properties of Majorana particles for practical quantum computing.

    About Majorana 1 Chip and the Science Behind

    • Microsoft introduced its Majorana 1 quantum computing chip, designed to solve large-scale problems using quantum computing.
    • This chip is named after Majorana particles, which have unique properties in particle physics.
    • Majorana particles are special because they are their own anti-particles.
    • This means that when two Majorana particles meet, they destroy each other and release energy.
    • This property is different from most particles, like electrons, which have separate anti-particles (for example, the electron’s anti-particle is the positron).
    • Why Majorana Particles Matter for Quantum Computing?
      • This unique property could make Majorana particles useful in quantum computing.
      • They could help make quantum bits (qubits) more stable, which is important for improving quantum computers.
      • Using Majorana particles may also help in topological quantum computing, which makes qubits less affected by external disturbances, making them more reliable.

    Beta Decay and Neutrinoless Double Beta Decay (0vßß):

    • Beta decay happens when an unstable atomic nucleus releases energy. In this process, a neutron in the nucleus turns into a proton, and an electron and anti-neutrino are emitted. There are two types of beta decay:
    1. Beta-minus decay: A neutron becomes a proton, releasing an electron and an anti-neutrino.
    2. Beta-plus decay: A proton turns into a neutron, releasing a positron and a neutrino.
    • What is Neutrinoless Double Beta Decay (0vßß)? Neutrinoless double beta decay is a rare event where two electrons are emitted instead of the usual electron and anti-neutrino. This suggests that neutrinos and anti-neutrinos might be the same particle, known as Majorana particles.
      • If scientists observe this type of decay, it will prove that neutrinos are Majorana particles and help measure their mass.
      • This discovery would improve our understanding of particle physics.

    AMoRE Experiment:

    • The AMoRE experiment is being conducted in South Korea to detect this rare 0vßß decay.
    • The experiment uses molybdenum-100 (Mo-100), which is known to undergo double beta decay. The team is measuring the energy differences in electron emissions to detect the 0vßß decay.
    • While no evidence has been found yet, the experiment continues to improve its sensitivity by using 100 kg of Mo-100 for more accurate measurements.

    Scientific Significance:

    • The search for 0vßß and studying Majorana particles could help answer important questions about the mass of neutrinos and improve our understanding of particle physics.
    • Learning more about neutrinos is key to both advancing quantum computing and understanding particle physics.
    [UPSC 2022] Which one of the following is the context in which the term “qubit” is mentioned?

    (a) Cloud Services (b) Quantum Computing (c) Visible Light Communication Technologies (d) Wireless Communication Technologies

     

  • Fram2 Polar-Orbiting Mission

    Why in the News?

    SpaceX has launched the Fram2 mission, sending four private astronauts on a groundbreaking journey to orbit Earth from pole to pole, marking a major milestone in space tourism.

    About the Fram2 Polar-Orbiting Mission

    • The Fram2 mission is a spaceflight undertaken by SpaceX, featuring a crew of four private astronauts.
    • The mission is named after the Fram ship, a historical vessel used in early 20th-century polar expeditions.
    • Unlike traditional space missions, Fram2 is designed to fly from pole to pole, completing an orbital journey around Earth that no human has attempted before.
    • Its goal is to fly over both the North and South Poles, providing an unprecedented opportunity to observe these regions from low-Earth orbit.
    • The mission will involve a series of scientific experiments focused on spaceflight and the effects of microgravity on the human body.
    • The mission is scheduled to last between three to five days, with the astronauts aboard the Crew Dragon spacecraft completing each orbit in about 46 minutes.

    Features and Significance:

    • Unique Orbital Path:
      • Unlike traditional orbits closer to the equator, the Fram2 mission follows a polar trajectory, covering Earth’s poles.
      • This approach requires more fuel and presents a unique challenge in terms of mission logistics, making the Fram2 flight one of the most ambitious private space missions to date.
    • Scientific Research:
      • The crew will participate in 22 experiments, including studies on microgravity’s impact on the human body, the effects of spaceflight on muscle loss and bone density, and X-ray imaging in space.
      • Additionally, the mission will gather data crucial for climate change research by focusing on Earth’s polar regions, which play a vital role in understanding global environmental changes.
    • Climate Change Research:
      • As part of the mission, astronauts will be able to film and observe Earth’s polar regions, contributing valuable data to climate science.
    [UPSC 2010] Consider the following statements:

    The Satellite Oceansat-2 launched by India helps in

    1. estimating the water vapour content in the atmosphere.

    2. predicting the onset of monsoons.

    3. monitoring the pollution of coastal waters.

    Which of the statements given above is/are correct?

    (a) 1 only (b) 2 and 3 only (c) 1 and 3 only (d) 1, 2 and 3

     

  • Why the Parker Solar Probe is trying to ‘touch’ the Sun?

    Why in the News?

    The Parker Solar Probe made history on December 24, 2024, by coming within 6.1 million kilometers of the Sun’s surface, marking the closest approach ever by a spacecraft.

    Why the Parker Solar Probe is trying to ‘touch’ the Sun?

    About Parker Solar Probe

    • The Parker Solar Probe, launched in August 2018, is a car-sized robotic spacecraft named after Eugene Newman Parker, an American solar astrophysicist.
    • It is the first NASA mission named after a living researcher, and its mission is humanity’s first to explore within 3.8 million miles of the Sun’s corona.
    • The spacecraft is equipped with an advanced carbon-composite heat shield capable of withstanding temperatures up to 1,370°C.
    • This shield, which weighs only 73 kg, is designed to protect the probe from the Sun’s intense heat.
      • The probe’s instruments remain at a manageable 29°C due to the shield’s protection.
    • The primary goals are:
      • Approach the Sun: The probe aims to get as close as 6.5 million kilometers to study the Sun’s energy flow, solar corona heating, and the sources of solar wind.
      • Explore Solar Wind: Investigate the origins and behaviour of solar wind, the high-speed streams of charged particles that impact space weather.
      • Study Solar Corona: Delve into the mystery of why the Sun’s corona is 200 times hotter than its surface.
      • Investigate Plasma and Magnetic Fields: Study the structure and dynamics of plasma and magnetic fields at the sources of solar wind.
    • The Parker Solar Probe is equipped with four primary instruments:
      • FIELDS: Measures the electric and magnetic fields of the Sun’s atmosphere.
      • ISoIS: Observes energetic particles that lead to solar storms.
      • SWEAP: Records the properties of solar wind particles.
      • WISPR: Takes images of the solar corona.
      • Faraday Cup: Measures ion and electron density in the solar wind.

    Impact of the Mission on Solar Science

    • Understanding Solar Wind: The mission provides crucial data on the origins and behavior of solar wind, enhancing predictions of space weather and its impact on Earth.
    • Solving the Solar Corona Mystery: The probe’s findings suggest that Alfvén waves, plasma oscillations, may be the key mechanism responsible for the heating of the Sun’s corona, addressing a long-standing puzzle in solar physics.
    • New Discoveries on Space Dust: The probe’s discovery of dust-free pockets near the Sun challenges previous assumptions about the interaction of space dust with solar energy, offering new insights into solar dynamics.
    • Space Weather and Solar Flares: By monitoring the Sun’s activity, the probe aids in understanding solar flares and coronal mass ejections (CMEs), helping to mitigate the effects of space weather on Earth’s satellites and infrastructure.
    • Advancement in Solar Exploration Technology: The mission’s success in utilizing advanced heat shields and high-speed space travel techniques paves the way for future solar missions and deeper exploration of stellar physics.
    [UPSC 2022] If a major solar storm (solar flare) reaches the Earth, which of the following are the possible effects on the Earth?

    1.        GPS and navigation systems could fail.

    2.        Tsunamis could occur at equatorial regions.

    3.        Power grids could be damaged.

    4.        Intense auroras could occur over much of the Earth.

    5.        Forest fires could take place over much of the planet.

    6.        Orbits of the satellites could be disturbed.

    7.        Shortwave radio communication of the aircraft flying over polar regions could be interrupted.

    Select the correct answer using the code given below:

    (a) 1, 2, 4 and 5 only

    (b) 2, 3, 5, 6 and 7 only

    (c) 1, 3, 4, 6 and 7 only

    (d) 1, 2, 3, 4, 5, 6 and 7

     

  • GAIA Mission

    Why in the News?

    The European Space Agency (ESA) officially shut down its Global Astrometric Interferometer for Astrophysics (GAIA) Mission, which had been operational for over a decade.

    About the GAIA Mission

    • It was launched in December 2013 with the primary goal to create the most accurate three-dimensional map of the Milky Way galaxy.
    • It sought to measure the positions, distances, and movements of stars and other celestial bodies.
    • Gaia was designed for astrometry, focusing on precise measurements of celestial object locations and motions.
    • Positioned at Lagrange Point 2 (L2), 1.5 million kilometres behind Earth (as viewed from the Sun), Gaia was able to observe the universe without interference from Earth, the Sun, or the Moon.
    • Gaia was equipped with two telescopes and a camera with nearly 1 billion pixels, the largest camera ever sent to space. Key instruments include:
    1. Astrometer: Measured the location and motion of stars.
    2. Photometer: Measured brightness of celestial objects.
    3. Spectrometer: Analyzed the composition and movement of stars.
    • Discoveries and Achievements:
      • Gaia mapped the Milky Way in 3D, uncovering its shape, structure, and movement. It also detected warping and wobbling in the galaxy.
      • Gaia identified new types of black holes by observing their gravitational effects and tracked over 150,000 asteroids, contributing insights on their orbits and future impacts on Earth.
      • Additionally, it provided new understanding of stellar evolution and the formation of stars, including the Sun.
    • Gaia accumulated over 3 trillion observations, contributing to more than 13,000 scientific papers, revolutionizing knowledge about the Milky Way, the solar system, and galactic dynamics.

    Why is Gaia being Decommissioned?

    • After more than a decade of operations, the Gaia mission reached the end of its operational lifespan, making it unsustainable to continue its activities.
    • After over 10 years in space, Gaia’s technology showed signs of wear, and continuing operations became unfeasible.
    • On March 27, 2025, Gaia was successfully passivated, draining all internal energy sources. This means it can no longer be restarted or resumed for future operations.
    [UPSC 2023] Consider the following pairs: Objects in space Description

    1. Cepheids : Giant clouds of dust and gas in space

    2. Nebulae : Stars which brighten and dim periodically

    3. Pulsars : Neutron stars that are formed when massive stars run out of fuel and collapse

    How many of the above pairs are correctly matched?

    (a)Only one (b) Only two (c)All three (d) None

     

  • [27th March 2025] The Hindu Op-ed: The issue is about the ‘quality’ of India’s publications 

    PYQ Relevance:

    Question: “Although, India is second in the world to file patents, still only a few have been commercialized. Explain the reasons behind this less commercialization.” (UPSC 2024)

    Reason: This question looks at how useful India’s intellectual work is. It focuses on patents instead of research papers but raises a similar point—whether filing many patents leads to real-world applications. Here, commercialization means using intellectual property, which also reflects the quality of India’s research output.

    Mentor’s Comment: At a National Science Day event in February 2025, the Union Science Minister stated that India could surpass the U.S. in scientific publications by 2029. China leads with 8,98,949 papers, followed by the U.S. (4,57,335) and India (2,07,390). He emphasized the need for large-scale investments in education and R&D to match China’s long-term scientific growth.

    Today’s editorial analyzes India’s scientific publications and compares them with developed countries like the USA and China. This analysis is useful for writing answers in GS Paper 3 (UPSC Mains)

    _

    Let’s learn!

    Why in the News?

    Science officials should focus on improving the quality of India’s research publications instead of just being satisfied with the increasing number of papers.

    What are the quality issues in Indian publications? 

    • High Presence in Predatory Journals: Many Indian researchers publish in low-quality or predatory journals that lack proper peer review. Example: A 2018 study found that 35% of papers in predatory journals came from India, reducing credibility.
    • Low Citation Impact: Indian research papers often have fewer citations, indicating limited global influence and impact. Example: While China contributes heavily to high-impact journals like Nature and Science, India lags in such publications.
    • Plagiarism & Research Misconduct: Cases of plagiarism, data fabrication, and duplicate publications undermine research integrity. Example: In 2019, over 1,000 Indian research papers were retracted due to ethical violations.
    • Weak Industry-Academia Linkages: Research often lacks practical applications, with minimal collaboration between academia and industry. Example: Unlike China, where AI and 5G research directly benefit Huawei and Tencent, India’s industry-research link is weak.
    • Limited Breakthrough Research in Frontier Technologies: India lags in deep-tech areas like AI, quantum computing, and biotechnology due to inadequate funding and infrastructure. Example: While Google (USA) and Alibaba (China) lead in quantum computing, India mostly imports technology.

    What are the key factors contributing to China’s dominance in scientific research output compared to India?

    Key Factor China’s Strength Example
    Heavy Investment in R&D 2.4% of GDP spent on R&D, significantly higher than India’s 0.67% Medium-to-Long-Term Plan (2006-2020) led to advancements in AI, biotechnology, and materials science.
    Strong University and Institutional Support Massive government funding and autonomy for research institutions Tsinghua University, Peking University, and CAS contribute thousands of high-impact research papers annually.
    Focus on High-Quality Publications Researchers publish extensively in top journals like Nature, Science, and JACS CAS alone contributed 444 papers in JACS (2017–2024), while all CSIR labs in India contributed only 29.
    Strategic Talent Development and Global Collaboration Attracts global talent and fosters domestic researchers through international partnerships Thousand Talents Plan recruited top global scientists, boosting innovation.
    Industry-Academia Linkages and Patent Filing Strong collaboration between research institutions and industries, leading to high patent filings China dominates AI, quantum computing, and 5G, with companies like Huawei, Baidu, and Tencent integrating research into industry applications.

    How does India’s research spending compare to other advanced nations, and what are the effects?

    • Low R&D Expenditure as % of GDP: India spends ~0.67% of GDP on R&D, significantly lower than USA (3.4%), China (2.4%), Germany (3.1%), South Korea (4.8%), and Israel (5.6%). This leads to slower technological advancements and reduced global competitiveness. Example: India lags behind in semiconductor manufacturing, relying on imports instead of domestic production like China, Taiwan, and the US.
    • Dominance of Government Funding: Government funds ~56% of R&D in India, whereas in advanced nations, private sector contributes 70-80%. The limited commercialization of research and weaker industry-academia collaboration hinder innovation.Example: ISRO’s space research is globally recognized, but private sector participation in space technology is still nascent compared to SpaceX (USA) or CASC (China).
    • Lower Patent Filings & Innovation Output: India’s patent filings are much lower than leading economies. In 2023, India filed ~58,502 patents, whereas China filed 1.58 million. The slow innovation cycle increases reliance on foreign technologies. Example: China dominates 5G patents (~40%), while India relies on foreign telecom firms like Nokia and Ericsson for 5G deployment.
    • Brain Drain and Researcher Exodus: Indian researchers often migrate abroad due to limited funding, better salaries, and superior research infrastructure. The talent loss weakens India’s domestic research ecosystem. Example: Many IIT and IISc graduates move to the US, UK, or Europe for research positions in top institutions like MIT, Stanford, or Oxford.
    • Limited Breakthroughs in Deep-Tech & Frontier Research: India has limited presence in deep-tech areas like AI, quantum computing, and biotechnology, where the US, China, and EU invest heavily. Dependence on foreign companies for cutting-edge technology continues to grow. Example: India imports most quantum computing hardware, while Google (US) and Alibaba (China) lead the sector.

    What are the major ethical concerns in Indian research, and where does India stand in research integrity?

    • Plagiarism & Research Misconduct: Cases of plagiarism, data fabrication, and duplicate publications are prevalent in Indian academia. Weak enforcement of ethical guidelines leads to compromised research integrity. Example: In 2019, a major controversy arose when over 1,000 Indian research papers were retracted due to ethical violations.
    • Predatory Journals & Substandard Publications: Many Indian researchers publish in low-quality or predatory journals due to pressure for academic promotions. This dilutes the credibility of Indian research on the global stage. Example: A 2018 study found that over 35% of papers in predatory journals were from India, raising concerns about academic standards.
    • Lack of Strong Ethical Oversight & Whistleblower Protection: Institutional Ethics Committees (IECs) often lack independence and fail to take strict action against misconduct. Whistleblowers face retaliation, discouraging the reporting of unethical practices. Example: In cases like the AIIMS ethics review controversies, concerns were raised over conflicts of interest and leniency towards fraudulent research.

    What are the steps taken by the Indian government? 

    • Increased R&D Funding & Policy Initiatives: The government has launched schemes like National Research Foundation (NRF) with a ₹50,000 crore corpus to boost R&D across sectors. Atal Innovation Mission (AIM) promotes startups, research incubation, and industry-academia collaboration. Example: IMPRINT (Impacting Research Innovation and Technology) supports research in key areas like healthcare, AI, and advanced materials.
    • Strengthening Research Ethics & Quality Publications: UGC-CARE List was introduced to ensure publication in quality journals and curb predatory publishing. Draft National Policy on Research and Development (2023) aims to streamline ethical research guidelines. Example: AIIMS and IITs have implemented stricter plagiarism checks and ethical review mechanisms.
    • Boosting Deep-Tech & Patent Ecosystem: The National Quantum Mission (NQM) aims to position India as a global leader in quantum computing and communication. Simplified patent filing processes and incentives under Start-up India & Make in India encourage innovation. Example: India’s patent filing growth (58,502 in 2023), with initiatives like Mission on Cyber-Physical Systems (CPS) to develop AI, robotics, and IoT.

    Way forward: 

    • Increase R&D Investment & Industry Collaboration: Raise India’s R&D spending to at least 2% of GDP, with a greater role for private sector funding. Strengthen industry-academia linkages to boost innovation and commercialization, similar to China’s model.
    • Enhance Research Integrity & Quality Standards: Implement stricter regulations to curb plagiarism, predatory publishing, and unethical practices. Strengthen peer review mechanisms, independent ethics committees, and whistleblower protections to uphold research credibility.

  • What is a Sonic Weapon?

    Why in the News?

    It is alleged that Serbian Police used a banned sonic weapon to disperse protesters in Belgrade.

    What are Sonic Weapons?

    • Sonic or acoustic weapons are devices designed to emit loud sounds over long distances, including both audible and inaudible sound waves.
    • These waves can cause pain, discomfort, or disorientation.
    • While sound amplifiers have been used for centuries, sonic weapons began being used for crowd control in the 1990s, with their first military use in Iraq in 2004.
    • Working Mechanism: Sonic weapons use modern transducers to convert energy into concentrated sound, which can be controlled in terms of frequency, level, and duration.

    Types of Sonic Weapons:

    • Long-Range Acoustic Device (LRAD):
      • Range: Up to 8,900 meters for intelligible speech.
      • Sound Level: Can reach up to 160 dB, causing pain and potential hearing damage.
    • Mosquito:
      • Target Audience: Emits high-pitched sounds painful to younger people (teenagers and those in their twenties). Adults above 30 typically cannot hear it due to age-related hearing loss.
    • Infrasonic Weapon:
      • Sound Type: Delivers inaudible low-frequency sounds that cause pain and disorientation.
      • Development: Still in early stages, with ongoing research into its full potential.

    Health Implications:

    • Short-Term exposure can cause tinnitus, headaches, nausea, and vertigo.
    • Prolonged exposure may lead to permanent hearing damage, and symptoms like tinnitus can last for days.
    PYQ:
    [UPSC 2023]     Consider the following statements regarding Agni-V and BrahMos Missiles:
    1. Agni-V is a medium-range supersonic cruise missile, and BrahMos is a solid-fuelled intercontinental ballistic missile.
    2. Both the missiles are developed under the Integrated Guided Missile Development Programme.
    Which of the statements given above is/are correct?
    (a) 1 only, (b) 2 only, (c) Both 1 and 2, (d) Neither 1 nor 2