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GS Paper: GS3-16.Achievements of Indians in Science & Technology

  • Biotechnology for Economy, Environment and Employment (BioE3) Policy

    Why in the News?

    After the BioE3 Policy approval in August 2024, the Department of Biotechnology (DBT) held consultations with State governments on setting up biomanufacturing facilities across India.

    What is the BioE3 Policy?

    • It is a national initiative by the Department of Biotechnology (DBT), Ministry of Science and Technology to promote biomanufacturing and a circular bioeconomy in India.
      • Biomanufacturing involves the industrial production of bio-products such as biopolymers, enzymes, smart proteins, functional foods, precision biotherapeutics, and climate-resilient agricultural products.
    • It focuses on scaling up biotechnology-based industries, enhancing research and innovation, and creating employment opportunities in sustainable bio-based sectors.
    • It aligns with India’s Net Zero carbon commitment and aims to make biomanufacturing a key driver of economic growth.

    Objectives and Features of the BioE3 Policy

    • Promoting Biomanufacturing: Establishing biomanufacturing hubs and biofoundries to produce bio-based chemicals, polymers, and enzymes.
    • Strengthening R&D and Innovation: Encouraging state-driven biotechnology policies, bio-AI hubs, and technology-driven bioindustries.
    • State-Centric Implementation: States will adopt at least two thematic areas under BioE3, focusing on local bio-based industries and sustainable agriculture.
    • Workforce Development: Expanding biotechnology training programs in Tier-II and Tier-III cities to build a skilled workforce.
    • Biosafety and Regulatory Compliance: Ensuring adherence to global biosafety standards and responsible biotechnology innovation.
    • Carbon Capture and Sustainability: Supporting carbon sequestration technologies and climate-resilient agriculture to mitigate climate change impacts.
    • Encouraging Private Sector Investment: Creating a business-friendly environment for biotech startups, public-private partnerships, and global collaborations.

    Programs Implemented Under the BioE3 Policy:

    • State-Centric BioE3 Cells: Dedicated cells will be established in State departments to coordinate investments, research, and policy execution.
    • Precision Biotherapeutics and Functional Foods Initiative: Research into next-generation bio-based medicines, smart proteins, and functional foods.
    • Carbon Capture and Bioeconomy Models: Development of technologies for carbon sequestration and sustainable bio-based industrial processes.
    • Public-Private Partnerships: Collaboration between government, industry, and research institutions to drive biomanufacturing investments and commercialization.

    PYQ:

    [2015] With reference to bio-toilets used by the Indian Railways, consider the following statements:

    1. The decomposition of human waste in the bio-toilets is initiated by a fungal inoculum.

    2. Ammonia and water vapour are the only end products in this decomposition which are released into the atmosphere.

    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

  • Samudrayaan Project

    Why in the News?

    In a major boost to India’s Deep Ocean Mission, Finance Minister allocated ₹600 crore for the Samudrayaan project under the Union Budget 2025-26.

    About Samudrayaan Project

    • Samudrayaan is India’s first manned deep-sea mission, designed for exploring ocean resources and conducting deep-sea research.
    • It falls under the Deep Ocean Mission (DOM) of the Ministry of Earth Sciences (MoES).
    • The project involves sending scientists in a deep-sea submersible to explore mineral resources and biodiversity at depths of up to 6,000 metres.
    • With this project, India will join an elite group of nations (USA, Russia, China, Japan, and France) capable of deep-sea manned exploration.
    • Aims and Objectives
      • Deep-Ocean Exploration: Study deep-sea resources, including minerals, hydrothermal vents, and marine biodiversity.
      • Technological Development: Advance underwater robotics, deep-sea mining technology, and manned submersible vehicles.
      • Sustainable Resource Utilization: Explore polymetallic nodules, which contain cobalt, nickel, manganese, and copper.

    Significant Features:

    • Manned Submersible: MATSYA 6000:
      • Being developed by the National Institute of Ocean Technology (NIOT), Chennai.
      • Developed under Samudrayaan to carry three crew members for up to 12 hours of exploration (extendable to 96 hours in emergencies).
      • Designed for operation at a depth of 6,000 metres.
      • Equipped with life-support systems and scientific sensors.
    • Exploration of India’s Exclusive Economic Zone (EEZ):
      • Mapping the ocean floor for mineral resources.
      • Conducting geological and environmental studies for sustainable deep-sea mining.

    PYQ:

    [2022] With reference to the United Nations Convention on the Law of Sea, consider the following statements:

    1. A coastal state has the right to establish the breadth of its territorial sea up to a limit not exceeding 12 nautical miles, measured from baseline determined in accordance with the convention.
    2. Ships of all states, whether coastal or land-locked, enjoy the right of innocent passage through the territorial sea.
    3. The Exclusive Economic Zone shall not extend beyond 200 nautical miles from the baseline from which the breadth of the territorial sea is measured.

    Which of the statements given above are correct?

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

  • ISRO’s 100th launch: why this is significant?

    Why in the News?

    In its first launch of 2025, the Indian Space Research Organisation achieved the milestone of 100 launches.

    What does the 100th launch signify for India’s space capabilities?

    The 100th launch underscores ISRO’s growth since its establishment in 1969, showcasing its evolution into a reliable launch partner for both domestic and international satellites. 

    • Technological Advancement: This launch utilized an indigenous cryogenic engine, highlighting India’s advancements in rocket technology. The GSLV series has been instrumental in increasing payload capacity and efficiency during satellite launches, contributing to ISRO’s reputation as a formidable player in the global space arena.
    • Contribution to Navigation Systems: The NVS-02 satellite is part of India’s Navigation with Indian Constellation (NavIC) system, which enhances India’s capabilities in terrestrial, aerial, and maritime navigation.
      • This satellite will replace the IRNSS-1E satellite and improve the accuracy and reliability of navigation services across India and surrounding regions.

    What are the future plans for ISRO following this milestone?

    • Ambitious Missions: Following this milestone, ISRO aims to undertake several high-profile missions, including a sample return mission from the Moon, a mission to Venus, and the establishment of an Indian space station. These initiatives are part of ISRO’s broader goal to expand its capabilities and presence in space exploration.
    • Next Generation Launch Vehicle (NGLV): ISRO is developing a heavier rocket called the NGLV, which will be capable of carrying up to 30,000 kg to low Earth orbit. This vehicle will feature a reusable first stage to enhance cost-effectiveness in launches.
    • Expansion of Infrastructure: Plans are underway to build a third launch pad at Sriharikota to accommodate increased launch frequency and support human spaceflight missions alongside commercial launches.

    How will private sector involvement shape ISRO’s future missions?

    • Collaboration and Innovation: The PSLV-C60 mission exemplified successful collaboration between ISRO and private startups, allowing non-government entities to deploy payloads for in-orbit experiments.
      • This initiative fosters innovation by enabling startups to test their technologies using ISRO’s infrastructure, thereby reducing costs and encouraging diverse contributions to India’s space capabilities.
    • Transitioning Operational Responsibilities: ISRO aims to transfer more operational tasks to private companies, allowing them to manage activities traditionally handled by the agency.
      • This shift is intended to increase efficiency and scalability within the space sector, empowering private entities to take on significant roles in satellite launches and other space activities, thus expanding India’s overall capabilities.
    • Commercialization of Space Activities: The government has focused on increasing India’s share of the global space economy from 2% to 10% over the next decade through public-private partnerships.

    Way forward: 

    • Strengthening Public-Private Synergy: ISRO should continue fostering collaboration with private players by expanding access to launch infrastructure, streamlining regulatory frameworks, and incentivizing innovation through initiatives like IN-SPACe and NSIL.
    • Focus on Heavy-Lift and Reusability: Prioritizing the development of the Next Generation Launch Vehicle (NGLV) with reusable technology will enhance cost-effectiveness, positioning India as a competitive player in the global commercial space sector.

    Mains PYQ:

    Q India has achieved remarkable successes in unmanned space missions including the Chandrayaan and Mars Orbiter Mission, but has not ventured into manned space mission. What are the main obstacles to launching a manned space mission, both in terms of technology and logistics? Examine critically. (UPSC IAS/2017)

  • Organophosphate Poisoning in J&K

    Why in the News?

    A mysterious illness in Jammu & Kashmir has caused 17 deaths, with doctors suspecting organophosphate poisoning from pesticides as the possible cause.

    What are Organophosphates?

    • Organophosphates (OPs) are a class of chemical compounds primarily used as pesticides and insecticides in agriculture.
    • They work by disrupting the nervous system by inhibiting the enzyme acetylcholinesterase (AChE), leading to excessive nerve stimulation.
    • It is commonly used in agriculture, household pest control, and chemical warfare agents (e.g., nerve gases like Sarin).
    • It is found in pesticides such as malathion, chlorpyrifos, and diazinon.
    • Effects of OP poisoning:
      • Acute Symptoms: Excessive sweating, nausea, vomiting, diarrhea, muscle twitching, breathing difficulty, seizures, and coma.
      • Chronic Effects: Neurological disorders, memory loss, muscle weakness, and reproductive toxicity.

    Treatment for Organophosphate Poisoning

    • Organophosphate poisoning requires immediate medical attention to prevent fatal complications.
      • Decontamination: Remove contaminated clothing, wash exposed skin, and use activated charcoal if ingested.
    • Medical Treatment:
      • Atropine: Blocks excess nerve stimulation.
      • Pralidoxime (2-PAM): Restores enzyme function.
      • Oxygen therapy and ventilator support if needed.
      • Supportive Care: IV fluids, anti-seizure medications, and hospitalization in severe cases.

  • India to launch first Human Underwater Submersible (Deep-Sea Manned Vehicle)

    Why in the News?

    India is set to launch its first human underwater submersible (deep-sea manned vehicle) in 2025, marking a significant achievement in the country’s scientific and technological journey.

    About the Submersible:

    • The submersible will initially operate at a depth of 500 meters, with the goal of reaching a depth of 6,000 meters by next year.
    • Part of the Deep Ocean Mission, the initiative focuses on exploring untapped underwater resources and advancing India’s blue economy.
    • The submersible is being developed using 100% indigenous technology, demonstrating India’s commitment to self-reliance in advanced science and innovation.
    • The mission aims to unlock vast underwater resources, including: Critical minerals, Rare metals and undiscovered marine biodiversity.

    About the Deep Ocean Mission (DOM):

    • DOM is an ambitious initiative by the Ministry of Earth Sciences (MoES) approved in 2021 to develop technologies for deep-sea exploration.
    • Part of the 9 missions under the Prime Minister’s Science, Technology, and Innovation Advisory Council (PMSTIAC).

    Important updates in DOM: Samudrayaan and Matsya6000:

    • Launched in 2021 under DOM, Samudrayaan is India’s flagship crewed expedition to reach a depth of 6,000 m in the Central Indian Ocean.
    • The mission will utilize Matsya6000, a deep-ocean submersible designed for a three-member crew.
      • Construction: Made from titanium alloy to endure pressures up to 6,000 bar.

    India’s Ocean Exploration Milestones:

    • 1981: Ocean studies began with a program on polymetallic nodules (PMN) initiated at CSIR-NIO, marked by the collection of the first nodule sample from the Arabian Sea aboard the research vessel Gaveshani.
    • 1987: India became the first country to receive Pioneer Investor status from the International Seabed Authority (ISA).
      • Allocated 1.5 lakh km² in the Central Indian Ocean Basin (CIOB) for nodule exploration, based on extensive surveys by CSIR-NIO.
    • 2002: India signed a contract with the ISA; after resource analysis, surrendered 50% of the allotted area, retaining 75,000 km².
    • Further studies narrowed the mining area to 18,000 km², identified as the First Generation Mine-site.

  • Mission SCOT

    Why in the News?

    Onboard SpaceX’s Transporter-12 mission, Indian space surveillance firm Digantara successfully launched SCOT (Space Camera for Object Tracking), the world’s first commercial Space Situational Awareness (SSA) satellite.

    About Mission SCOT:

    Details
    • World’s first commercial SSA satellite, designed to track and characterize Resident Space Objects (RSOs) in Low Earth Orbit (LEO).
    • Launched via SpaceX’s Transporter-12 mission as part of a rideshare program.
    • Supported by Aditya Birla Ventures and SIDBI.
    Note: As part of the Network for Space Objects Tracking and Analysis (NETRA), ISRO is also developing a Space Surveillance and Tracking (SST) network equipped with advanced radars and optical telescopes to strengthen threat analysis and safeguard space assets.
    Aims and Objectives
    • Enhancing Space Safety: Prevent satellite collisions and optimize orbital resources.
    • Sovereign Surveillance: Strengthen India’s capabilities to protect its space assets.
    • Technological Leadership: Address gaps in global SSA technologies.
    • Sustainability: Promote safer and more sustainable space operations.
    Features/Significance
    • Operates in a sun-synchronous orbit, unaffected by weather or geography.
    • Tracks RSOs as small as 5 cm with high revisit rates and accuracy.
    • Safeguards critical satellites crucial for economic and strategic security.
    • Optimizes traffic management and enhances collision avoidance.
    Contribution to India’s Growth
    • Demonstrates India’s leadership in SSA technologies.
    • Highlights the role of Indian startups in space innovation.
    • Establishes India as a reliable international space partner.
    • Fosters investment in advanced surveillance technologies for future space developments.

     

    PYQ:

    [2010] In the context of space technology, what is “Bhuvan”, recently in the news?

    (a) A mini satellite launched by ISRO for promoting the distance education in India

    (b) The name given to the next Moon Impact Probe, for Chandrayan-II

    (c) A geoportal of ISRO with 3D imaging capabilities of India

    (d) A space telescope developed by India

  • VP calls for authentic, practical research

    Why in the News?

    Vice President Jagdeep Dhankhar stressed the need for genuine research and innovation that can bring real change. He called for indigenisation beyond basic levels and highlighted the role of patents and technology in making India a global leader.

    What is Authentic and practical research? 

    • Authentic and practical research is genuine, cutting-edge, and impactful, addressing real-world challenges, driving innovation, and creating lasting change by advancing knowledge and delivering meaningful, applicable solutions to societal needs.

    What is India’s status in patents and technology? 

    • Global Position: India has secured the sixth position globally in patent filings, as reported by the World Intellectual Property Organization (WIPO) in the World Intellectual Property Indicators (WIPI) 2024 report. This marks a notable achievement as India enters the top ten for the first time across all three major intellectual property rights: patents, trademarks, and industrial designs.
    • Growth Rate: In 2023, India recorded a 15.7% increase in patent applications, totaling 64,480 filings. This growth is part of a broader trend, marking the fifth consecutive year of double-digit growth in patent applications.

    What constitutes “authentic and practical research”?

    • Authenticity: The Vice President stressed that research must be genuine and not merely superficial.
      • Authentic research should correlate with real-world changes and have lasting significance rather than being momentarily relevant before gathering dust on shelves.
    • Cutting-edge Nature: He called for research that is at the forefront of innovation, pushing boundaries rather than just covering existing knowledge.
    • Practical Impact: The Vice President emphasized that research should aim to change ground realities, making it essential for it to be applicable and impactful in society.

    How can India improve its research and development (R&D) landscape?

    • Focus on Patents: The Vice President pointed out that India’s contribution to global patents is lacking. He urged a shift towards more consequential fields of research that can enhance India’s standing in the global community.
    • Nurturing Startups: He called for supporting domestic startups and indigenous component development, suggesting that established companies like BEL should help these startups thrive by providing guidance and resources.
    • Educational Reform: Emphasizing the need to instill a spirit of innovation in students, he noted that educational institutions should foster creativity and practical skills rather than merely focusing on degrees.

    What are the initiatives to improve the Research Ecosystem in India?

    • Encouraging Corporate Involvement: The Vice President highlighted the necessity for corporates to take initiative in R&D, suggesting that they converge on a platform to significantly boost research efforts.
    • Leading in Semiconductors: He urged BEL to lead the semiconductor revolution from design to manufacture, indicating a strategic direction for enhancing technological capabilities in India.

    What are the barriers to effective research in India?

    • Superficial Research Output: The tendency to produce research that lacks depth and practical application is a significant barrier. The Vice President criticized research papers that are presented but quickly forgotten, calling for more substantial contributions.
    • Limited Global Recognition: He noted that much of India’s research does not achieve recognition at an international level, which undermines its potential impact.
    • Awareness of Opportunities: Many young individuals remain unaware of the diverse opportunities available beyond traditional government jobs, limiting their engagement with innovation and entrepreneurship.

    Way forward: 

    • Strengthening Industry-Academia Collaboration: Foster partnerships between academic institutions and industries to ensure research is aligned with practical needs, enhancing innovation and commercialisation opportunities.
    • Incentivizing High-Impact Research: Establish grants, rewards, and global recognition programs for researchers focusing on cutting-edge and transformative fields, driving significant contributions to India’s R&D landscape.

    Mains PYQ:

    Q Do you agree with the view that increasing dependence on donor agencies for development reduces the importance of community participation in the development process? Justify your answer.(UPSC IAS/2022)

  • GenomeIndia project complete, PM Modi calls it historic

    Why in the News?

    India has created a database of 10,000 human genomes, covering 83 population groups, which is about 2% of the country’s 4,600 population groups.

    What are the key achievements of the Genome India Project?

    • Completion of Genome Sequencing: The project successfully sequenced 10,000 human genomes from 83 population groups, representing approximately 2% of India’s 4,600 population groups. This data is now housed at the Indian Biological Data Centre (IBDC) in Faridabad, Haryana.
    • Identification of Genetic Variants: Initial analyses revealed around 27 million genetic variants, with 7 million being low-frequency variants not found in other global databases. This highlights India’s unique genetic diversity and the potential for targeted research.
    • Global Accessibility: The genome data is accessible to researchers worldwide, fostering international collaboration in genomics research and precision medicine.

    What are the impact on Biotechnology and Healthcare?

    • Advancement of Precision Medicine: The database is expected to facilitate advancements in precision medicine by enabling researchers to study disease risks and drug responses specific to the Indian population. This could lead to more effective treatments tailored to genetic variations.
    • Potential for Drug Development: With a focus on understanding genetic predispositions to diseases, the project can support the development of new medications and therapeutic interventions, particularly for genetic and infectious diseases.
    • Strengthening India’s Biotech Economy: The initiative is seen as a cornerstone for bolstering India’s biotechnology sector, enhancing its capacity for genomic research and manufacturing.

    What are the challenges? 

    • Data Privacy and Security: India currently lacks a comprehensive Data Privacy Bill, which raises concerns about the protection of sensitive genetic information. 
      • The absence of robust legal frameworks increases the risk of misuse or unauthorized access to genetic data, potentially compromising individual privacy.
    • Ethical Concerns: The use of genomic data for purposes such as gene editing could lead to ethical dilemmas, including issues related to “designer babies” and unintended consequences of genetic modifications.  
    • Public Trust and Acceptance: Gaining public trust is crucial for the success of the project. There may be apprehensions among individuals regarding how their genetic data will be used, especially if it involves sharing with commercial entities or if there are fears about potential discrimination based on genetic information.
    • Integrity of Data Collection: Ensuring the integrity and accuracy of data collection, storage, and usage is essential. 
      • Without stringent protocols, there is a risk that the data may be misinterpreted or misused, leading to flawed conclusions about genetic predispositions and health risks.

    What steps can be taken to overcome the present challenges? (Way forward)

    • Expanding the Database: Experts suggest increasing the number of sequenced genomes to up to 1 million to better capture India’s vast genetic diversity. This expansion would provide deeper insights into genetic variations across different ethnic groups.
    • Funding and Collaboration: Securing additional funding and forming partnerships with leading research institutions can help overcome financial limitations and enhance data enrichment efforts.
    • Ethical Data Management: Ensuring robust data sharing protocols and privacy measures will be crucial for maintaining public trust and facilitating research access while protecting individual identities.

  • Rudra High-Performance Green Propulsion System

    Why in the News?

    Bellatrix Aerospace, the Bengaluru-based space startup, has announced a significant milestone with the successful demonstration of its Rudra High-Performance Green Propulsion System during the PSLV C-60 mission, onboard the POEM-4 platform.

    About Rudra 1N System:

    • The Rudra 1N System is an advanced green mono-propellant propulsion system developed by Bellatrix Aerospace, a Bengaluru-based space technology start-up.
    • It is a cutting-edge solution for space propulsion, designed to enhance efficiency, precision, and sustainability in satellite and space platform operations.
    • Features and Significance:
      • Demonstrated a 1.4-degree/sec disturbance on the Yaw axis and an 80-degree angular rotation during its operational tests, highlighting its precise manoeuvering capabilities.
      • Utilizes a non-toxic, environmentally friendly propellant to minimize ecological impact during space missions.
      • Offers a cleaner alternative to traditional chemical propulsion systems.
      • Entirely designed and manufactured in-house, showcasing Bellatrix Aerospace’s technological independence.
      • Suitable for a variety of satellite sizes and mission profiles, offering scalability.

    About the PSLV Orbital Experimental Module (POEM-4)

    • POEM-4 is a platform developed by ISRO that repurposes the spent 4th stage of the Polar Satellite Launch Vehicle (PSLV) into a functional orbital laboratory.
    • It enables cost-effective research in space by hosting various scientific and technological experiments in microgravity.
    • It utilizes the fourth stage of the PSLV rocket as a stable microgravity testbed.
    • It supports diverse experiments, such as studying plant growth, bacterial behavior, and other space phenomena.
    • It thus maximizes the utility of what would otherwise become space debris.
    • POEM-4 was launched aboard the PSLV-C60 rocket, also known as the SpaDeX (Space Docking Experiment) mission.

  • Why ISRO’s ‘docking’ mission today is critical for India’s space ambitions?

    Why in the News?

    Recently, the Indian Space Research Organisation (ISRO) launched its Space Docking Experiment (SpaDeX) in space with a PSLV rocket.

    What is SpaDeX mission? 

    • The SpaDeX mission, or Space Docking Experiment, is a significant initiative by the Indian Space Research Organisation (ISRO) aimed at demonstrating advanced in-space docking technology.
    • Docking technology involves manoeuvring two spacecraft into the same orbit, aligning them precisely, and physically joining them to enable modular assembly, resupply, crew transfer, or sample return missions in space.

    What is Space Docking?

    • Space docking refers to the process where two spacecraft in orbit rendezvous and physically connect to form a single entity. It is a highly complex and precise maneuver essential for advanced space missions.
    • Key Steps of Space Docking:
    1. Rendezvous: Involves bringing two spacecraft into the same orbit with minimal distance and velocity difference.
    2. Docking: Establishing a mechanical connection between the spacecraft using specialized docking systems.
    3. Power and Resource Sharing: Once docked, the spacecraft can transfer power, fuel, or crew to support joint operations.

    What is the significance of India’s achievement in space docking technology?

    • Joining an Elite Club: With the successful completion of the SpaDeX mission, India becomes only the fourth country in the world, after the United States, Russia, and China, capable of conducting space docking operations. This positions India as a key player in global space exploration and technology.
    • Foundation for Future Missions: The docking capability is crucial for various upcoming missions, including India’s plans for a lunar sample return mission (Chandrayaan-4) and establishing its own space station by 2035. The ability to dock spacecraft allows for complex missions that require multiple launches and assembly in orbit.

    How does the SpaDeX mission contribute to India’s future space exploration goals?

    • Support for Lunar Missions: SpaDeX is designed to demonstrate technologies necessary for future lunar missions, particularly for Chandrayaan-4, which will involve multiple components that need to be docked in space before proceeding to the Moon.
    • Bharatiya Antariksh Station: The mission is a critical step towards building the Bharatiya Antariksh Station (BAS), which will consist of several modules that must be docked together in orbit. The first module is expected to launch by 2028.
    • Satellite Servicing and Interplanetary Missions: The docking technology developed through SpaDeX will facilitate satellite servicing missions and interplanetary missions, enhancing India’s capabilities in space exploration.

    What technological advancements were demonstrated through the SpaDeX mission?

    • Innovative Docking Technology: The mission showcases advanced docking techniques using two small satellites (SDX01 and SDX02), which require high precision due to their smaller size compared to typical spacecraft. This necessitates more intricate maneuvering during the docking process.
    • New Sensors and Systems: SpaDeX employs various new sensors such as Laser Range Finders and Rendezvous Sensors to ensure accurate measurements during docking.
      • Additionally, it utilizes a new processor for determining relative positions and velocities, paving the way for future autonomous docking systems.
    • Biological Experiments: For the first time, ISRO is conducting biological experiments in space with the CROPS (Compact Research Module for Orbital Plant Studies), which will study plant growth under microgravity conditions. This adds a new dimension to India’s space research capabilities.

    Way forward: 

    • Enhancing Autonomous Docking Systems: Focus on developing fully autonomous docking capabilities for complex missions, enabling seamless execution of lunar, interplanetary, and modular space station operations.
    • Strengthening Collaborative Ventures: Leverage international partnerships to exchange expertise and expand applications of docking technology in satellite servicing, resupply missions, and deep-space exploration.

    Mains PYQ:

    Q What is India’s plan to have its own space station and how will it benefit our space programme?(UPSC IAS/2019)