About Gandhi Sagar Wildlife Sanctuary:

• It is situated in northwestern Madhya Pradesh, with one of its boundaries running along the border of Rajasthan.
• The sanctuary was notified in 1974 and is spread over an area of 368 sq.km.
• Rivers: The Chambal River flows through the sanctuary, dividing it into two parts.
• The presence of the Gandhi Sagar Dam further enhances the region, forming a large reservoir.
• The sanctuary houses sites of historical and archaeological significance, such as Chaurasigarh, Chaturbhujnath Temple, Bhadkaji rock paintings, Hinglajgarh Fort, and Taxakeshwar Temple.
• Topography: A major part of the sanctuary consists of vast open landscapes with sparse vegetation and rocky terrain, with small patches of dense forests here and there.
• Flora:
  • It lies within the Khathiar-Gir dry deciduous forests ecoregion.
  • The principal tree species found are Khair, Salai, Kardhai, Dhawda, Tendu, Palash and the like.
• Fauna:
  • Herbivores like Chinkara, Nilgai and Spotted Deer, and carnivores like the Indian Leopard, Striped Hyena and Jackal are found in good numbers in the region.
  • It was chosen as a favourable site for the reintroduction of cheetahs in India.
  • It is a designated Important Bird and Biodiversity Area (IBA).

About Pneumocystis jirovecii:

• It is an opportunistic fungal pathogen.
• It can cause pneumonia in patients with impaired immune systems, such as those with AIDS or who are receiving immunosuppressive drugs.
• It is a ubiquitous organism transmitted by aerosol route and causes no disease in immunocompetent patients.
• Initially classified as a protozoan, it has been considered a fungus since the 1990s based on molecular analyses.
• Its life cycle primarily consists of trophic (eg, trophozoites) and cystic forms.

What is Pneumocystis pneumonia (PCP)?

• It is a lung infection that mainly affects people with weakened immune systems. The fungus Pneumocystis jirovecii causes it. 
• Signs and symptoms of Pneumocystis pneumonia: Fever, Chills, Cough, Shortness of breath (dyspnea), Fatigue etc.
• Transmission: jirovecii is transmitted from one person to another through the air when someone coughs, sneezes or talks.
• Treatment: It is treated with high doses of the antibiotic trimethoprim-sulfamethoxazole (TMP-SMX).

About North Sea:

• Location: It is a shallow northeastern arm of the Atlantic Ocean nestled between the British Isles and northwestern Europe. 
• Borders and Connections:
  • It is bordered by Great Britain (southwest and west), Orkney and Shetland Islands (northwest), Norway (northeast), Denmark (east), Germany and the Netherlands (southeast), and Belgium and France (south).
  • It connects to the Atlantic Ocean via the English Channel in the southwest and the Baltic Sea in the east via the Kattegat and Skagerrak straits.
• Rivers: Major rivers that drain into the North Sea include the Forth, Elbe, the Weser, the Ems, the Rhine and Meuse, the Scheldt, the Thames, and the Humber.
• Economic Importance:
  • Natural Resources: It contains significant reserves of petroleum and natural gas beneath the seafloor.
  • It is one of Europe’s most productive fisheries.
  • It is the major shipping zone for trade among European countries and between Europe and the Middle East.

About Himalayan Monal:

• The Himalayan Monal (Lophophorus impejanus) is also known as the Impeyan Monal or Danphe.
• They are among the larger birds in the Phasianidae family.
• It is the state bird of
• Appearance: It exhibits high sexual dimorphism—the males are decked head to toe in multicoloured plumage and exhibit a long green metallic crest, while the females have a pale blue eye patch, white throat, and a streaky brown body.
• Habitat:
  • It occupies the upper temperate forests of conifers and oak with open grasslands.
  • It typically inhabits altitudes between 2,500 and 4,000 meters in Great Himalayan National Park (GHNP).
  • It is commonly sighted in Tirthan Valley, especially during the spring and post-monsoon seasons.
• Distribution: It is found across the Himalayan mountains, including in Jammu and Kashmir, Himachal Pradesh, Uttarakhand and Sikkim.
• Behaviour:
  • It is a ground-dwelling bird, often seen digging through leaf litter or soft soil with its powerful beak in search of roots, tubers, seeds, insects, and grubs.
  • It exhibits a clear altitudinal migration, descending as low as 2,000m in winter.
  • However, it also shows tolerance to snow and has been observed digging through snowfall for roots, tubers and invertebrates.
• Threats: It faces threats from habitat loss, hunting, and disturbance from tourism.
• Conservation Status:
  • IUCN Red List: Least Concern 
  • Wildlife Protection Act, 1972:  Schedule I.

About Advance Authorization Scheme:

• It allows duty free import of inputs, which are physically incorporated in an export product.
• In addition to any inputs, packaging material, fuel, oil and catalysts which are consumed/utilized in the process of production of export products, are also allowed.
• It is overseen by the Directorate General of Foreign Trade (DGFT).
• The inputs imported are exempt from duties like,
• Basic Customs Duty, Additional Customs Duty, Education Cess, Anti-dumping duty, Safeguard Duty and Transition Product-Specific Safeguard duty, Integrated tax, and Compensation Cess, wherever applicable, subject to certain conditions. 
• An export obligation is usually set as a condition for issuing Advance Authorization.
• Advanced Authorization Coverage:
  • Manufacturer Exporters: Entities engaged in manufacturing goods for export.
  • Merchant Exporters tied to Supporting Manufacturer(s): Traders who do not manufacture themselves but procure goods from a supporting manufacturer for export.
• The Advanced Authorization shall be issued for
  • Physical exports
  • Intermediate supply
  • Supplies made to specified categories of deemed exports
  • Supply of ‘stores’ on board of a foreign-going vessel/aircraft, provided that there are specific Standard Input Output Norms (SION) in respect of items supplied.
• Advance Authorization is valid for 12 months from the date of issue of such Authorization.

About Elias 2-24 b:

• It is an exoplanet which is still whirling in its natal disk of dust and gas.
• It is the youngest known planet discovered so far and is located roughly 450 light-years from Earth.
• Size: It is orbiting the star Elias 2-24, and its size is somewhere between two and four times that of Jupiter.
• The planet is still in the process of forming within its native gas-and-dust disk.
• It is less than 1 million years old, making it much younger than previously known youngest planets (over 5 million years old), including planets around PDS 70 and WISPIT 2.
• It orbits its young star at about 55 times the Earth–Sun distance.

What are Exoplanets?

• These are planets that orbit other stars and are beyond our solar system.
• Exoplanets come in a host of different sizes.
• They can be gas giants bigger than Jupiter or as small and rocky as Earth. They are also known to have different kinds of temperatures; boiling to cold.

Context

• India is entering a new frontier of scientific and technological exploration: the deep ocean.
• Advances in underwater robotics, submersibles and seabed exploration have created the ability to access mineral resources thousands of metres beneath the ocean.
• However, technological capability raises a fundamental question: should everything that can be exploited technologically necessarily be exploited?
• The deep ocean remains poorly understood, making the balance between strategic resource needs and ecological responsibility

India’s Growing Deep-Sea Capabilities

• India holds three International Seabed Authority exploration contracts covering about 95,000 sq km across the Central Indian Ocean Basin, Central Indian Ridge and Carlsberg Ridge.
• Exploration has identified approximately 366 million tonnes of polymetallic nodules containing nickel, copper, cobalt and manganese, minerals important for advanced manufacturing and the energy transition.
• Under the Deep Ocean Mission, India is developing deep-sea mining technology, underwater robotics and the MATSYA-6000 human submersible.
• The National Institute of Ocean Technology has tested a mining machine at around 5,270 metres depth
• Scientific exploration has simultaneously revealed the ocean's ecological complexity.
• Biodiversity surveys across 19 seamounts have examined about 1,300 deep-sea organisms, including nearly 23 species reported as new to science. Such discoveries demonstrate how much remains unknown.

The Ecological Limits of Technological Progress

• The assumption that technological feasibility equals ecological acceptability is particularly risky in the deep ocean.
• Seabed mining could disturb habitats, generate sediment plumes and disrupt ecological relationships.
• Since many deep-sea ecosystems are poorly understood, the long-term effects of large-scale disturbance may be uncertain or irreversible.
• This is not an argument against scientific research. Instead, it supports more science before irreversible intervention.
• Exploration can expand knowledge, establish environmental baselines and develop technology without automatically leading to commercial extraction.

Strategic Minerals Versus Ecological Necessity

• Deep-sea minerals have legitimate strategic importance for renewable energy, electric mobility and advanced manufacturing.
• Yet strategic value alone cannot establish ecological permission.
• Before extraction, India should determine whether minerals are genuinely necessary at the proposed scale, whether alternative materials and sources exist, and whether demand can be reduced through recycling, efficiency, substitution and circular-economy practices.
• The key question should therefore shift from How can we mine with minimum damage?” to “Do we need to mine at all?

From Extraction to a Circular Economy

• The deep-sea mining debate is fundamentally linked to patterns of resource consumption.
• Continuously opening new extraction frontiers is not a sustainable response to rising mineral demand.
• A stronger approach would emphasise resource efficiency, recycling, reuse, repair and substitution.
• Mission LiFE provides a relevant framework by encouraging responsible consumption and behavioural change.
• A circular economy can reduce pressure on both terrestrial and marine ecosystems by keeping materials in productive use for longer.
• Deep-sea resources should therefore not be treated as an automatic solution to the mineral requirements of India's development.

India’s Opportunity for Ecological Leadership

• India's current position at the exploration stage provides an opportunity to develop a model of deep-sea ecological governance.
• The deep ocean can be recognised as natural capital, rather than merely a mineral reserve.
• Any future exploitation should be preceded by comprehensive biodiversity assessments, transparent monitoring, rigorous environmental standards and compelling evidence of necessity.
• India can demonstrate that technological leadership and environmental restraint are compatible.

Sustainable Development and Natural Capital

• Nature-based Solutions, Sustainable Development Goals, Circular Economy and Mission LiFE share a common principle: economic development ultimately depends upon healthy ecosystems.
• Sustainability should therefore mean more than extracting resources with reduced environmental damage.
• It should also involve reducing unnecessary extraction and protecting ecosystems whose full ecological and economic value remains uncertain.
• The deep ocean is an important test of this principle because its ecological functions may ultimately prove more valuable than its mineral wealth.

Conclusion

• India's deep-sea programme demonstrates significant scientific, technological and strategic capabilities.
• Yet progress should not be measured solely by how deeply India can explore or how efficiently it can extract resources.
• True scientific maturity requires combining technological capability with ecological wisdom, precaution and restraint.
• Exploration should continue to expand knowledge, while commercial exploitation should remain subject to strong evidence of necessity and environmental safety.

Context

• India is gradually shifting from being primarily a technology adopter to becoming a technology creator.
• Public research institutions, universities, corporate R&D centres and deep-tech startups are increasingly contributing to indigenous innovation.
• Developments in Gallium Nitride (GaN) semiconductors, CAR-T cancer therapy, space technology, 5G/6G and AI-enabled healthcare demonstrate this transformation.
• India has therefore developed the foundations of an innovation economy, but converting scientific capabilities into sustained technological and economic strength remains a challenge.

The Three Pillars of India’s Innovation Ecosystem

• A strong innovation economy rests on three interconnected pillars: public research, private-sector R&D and deep-tech entrepreneurship.
• Public institutions undertake long-term research, universities develop knowledge and skilled talent, while corporations provide capital and industrial capabilities.
• Startups increasingly transform laboratory discoveries into marketable products.
• The growing interaction among these sectors is creating an integrated innovation pipeline, linking scientific research with industrial production and commercial applications.

Patent Growth: Progress with Important Limitations

• India's patent filings increased from over 1,10,000 in 2024-25 to more than 1,43,000 in 2025-26, a 30.2% rise.
• Domestic applicants account for nearly seven in ten filings, indicating greater participation by Indian researchers, companies and institutions.
• Yet patent applications do not automatically translate into successful innovation.
• India had just over 2,40,000 patents in force in 2025, compared with approximately 5.7 million in China, 3.5 million in the U.S. and 2.1 million in Japan.
• India also spends less than 1% of GDP on R&D, substantially below China and the U.S. Increasing expenditure and improving the conversion of research into commercially successful technologies are therefore essential.

GaN Technology and Strategic Self-Reliance

• The development of Gallium Nitride-based semiconductor technology illustrates the strategic value of indigenous research.
• GaN-based MMICs are important for advanced radar, defence, space systems and next-generation communications.
• DRDO laboratories developed indigenous GaN capabilities, helping India reduce dependence on restricted foreign technologies.
• Technology transfer is now expanding GaN applications to 5G/6G infrastructure, electric vehicles and renewable-energy systems.
• The emergence of AGNIT Semiconductors, a spin-off from IISc, demonstrates how public and academic research can move towards commercialisation.
• Such developments strengthen technological sovereignty and strategic autonomy.

From Technology Implementer to Standard Setter

• India is also seeking a greater role in shaping global telecommunications standards. The Bharat 6G Alliance aims to contribute 10% of global 6G patents by 2030.
• Its members have made thousands of patent filings and increased technical contributions to 3GPP.
• Although applications are not equivalent to granted or standard-essential patents, participation in standards development can determine future market influence and intellectual-property ownership.
• The rise of Jio Platforms among major international patent filers indicates India's growing effort to move from technology implementation towards standard-setting and intellectual-property ownership.

Deep-Tech Startups Expand the Innovation Frontier

• India's startup ecosystem is increasingly moving beyond conventional digital services towards deep technology, advanced manufacturing and space innovation.
• Pixxel Space is developing hyperspectral imaging through satellite technology, while Skyroot Aerospace and Agnikul Cosmos are advancing indigenous launch technologies.
• Such ventures combine engineering expertise, scientific research and cost-efficient innovation.
• Government initiatives and private investment are particularly important because deep-tech companies face long development cycles, high capital requirements and substantial technological risks. 

Healthcare Innovation and Inclusive Technology

• Innovation is also transforming healthcare. ImmunoACT's NexCAR19, India's indigenous CAR-T cell therapy, demonstrates the potential to make advanced cancer treatment considerably more affordable.
• Similarly, Remidio Innovative Solutions uses smartphone-based retinal imaging and AI to detect conditions such as diabetic retinopathy and glaucoma.
• These examples reflect frugal innovation, where advanced technologies are redesigned for affordability, accessibility and large-scale deployment.

Bridging the Innovation-to-Market Gap

• India must address several structural weaknesses. R&D expenditure needs to rise, particularly private investment in high-risk research.
• Technology-transfer mechanisms between public institutions and industry must become more efficient, while patent examination capacity should expand.
• The most important challenge is the commercialisation gap between research and the first paying customer.
• Startups and researchers require better access to capital, testing facilities, manufacturing infrastructure, regulatory support and markets.
• Stronger industry-academia partnerships, standardised technology-transfer frameworks and patient capital can help bridge this gap. 

Conclusion

• India is gradually moving from being a technology consumer and implementer towards becoming a technology creator and potential standard setter.
• Public research, corporate R&D and deep-tech entrepreneurship are increasingly reinforcing one another.
• GaN semiconductors demonstrate strategic technological capability; 5G/6G research reflects growing participation in global standards; while space and healthcare startups show the commercial and social potential of indigenous innovation.
• India may not yet be an innovation superpower, but it is increasingly developing the institutions, intellectual property, technological capabilities and enterprises needed to build an innovation-led economy.