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Marine and space biotechnology: Emerging frontiers for India

15 Jan 2026 GS 3 Science & Technology
Marine and space biotechnology: Emerging frontiers for India Click to view full image

Concept

Marine biotechnology

Marine biotechnology involves studying microorganisms, algae, and other marine life to discover bioactive compounds, enzymes, biomaterials, food ingredients, and biostimulants.

Marine organisms are adapted to high pressure, high salinity, low light and nutrient-poor conditions, making them sources of novel molecules.

Space biotechnology

Space biotechnology, meanwhile, studies how microbes, plants, and human biological systems behave under microgravity and radiation

Why India needs marine and space biotechnology

Marine biotechnology

  • India has:

    • Coastline of over 11,000 km

    • Exclusive Economic Zone (EEZ) of over 2 million sq. km

  • Despite rich marine biodiversity:

    • India’s share in global marine outputs remains low.

  • Potential benefits:

    • New sources of food, energy, chemicals and biomaterials

    • Reduced pressure on land, freshwater and agriculture

    • Support to Blue Economy and sustainable growth

Space biotechnology

  • Critical for India’s long-term space exploration ambitions.

  • Enables:

    • Safe food production in space

    • Human health management

    • Biological manufacturing in extreme environments

  • Strategic relevance for future space stations and deep-space missions.

India’s current status

Marine biotechnology in India

Domestic production:

  • Seaweed cultivation remains modest at ~70,000 tonnes annually.

Import dependence:

  • India imports seaweed-derived products such as:

    • Agar

    • Carrageenan

    • Alginates

  • Used in food, pharmaceuticals, cosmetics, and medical applications.

Targeted initiatives under the Blue Economy agenda, the Deep Ocean Mission, and, more recently, the BioE3 are pushing the sector toward integrated marine biomanufacturing, linking cultivation, extraction, and downstream applications.

Strategic shift:

  • Movement towards integrated marine biomanufacturing, linking:

    • Cultivation

    • Extraction

    • Downstream value-added applications

  • Institutional and private efforts:

    • ICAR–Central Marine Fisheries Research Institute

    • Private players such as Sea6 Energy and ClimaCrew

    • State-level initiatives like Vibrant Gujarat Regional Conference

  • Trend:

    • Shift towards integrated marine biomanufacturing (cultivation → extraction → downstream products).

Space biotechnology in India

  • Led by Indian Space Research Organisation.

  • Microgravity biology programme studies:

    • Microbes

    • Algae

    • Biological systems

  • Focus areas:

    • Food production

    • Life-support regeneration

    • Human health in space

  • Limitation:

    • Private sector participation remains limited due to nascent nature of the field.

International experience

European Union

  • Invests heavily in:

    • Marine bioprospecting

    • Algae-based biomaterials

    • Bioactive compounds

  • Supported by shared research infrastructure such as:

    • European Marine Biological Resource Centre

China

  • Rapid expansion of:

    • Seaweed aquaculture

    • Marine bioprocessing

  • Strong scale advantage in marine biomass.

United States

  • Global leader in space biotechnology.

  • Research conducted through:

    • NASA

    • International Space Station

  • Focus areas:

    • Microbial behaviour

    • Protein crystallisation

    • Stem cells

    • Closed-loop life-support systems

  • Applications in:

    • Drug discovery

    • Regenerative medicine

    • Long-duration human missions

Key challenges

  • Slow and fragmented research and development.

  • Limited integration across:

    • Research institutions

    • Industry

    • Policy frameworks

  • Low private-sector participation, especially in space biotechnology.

Way forward

  • Develop a dedicated national roadmap with:

    • Clear timelines

    • Defined outcomes

  • Strengthen:

    • Integrated marine biomanufacturing ecosystems

    • Public–private partnerships

    • Translational research and scaling

  • Position India as a global hub for futuristic biomanufacturing.

Prelims Practice MCQs

Q. With reference to marine biomass production in India, consider the following statements:

  1. India’s annual cultivated seaweed production is less than one lakh tonnes.

  2. India is largely self-sufficient in seaweed-derived products such as agar and alginates.

  3. Seaweed-derived products are used in pharmaceuticals and medical applications.

Which of the statements given above are correct?

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

Answer: (a)

Explanation:

  • India produces ~70,000 tonnes of cultivated seaweed → Statement 1 correct.

  • India imports agar, carrageenan and alginates → Statement 2 incorrect.

  • These products are widely used in pharma and medical sectors → Statement 3 correct.



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