Content
13 countries join military exercise in Meghalaya
India to get ‘plastic notes’? RBI considers decade-old plan. What are polymer banknotes and are they better than paper?
‘BrahMos deal with Vietnam inked, Indonesia next in line’
New cascade frog species recorded in Nagaland’s hill-stream habitats
Why is India pushing for coal gasification?
Webb telescope captures weather on exoplanet 700 lightyears away
India, Oman trade pact to come into force from June 1; Check what’s inside
13 countries join military exercise in Meghalaya
Why in News?
Armies of 13 countries participated in the maiden multilateral military exercise ‘Pragati 2026’ conducted at Umroi in Meghalaya, marking an important initiative by India to strengthen regional defence cooperation and improve collective counter-insurgency capabilities in the wider Indian Ocean and Indo-Pacific region.
The two-week exercise brought together more than 400 soldiers, including nearly 20 women personnel, from countries such as:
Bhutan
Indonesia
Sri Lanka
Maldives
Vietnam
and India.
The exercise focused on:
Counter-insurgency operations
Interoperability
Special operations
Mutual trust-building
Use of niche technologies
in modern military environments characterised by hybrid and asymmetric threats.
Relevance
GS Paper 2: India’s neighbourhood relations, regional cooperation, Indo-Pacific engagement, defence diplomacy.
GS Paper 3: Internal security, counter-insurgency operations, defence modernisation, military technology.
Practice Question
“Multilateral military exercises have emerged as important instruments of defence diplomacy and regional security cooperation.” Discuss with reference to Exercise Pragati 2026. (250 words)
About Exercise Pragati 2026
Nature and Objectives of the Exercise
Exercise Pragati 2026 was the first edition of a multilateral military exercise aimed at enhancing:
Counter-insurgency coordination
Operational interoperability
Mutual confidence-building
among participating countries of the Indian Ocean and Southeast Asian region.
The exercise reflected India’s broader effort to strengthen collaborative security frameworks in an era marked by:
Cross-border insurgency
Terrorism
Maritime insecurity
Non-traditional security threats.
The name “Pragati” symbolises collective progress toward:
Regional stability
Shared security objectives
Coordinated military preparedness.
Participating Countries
The exercise involved armed forces personnel from 13 countries, including:
Bhutan, Cambodia, Indonesia, Laos, Malaysia, Maldives, Myanmar, Nepal, Philippines, Seychelles, Sri Lanka and Vietnam alongside India.
The broad participation reflected India’s expanding defence outreach across:
South Asia
Southeast Asia
Indian Ocean island states,
reinforcing its strategic role as a regional security partner.
Strategic Importance for India
Strengthening Defence Diplomacy
Exercise Pragati 2026 reflects India’s growing emphasis on defence diplomacy as a key instrument of foreign policy and regional engagement.
Through multilateral military cooperation, India seeks to:
Build strategic trust
Expand defence partnerships
Improve military coordination
with neighbouring and Indo-Pacific countries.
Such exercises strengthen India’s image as a:
Responsible regional power
Security partner
Net security provider in the Indian Ocean Region.
Indo-Pacific and Indian Ocean Strategy
Participation of countries from South Asia, Southeast Asia, and island nations reflects the exercise’s wider significance within the:
Indo-Pacific strategic framework
Indian Ocean security architecture.
India increasingly views regional stability through the lens of:
Maritime security
Connectivity
Counter-terrorism
Rules-based regional order.
Military cooperation supports India’s broader initiatives such as:
SAGAR (Security and Growth for All in the Region)
Act East Policy
Indo-Pacific partnerships.
Prelims Pointers
Exercise Pragati 2026 was conducted at Umroi in Meghalaya.
The exercise involved armed forces from 13 countries.
Focus areas included:
Counter-insurgency
Heliborne operations
IED detection
Tactical warfare drills.
India’s regional maritime vision is guided by SAGAR — Security and Growth for All in the Region.
Meghalaya is strategically important under India’s Act East Policy.
India to get ‘plastic notes’? RBI considers decade-old plan. What are polymer banknotes and are they better than paper?
Why in News?
The Reserve Bank of India (RBI) is reportedly reviving its decade-old proposal to introduce polymer banknotes, with a pilot project likely to begin soon for lower denomination notes such as ₹10 and ₹20, which deteriorate rapidly because of heavy circulation and repeated handling.
The renewed proposal comes amid a sharp rise in currency printing expenditure, increasing withdrawal of soiled banknotes, and continued expansion of cash circulation, despite rapid growth in digital payments through platforms such as UPI, mobile wallets, and internet banking systems.
More than 60 countries, including Australia, Canada, and United Kingdom, already use polymer currency, citing advantages such as longer durability, improved security features, lower replacement costs, and greater resistance to counterfeiting and environmental wear.
Relevance
GS Paper 3: Banking, Currency Management, Financial Infrastructure, Counterfeit Currency, and use of Technology in Governance.
Practice Question
“The introduction of polymer banknotes reflects the growing role of technology in improving currency management, durability, and security.” Examine. (250 words)
What are Polymer Banknotes?
Meaning and Nature
Polymer banknotes are currency notes printed on a thin and flexible plastic substrate instead of the conventional cotton-based paper used in traditional currency systems. Despite being called “plastic notes,” they remain lightweight, foldable, and suitable for routine public handling and circulation.
Polymer notes are designed to possess superior:
Durability
Moisture resistance
Security features
Resistance to dirt and tearing
compared to traditional paper notes, thereby significantly increasing their operational lifespan and reducing replacement frequency for central banks.
Difference from Conventional Currency
Traditional Indian banknotes are printed using specialised cotton-based paper blends, which deteriorate quickly under India’s humid climate, rough handling conditions, and extremely high transaction volumes across urban and rural markets.
Polymer banknotes resist:
Moisture
Dust accumulation
Tearing
Folding damage
far more effectively, allowing them to survive longer circulation cycles before becoming unfit for use or requiring withdrawal from circulation by the banking system.
Polymer currency can also incorporate sophisticated anti-counterfeiting technologies such as:
Transparent windows
Micro-optic holograms
Security threads
Specialised inks
making them significantly more secure than conventional paper currency systems.
Why is RBI Considering Polymer Notes?
Rising Currency Printing Costs
India’s expenditure on currency printing reportedly increased to nearly ₹6,372.8 crore in FY2025, compared to around ₹5,101.4 crore in FY2024, mainly because of rising demand for banknotes and frequent replacement of damaged and soiled currency notes.
Lower denomination notes such as ₹10, ₹20, and ₹50 deteriorate particularly fast because they circulate intensively among:
Street vendors
Public transport systems
Informal markets
Rural economies,
thereby creating continuous replacement pressure on the RBI and currency printing presses.
Since polymer notes remain in circulation substantially longer than paper notes, RBI expects long-term savings through reduced:
Printing frequency
Distribution costs
Storage requirements
Currency replacement operations.
Increase in Soiled Notes
During FY2025, approximately 23.8 billion soiled banknotes were reportedly withdrawn from circulation, representing a significant increase over the previous year and highlighting the operational burden associated with maintaining currency quality and circulation standards.
The largest share of soiled currency consisted of:
₹500 denomination notes
Followed by ₹100 notes,
indicating that high-frequency circulation rapidly degrades physical cash despite technological advances in printing quality and note design.
Frequent withdrawal and destruction of damaged notes impose major logistical and financial challenges involving:
Transportation
Verification
Shredding
Replacement printing,
thereby increasing operational costs for the banking and currency management ecosystem.
Continued Growth of Cash Economy
Despite rapid expansion of digital payments infrastructure, India’s currency in circulation reportedly reached approximately ₹42.86 trillion by May 2026, reflecting continued dependence on physical cash across large segments of the economy and informal sector.
Currency circulation reportedly increased by nearly 11.5% year-on-year, demonstrating that India continues functioning as a hybrid cash-digital economy, where physical currency remains essential for:
Rural transactions
Informal employment
Small retail trade
Daily wage payments.
The sustained importance of physical cash makes efficient, durable, and secure currency management a critical priority for the RBI and broader financial governance architecture.
Earlier Polymer Note Experiment in India
2012 Pilot Project
India first experimented with polymer currency in 2012, when the government approved field trials involving nearly one billion ₹10 polymer notes across five climatically diverse cities:
Kochi
Mysore
Jaipur
Bhubaneswar
Shimla.
The objective of the pilot project was to evaluate whether polymer notes could withstand India’s:
Humid climate
Dust exposure
Heavy handling conditions
Diverse temperature variations
better than conventional cotton-based paper notes.
The experiment represented one of India’s earliest attempts to modernise currency management through advanced material technology and international best practices.
Reasons for Earlier Failure
The 2012 initiative was eventually shelved because of several technological and operational challenges involving:
ATM compatibility
Cash sorting difficulties
Handling issues
Machine calibration limitations
across the banking ecosystem.
Existing ATMs and cash-processing machines struggled to:
Detect
Dispense
Authenticate
polymer notes efficiently, creating operational disruptions for banks and consumers during pilot testing.
At that stage, India’s financial infrastructure lacked sufficient technological readiness for large-scale polymer currency integration across the national banking network.
Why RBI is Revisiting the Proposal
Advances in:
ATM technology
Currency recognition software
Security printing systems
Polymer processing techniques
have reportedly addressed many of the earlier operational constraints that prevented successful implementation during the previous pilot phase.
Improved banking infrastructure and digital machine-learning systems now allow modern ATMs and sorting machines to process polymer notes more efficiently and accurately than before.
RBI’s renewed interest therefore reflects both:
Technological maturity
Growing economic necessity
arising from escalating currency management costs and rising circulation demand.
Advantages of Polymer Currency
Longer Operational Lifespan
Polymer banknotes generally remain in circulation two to five times longer than conventional paper notes because they possess greater resistance to:
Moisture
Dirt
Tearing
Repeated folding
under heavy public usage conditions.
Longer lifespan substantially reduces:
Currency replacement frequency
Printing costs
Transportation expenses
Operational burden on the RBI,
making polymer currency economically attractive over the long term despite higher initial manufacturing costs.
This durability advantage is especially important in India’s high-volume cash economy where low denomination notes experience extremely intensive circulation cycles.
Enhanced Security Features
Polymer notes can incorporate sophisticated anti-counterfeiting technologies including:
Transparent windows
Micro-optic devices
Embedded holograms
Dynamic optical patterns
that are extremely difficult for counterfeiters to replicate.
Improved security features strengthen efforts against:
Fake currency circulation
Terror financing
Financial fraud
Cross-border counterfeit networks,
which remain important internal security and monetary governance concerns.
Enhanced note authentication also improves public confidence in the integrity and reliability of the currency system.
Better Hygiene and Cleanliness
Polymer notes absorb significantly less:
Moisture
Sweat
Dust
Biological contaminants
compared to traditional paper notes, making them cleaner and more hygienic during prolonged circulation.
Hygiene concerns regarding currency handling became particularly prominent during the COVID-19 pandemic, when many countries explored safer and more durable cash management alternatives.
Cleaner currency also reduces deterioration rates and improves the overall appearance and usability of notes during circulation.
Environmental Advantages
Although polymer notes are plastic-based, their significantly longer circulation life reduces overall:
Raw material consumption
Printing frequency
Transportation emissions
associated with repeated production and replacement of damaged paper notes.
Worn-out polymer notes can also be:
Recycled
Reprocessed
into industrial plastic products such as furniture, construction materials, and packaging applications, thereby partially supporting circular-economy objectives.
Over the long term, reduced printing intensity may lower environmental pressure associated with paper manufacturing and currency disposal operations.
Challenges and Concerns
Higher Initial Production Cost
Polymer banknotes involve substantially higher upfront manufacturing costs because of:
Specialised plastic substrates
Advanced security technologies
Sophisticated printing processes
compared to conventional cotton-based paper notes.
Transitioning to polymer currency would also require major investment in:
ATM recalibration
Cash sorting systems
Banking infrastructure upgrades
Currency handling equipment.
Initial financial costs could therefore be significant despite potential long-term savings through improved durability.
Operational and Infrastructure Challenges
India’s enormous banking and cash-handling ecosystem presents major operational challenges for large-scale polymer note integration because millions of:
ATMs
Vending machines
Currency counters
Sorting machines
require recalibration and software updates.
Rural banking infrastructure and smaller cooperative banks may face greater adaptation difficulties due to:
Limited technological capacity
Financial constraints
Infrastructure gaps.
Smooth implementation therefore requires phased transition and coordinated technological preparedness across the financial system.
Global Experience with Polymer Notes
Countries Using Polymer Currency
More than 60 countries currently use polymer banknotes either fully or partially, including:
Australia
Canada
United Kingdom
Singapore
New Zealand.
Australia became the first country to introduce polymer currency in 1988 through a polymer ten-dollar note designed to combat counterfeiting and improve durability.
Most countries adopting polymer notes cite:
Lower replacement costs
Better durability
Enhanced security
Improved hygiene
as the primary reasons for transition.
Mixed Adoption Models
Several countries adopted a gradual transition strategy where:
Lower denomination notes became polymer-based
Higher denomination notes remained paper-based,
allowing central banks to test operational feasibility and public response incrementally.
Such hybrid models reduce:
Transition risk
Infrastructure disruption
Financial burden
while enabling gradual technological adaptation across banking systems.
RBI is similarly expected to begin with lower denomination notes before considering broader implementation.
Prelims Pointers
Polymer banknotes are printed on flexible plastic substrates instead of cotton-based paper.
India first experimented with polymer notes in 2012 through ₹10 note pilot projects.
Polymer notes generally last 2–5 times longer than conventional paper currency.
Australia introduced the world’s first polymer note in 1988.
RBI’s currency printing expenditure reportedly reached approximately ₹6,372.8 crore in FY2025.
Nearly 23.8 billion soiled banknotes were withdrawn from circulation during FY2025.
BrahMos deal with Vietnam inked, Indonesia next in line
Why in News?
India’s Defence Secretary Rajesh Kumar Singh stated at the Shangri-La Dialogue that a BrahMos missile deal with Vietnam has already been signed, while a similar agreement with Indonesia is in the final stages of negotiation.
The announcement marks a major milestone in India’s growing role as a defence exporter and reflects expanding strategic engagement with Southeast Asian countries amid intensifying geopolitical competition and maritime security concerns in the Indo-Pacific region.
Philippines had earlier become the first foreign buyer of the BrahMos supersonic cruise missile system, signalling India’s emergence as an important supplier of advanced defence platforms to friendly foreign countries.
Relevance
GS Paper 2: India’s foreign policy, Indo-Pacific strategy, relations with ASEAN countries, strategic partnerships.
GS Paper 3: Defence technology, defence exports, missile systems, strategic security architecture.
Practice Question
“India’s growing defence exports reflect both strategic ambition and technological maturity.” Examine with reference to BrahMos missile diplomacy in Southeast Asia. (250 words)
About the BrahMos Missile System
Origin and Development
BrahMos is a supersonic cruise missile jointly developed by India and Russia through the joint venture BrahMos Aerospace, established in 1998 between India’s DRDO and Russia’s NPO Mashinostroyeniya.
The missile derives its name from:
Brahmaputra River in India
Moskva River in Russia,
symbolising bilateral technological cooperation and strategic partnership between the two countries.
BrahMos is considered among the world’s fastest operational cruise missiles currently deployed in conventional military systems.
Key Features
The missile travels at speeds of approximately Mach 2.8 to Mach 3, making it nearly three times faster than conventional subsonic cruise missiles and significantly reducing enemy reaction time during combat situations.
BrahMos possesses:
Precision strike capability
Low radar signature
High manoeuvrability
Multi-platform launch capability
making it highly effective against both land and naval targets.
It can be launched from:
Land platforms
Naval warships
Submarines
Fighter aircraft,
demonstrating operational flexibility across multiple combat environments.
Range and Evolution
Initially restricted to a range of around 290 km because of MTCR limitations, the missile’s range was later extended beyond 400 km after India joined the Missile Technology Control Regime (MTCR) in 2016.
India is also developing:
Extended-range variants
Hypersonic versions
Air-launched upgrades
to strengthen strategic deterrence and export competitiveness.
The missile has become a flagship example of India’s growing indigenous defence manufacturing capability.
Significance of BrahMos Exports
India Emerging as Defence Exporter
Export of BrahMos missiles marks a significant transformation in India’s strategic posture from being one of the world’s largest arms importers to becoming an increasingly important defence exporter and defence manufacturing hub.
Defence exports support India’s broader objectives under:
Atmanirbhar Bharat
Make in India
Defence industrial modernisation
aimed at strengthening domestic manufacturing ecosystems.
Advanced missile exports also demonstrate international confidence in India’s:
Technological capability
Manufacturing standards
Strategic reliability.
Strategic Influence in Southeast Asia
Defence cooperation with countries such as Vietnam and Indonesia strengthens India’s strategic footprint in the Indo-Pacific and reinforces partnerships with countries facing growing maritime security concerns in the South China Sea region.
BrahMos exports enhance India’s role as a:
Security partner
Defence collaborator
Strategic balancing force
in Southeast Asia amid intensifying regional power competition.
Defence diplomacy has therefore become an increasingly important pillar of India’s foreign policy.
Counterbalancing Regional Geopolitics
Southeast Asian nations are strengthening defence preparedness amid rising tensions involving:
Territorial disputes
Maritime claims
Strategic assertiveness
particularly in the South China Sea region.
Supply of advanced missile systems improves the deterrence capability of partner countries and contributes to:
Maritime security
Freedom of navigation
Regional stability
in the Indo-Pacific.
BrahMos exports therefore possess both:
Commercial significance
Geopolitical signalling value.
Philippines and India’s Defence Diplomacy
First Foreign Buyer of BrahMos
Philippines became the first foreign customer for the BrahMos missile system after signing a deal reportedly worth nearly $375 million for shore-based anti-ship missile batteries.
The agreement represented a landmark breakthrough for India’s defence export ambitions and demonstrated growing international demand for indigenous Indian military systems.
Successful execution of the Philippines deal strengthened India’s credibility as a supplier of advanced defence platforms.
Expanding Defence Partnerships
The Philippines agreement created momentum for broader defence cooperation with:
ASEAN countries
Indian Ocean nations
Friendly Indo-Pacific partners.
India increasingly combines:
Defence exports
Military exercises
Capacity building
Strategic dialogue
as part of integrated defence diplomacy.
Such partnerships improve India’s long-term strategic influence across maritime Asia.
Indo-Pacific and Maritime Security Context
India’s Indo-Pacific Vision
India advocates a:
Free, Open, Inclusive and Rules-based Indo-Pacific
centred on:
Sovereignty, International law, Freedom of navigation and Peaceful dispute resolution.
Defence cooperation with Southeast Asian countries supports India’s:
Act East Policy
Maritime diplomacy
Regional security architecture.
Missile exports reinforce India’s position as a responsible stakeholder in Indo-Pacific stability.
Maritime Deterrence Importance
Modern maritime security increasingly depends on:
Precision strike systems
Coastal defence missiles
Anti-access capabilities
due to growing naval competition and contested sea lanes.
Supersonic missiles such as BrahMos provide strong deterrence because of:
High speed
Precision targeting
Reduced interception probability.
Such systems are especially valuable for countries seeking to strengthen coastal defence against larger naval powers.
Prelims Pointers
BrahMos is a supersonic cruise missile jointly developed by India and Russia.
The missile travels at approximately Mach 2.8–3.
India joined the Missile Technology Control Regime in 2016.
Philippines was the first foreign buyer of BrahMos missiles.
The missile can be launched from:
Land, Sea, Air and Submarine platforms.
New cascade frog species recorded in Nagaland’s hill-stream habitats
Why in News?
Scientists from the Zoological Survey of India (ZSI) discovered a new species of cascade-dwelling frog named Amolops kamal from the hill-stream ecosystems near Singrep village in Nagaland’s Kiphire district, close to the India–Myanmar border.
The species, commonly called the Nagaland Cascade Frog, was identified during a field survey conducted in August 2024, and the findings were published in the journal Records of the Zoological Survey of India.
The discovery highlights the:
Rich biodiversity of Northeast India
Importance of molecular taxonomy
Ecological significance of hill-stream ecosystems
Need for long-term biodiversity documentation in hotspot regions.
Relevance
GS Paper 3: Biodiversity, Conservation, Environmental Ecology, Scientific Research.
Practice Question
“The discovery of new species in Northeast India highlights both the region’s biodiversity richness and the limitations of current ecological documentation.” Examine. (250 words)
About the Newly Discovered Species
Discovery and Naming
The newly identified frog species has been scientifically named Amolops kamal, after Kamal Choudhury, a former teacher of the lead author associated with Guwahati’s B. Barooah College.
The species belongs to the genus Amolops, commonly referred to as cascade frogs, which inhabit fast-flowing hill-stream ecosystems across Asia.
The discovery was made by a six-member ZSI research team during biodiversity surveys conducted in remote stream habitats of Nagaland’s rugged hill terrain.
Habitat Characteristics
The species inhabits:
Cascade streams
Mountain rivulets
Fast-flowing freshwater ecosystems
found in ecologically fragile forested landscapes of Northeast India.
Such habitats are characterised by:
High oxygen content
Rocky substrates
Moist microclimates
making them highly specialised ecological niches for amphibians.
Amphibians occupying these habitats are often highly sensitive to:
Pollution
Habitat disturbance
Climate variability
making them important ecological indicators.
Scientific Significance of the Discovery
Integrative Taxonomy Approach
Researchers confirmed the uniqueness of Amolops kamal using integrative taxonomic analysis, combining:
Morphological observations
Molecular genetics
Phylogenetic studies
to establish it as a distinct evolutionary lineage.
Modern taxonomy increasingly relies on molecular tools because many amphibian species exhibit extremely similar external morphology despite substantial genetic divergence.
The study demonstrates the growing importance of DNA-based species identification in uncovering hidden biodiversity.
Discovery of Cryptic Species
Scientists concluded that Amolops indoburmanensis, previously considered a widespread species, may actually represent multiple distinct evolutionary lineages distributed across Northeast India and neighbouring regions.
Such hidden diversity is known as a cryptic species complex, where genetically distinct species remain grouped under a single species name due to morphological similarity.
Molecular phylogenetics is therefore becoming essential for:
Accurate species classification
Biodiversity assessment
Evolutionary studies
Conservation planning.
Importance of Northeast India for Biodiversity
Biodiversity Hotspot Significance
Northeast India forms part of the globally recognised Indo-Burma Biodiversity Hotspot, one of the world’s richest regions in terms of:
Endemism, Species diversity and Evolutionary uniqueness.
The region’s:
Rugged mountains, Dense forests, High rainfall, Riverine ecosystems
create ideal conditions for amphibian diversification.
Scientists believe many species in the region remain:
Undocumented
Poorly studied
Taxonomically unresolved.
Ecological Isolation and Speciation
Isolated hill-stream ecosystems and fragmented mountain landscapes create conditions for:
Genetic isolation, Independent evolution and Formation of endemic species.
Such ecological isolation accelerates speciation, especially among amphibians that often possess:
Limited mobility, Habitat specialisation and Narrow ecological tolerance.
This explains the unusually high amphibian diversity observed in Northeast India.
About the Amolops Genus
Global and Indian Distribution
The Asian cascade frog genus Amolops currently comprises approximately 90 recognised species globally, of which around 20 species are recorded from India.
These frogs are primarily associated with:
Mountain streams
Forested river systems
High-altitude freshwater habitats
across South and Southeast Asia.
The genus is ecologically important because many species are highly sensitive to environmental changes and freshwater ecosystem degradation.
Classification in India
Indian Amolops species are broadly classified into:
Amolops marmoratus group
Amolops monticola group
Amolops viridimaculatus group.
The Amolops marmoratus group is considered the most diverse and currently contains at least eight known species.
Scientists suspect that additional hidden species may still exist within these taxonomic groups due to unresolved genetic diversity.
Role of Zoological Survey of India (ZSI)
National Biodiversity Documentation Agency
The Zoological Survey of India, established in 1916, is India’s premier institution for:
Faunal surveys
Species identification
Taxonomic research
Biodiversity documentation.
ZSI plays a crucial role in:
Discovering new species
Maintaining zoological collections
Supporting conservation policymaking
across India’s diverse ecosystems.
Importance of Long-Term Surveys
The discovery of Amolops kamal underscores the importance of:
Long-term field expeditions
Systematic ecological surveys
Molecular research
in uncovering undocumented biodiversity.
Many remote regions of Northeast India continue remaining scientifically underexplored due to:
Difficult terrain
Limited infrastructure
Inadequate ecological surveys.
Broader Scientific and Conservation Importance
Molecular Taxonomy and Future Research
Molecular taxonomy is revolutionising biological sciences by improving understanding of:
Evolutionary relationships
Species boundaries
Biogeography
Adaptive evolution.
DNA-based approaches are particularly important in biodiversity-rich tropical regions where visually similar species often conceal deep genetic divergence.
Such technologies strengthen evidence-based conservation planning and ecological monitoring.
Importance for Conservation Policy
Accurate species identification is essential for:
IUCN assessments
Habitat protection
Wildlife legislation
Biodiversity management plans.
Undocumented species may disappear before scientific recognition if habitat destruction continues unchecked.
Species discovery therefore directly contributes to:
Ecological governance
Conservation prioritisation
Sustainable development strategies.
Prelims Pointers
Amolops kamal is a newly discovered cascade frog species from Nagaland.
The species was discovered near Singrep village in Kiphire district bordering Myanmar.
Northeast India forms part of the Indo-Burma Biodiversity Hotspot.
The genus Amolops currently contains around 90 recognised species globally.
The Zoological Survey of India was established in 1916.
Why is India pushing for coal gasification?
Why in News?
Union Coal and Mines Minister G. Kishan Reddy stated that coal gasification has the potential to substitute imports worth nearly ₹3 lakh crore, especially in sectors such as:
Urea
Methanol
Ammonia
Synthetic Natural Gas (SNG)
Hydrogen.
To accelerate adoption, the Union Cabinet approved a ₹37,500-crore incentive package for coal gasification projects, following an earlier ₹8,500-crore package announced in January 2024.
The government has set a target of gasifying 100 million tonnes of coal by 2030, aiming to reduce import dependence, utilise India’s large coal reserves, and support industrial and energy security.
Relevance
GS Paper 3: Energy Security, Coal Sector Reforms, Clean Energy Technologies, Industrial Policy, Import Substitution.
Practice Question
“Coal gasification represents India’s attempt to balance energy security, industrial growth, and import substitution.” Examine. (250 words)
What is Coal Gasification?
Meaning and Process
Coal gasification is a process in which coal is converted into synthetic gas (syngas) through partial oxidation under high temperature and pressure conditions instead of direct combustion.
The resulting syngas primarily contains:
Carbon monoxide
Hydrogen
Methane
and can subsequently be processed into several downstream industrial products.
Unlike conventional coal burning, gasification seeks to chemically transform coal into cleaner and more versatile industrial feedstock for manufacturing and energy generation.
Major Downstream Products
Syngas generated through coal gasification can be used for producing:
Urea
Methanol
Ammonia
Hydrogen
Dimethyl Ether (DME)
Synthetic Natural Gas (SNG)
Ammonium Nitrate
Ethanol.
These products are strategically important because India remains heavily dependent on imports for many of these industrial chemicals and energy inputs.
Why is Coal Gasification Important for India?
Large Domestic Coal Reserves
India possesses approximately 401 billion tonnes of coal reserves and nearly 47 billion tonnes of lignite reserves, making coal one of the country’s most abundant domestic energy resources.
Coal gasification aims to utilise these vast reserves more efficiently while reducing dependence on imported:
Fertilisers
Chemicals
Natural gas
Petrochemical feedstock.
The policy aligns closely with India’s broader Atmanirbhar Bharat and strategic industrial self-reliance objectives.
Reducing Import Dependence
According to government estimates:
India imports nearly 20% of its urea requirement
Almost 100% of ammonia requirement
Approximately 80–90% of methanol demand.
Domestic production through coal gasification could significantly reduce import bills and strengthen:
Energy security
Fertiliser security
Industrial resilience.
The government estimates that successful scaling of coal gasification could substitute imports worth nearly ₹3 lakh crore annually.
Strategic Importance in Energy Transition
Coal gasification is being promoted as a transitional technology that can help India move toward:
Cleaner industrial fuels
Hydrogen production
Low-carbon manufacturing
while continuing to utilise domestic coal resources.
It is increasingly viewed as part of India’s strategy to balance:
Energy security
Industrial growth
Decarbonisation pressures.
Government Initiatives and Targets
National Coal Gasification Mission
The Union Government has fixed a target of gasifying 100 million tonnes of coal by 2030, reflecting a major policy push toward alternative coal utilisation technologies.
With the newly approved ₹37,500-crore package, the government aims to support projects capable of gasifying approximately 75 million tonnes of coal and lignite.
Financial incentives under the scheme cover nearly 20% of plant and machinery costs, addressing one of the biggest barriers to project viability.
Earlier Incentive Packages
Prior to the latest package, the government had approved an earlier ₹8,500-crore support scheme in January 2024.
Approximately ₹6,233 crore has already been disbursed to:
Public Sector Undertakings (PSUs)
Joint ventures
Private companies
involved in gasification projects.
Major participating entities include:
Coal India Limited
Bharat Heavy Electricals Limited
GAIL
Jindal Steel.
Major Coal Gasification Projects in India
Talcher Coal-Based Ammonia-Urea Complex
The Talcher Coal-Based Ammonia-Urea Complex in Odisha is among India’s flagship coal gasification projects and is expected to be commissioned by FY 2027–28.
The project seeks to reduce India’s fertiliser import dependence by converting coal-derived syngas into:
Ammonia
Urea
through indigenous industrial infrastructure.
Emerging Industrial Projects
Several upcoming projects involve conversion of coal into:
Hydrogen
Ammonium nitrate
Ethanol
Direct Reduced Iron (DRI)
Synthetic fuels.
Most of these projects are expected to become operational by FY 2029–30, indicating gradual commercial scaling of coal gasification infrastructure.
Technical Challenges in India
High Ash Content of Indian Coal
One of the biggest technical obstacles is the high ash content of Indian coal, which often ranges between 35–50%, substantially higher than coal used in countries such as:
China
Australia
United States.
High ash content creates operational problems including:
Slagging
Lower thermal efficiency
Complex residue management
Reduced gasification efficiency.
This makes direct adoption of foreign gasification technologies unsuitable without significant adaptation for Indian coal conditions.
Need for Fluidised Bed Gasification
Due to India’s coal characteristics, fluidised-bed gasification technology is considered particularly suitable because it can better handle:
Variable coal quality
High ash content
Complex mineral composition.
In fluidised-bed systems, gas streams suspend coal particles and facilitate more efficient heat transfer and gasification processes.
This technological adaptation is critical for commercial-scale deployment in India.
Variability in Coal Quality
Indian coal often exhibits:
Variable calorific value
High moisture
Mineral impurities
creating additional engineering and operational complexities.
Such variability affects:
Syngas quality
Reactor efficiency
Plant maintenance
Economic viability.
Indigenous Technology Development
Role of Bharat Heavy Electricals Limited (BHEL)
Bharat Heavy Electricals Limited has developed a pressurised fluidised-bed gasifier technology specifically designed for Indian coal characteristics.
According to NITI Aayog, BHEL possesses approximately 16 manufacturing facilities capable of producing critical components required for coal gasification infrastructure.
Indigenous technological capability is essential for reducing dependence on foreign technology suppliers and lowering project costs.
Private Sector Indigenisation
Private firms such as Jindal Steel and Greta Energy & Metal have reportedly indigenised nearly 80–90% of their production systems.
Industry estimates suggest that localisation of technology could reduce project costs by nearly 30–40%, significantly improving commercial viability.
Domestic manufacturing of gasification equipment also supports:
Industrial self-reliance
Technology transfer
Employment generation.
Prelims Pointers
Coal gasification converts coal into synthetic gas (syngas).
India possesses approximately 401 billion tonnes of coal reserves.
India targets gasification of 100 million tonnes of coal by 2030.
Indian coal typically has 35–50% ash content.
Fluidised-bed gasification is considered suitable for high-ash Indian coal.
The government approved a ₹37,500-crore incentive package for coal gasification projects.
Webb telescope captures weather on exoplanet 700 lightyears away
Why in News?
Scientists using the James Webb Space Telescope (JWST) successfully mapped weather patterns on an exoplanet named WASP-94A b located nearly 700 light years away, marking a major breakthrough in atmospheric studies of distant worlds.
The study, published in the journal Science on May 21, 2026, revealed that the exoplanet possesses dynamic weather systems involving clouds made of:
Magnesium silicate
Iron
Magnesium sulphide,
moving across the planet through extremely fast winds.
The discovery demonstrates the rapidly growing ability of astronomers to study:
Exoplanet atmospheres
Alien weather systems
Planetary formation histories
Potential Earth-like worlds
using advanced next-generation telescopes.
Relevance
GS Paper 3: Space Technology, Astronomy, Scientific Innovations, Emerging Technologies.
Practice Question
“The James Webb Space Telescope has revolutionised humanity’s understanding of exoplanets and planetary atmospheres.” Examine. (250 words)
What are Exoplanets?
Meaning and Definition
Exoplanets are planets located outside our Solar System and orbiting stars other than the Sun. Since the discovery of the first confirmed exoplanet in 1992, astronomers have identified more than 6,000 exoplanets across the Milky Way galaxy.
Exoplanets vary enormously in:
Size
Composition
Temperature
Orbital patterns
Atmospheric conditions,
ranging from rocky Earth-like worlds to giant gaseous planets larger than Jupiter.
The search for exoplanets is important because it helps scientists understand:
Planetary formation
Evolution of solar systems
Possibility of extraterrestrial life
Origins of Earth-like conditions.
About WASP-94A b
Characteristics of the Exoplanet
WASP-94A b is classified as a “Hot Jupiter”, a category of gas giant exoplanets that orbit extremely close to their parent stars and therefore experience extraordinarily high atmospheric temperatures.
The planet is nearly twice the size of Jupiter but possesses only around half of Jupiter’s mass, giving it a relatively low density despite its enormous size.
It completes one full revolution around its host star in only four Earth days, reflecting its extremely close orbital distance from the star.
Tidally Locked Nature
Like many hot Jupiters, WASP-94A b is tidally locked, meaning its rotational period matches its orbital period, causing one side of the planet to permanently face the parent star.
As a result:
The dayside experiences extreme temperatures hot enough to melt rock.
The nightside remains perpetually dark and extremely cold, with temperatures approaching near absolute zero.
This creates dramatic atmospheric contrasts and highly dynamic weather systems unlike anything found in Earth’s climate system.
Why the Discovery is Significant
First Detailed Weather Mapping
Scientists were able to directly observe cloud movement and atmospheric variations between the morning and evening sides of the exoplanet, effectively creating one of the first detailed “weather maps” of a distant alien world.
The study revealed that clouds form on the cooler nightside, travel rapidly through powerful winds, and dissipate when reaching the intensely hot dayside of the planet.
This marks a major advancement because earlier exoplanet studies could only infer atmospheric composition indirectly without detailed weather-cycle analysis.
Breakthrough in Atmospheric Science
The research demonstrates humanity’s growing ability to study:
Cloud formation
Atmospheric chemistry
Wind systems
Heat circulation
on planets located hundreds of light years away.
Understanding exoplanet atmospheres is essential for determining:
Planetary habitability
Chemical composition
Climate systems
Evolutionary history of planetary systems.
Importance for Search for Life
Atmospheric studies help scientists identify:
Water vapour
Methane
Oxygen
Carbon dioxide
and other chemical signatures potentially associated with habitable environments or biological activity.
Future discoveries of Earth-like atmospheres could eventually strengthen the possibility of finding planets capable of supporting life beyond the Solar System.
Role of the James Webb Space Telescope (JWST)
Why JWST is Revolutionary
The James Webb Space Telescope, launched in December 2021, is the world’s most advanced space observatory and is designed primarily to study:
Early galaxies
Star formation
Exoplanets
Infrared astronomy.
JWST possesses unprecedented observational sensitivity capable of detecting details equivalent to observing a small coin from nearly 50 km away, making it dramatically more powerful than previous telescopes.
Its infrared instruments allow astronomers to study exoplanet atmospheres in extraordinary detail by analysing absorbed and emitted radiation.
How JWST Studies Exoplanets
Scientists study exoplanet atmospheres using spectroscopy, a technique where incoming starlight is separated into different wavelengths to identify chemical absorption signatures.
As an exoplanet passes in front of its parent star during a transit, part of the starlight passes through the planet’s atmosphere before reaching the telescope.
Different atmospheric molecules absorb specific wavelengths of light, allowing scientists to determine the presence of:
Water
Methane
Metals
Silicates
Other compounds.
Transit Method and Atmospheric Analysis
Transit Method Explained
The Transit Method is currently one of the most successful techniques for discovering and studying exoplanets. It detects tiny decreases in starlight when a planet passes in front of its host star.
During transit, astronomers analyse how atmospheric absorption changes across different parts of the planet, enabling them to identify:
Cloud cover
Atmospheric composition
Temperature differences
Wind circulation patterns.
In the case of WASP-94A b, researchers effectively “scanned” different atmospheric regions during transit to distinguish cloudy morning zones from clearer evening regions.
Importance of Spectroscopy
Spectroscopy allows scientists to determine atmospheric chemistry because every molecule absorbs light at specific wavelengths, creating identifiable spectral fingerprints.
The method has become one of the most important tools in modern astronomy for studying:
Exoplanets
Nebulae
Galaxies
Stellar evolution.
Atmospheric spectroscopy is particularly important in the search for potentially habitable exoplanets because it may reveal biosignatures associated with life-supporting conditions.
Extreme Weather on Exoplanets
Exotic Atmospheric Conditions
Several exoplanets studied using JWST and earlier telescopes exhibit atmospheric conditions far more extreme than those found anywhere in the Solar System.
Scientists have identified exoplanets experiencing:
Rain of molten iron
Vaporised rock storms
Supersonic winds
Molten glass rainfall
Diamond precipitation on carbon-rich planets.
Such discoveries reveal the enormous diversity of planetary environments across the galaxy and challenge traditional assumptions regarding planetary formation.
Importance of Clouds in Planetary Science
Clouds significantly influence atmospheric temperature, chemical interactions, and observational accuracy during exoplanet studies.
According to researchers, cloud cover can obscure atmospheric composition and create misleading interpretations regarding:
Planetary chemistry
Formation history
Potential habitability.
Separating cloudy and cloud-free regions therefore improves the accuracy of atmospheric modelling and planetary evolution studies.
Importance for Understanding Planet Formation
Insights into Solar System Evolution
Studies of exoplanets provide important clues regarding how planetary systems form from rotating disks of:
Gas
Dust
Ice
around young stars.
By analysing atmospheric composition, astronomers can infer:
Formation temperatures
Migration history
Chemical evolution
of planets over billions of years.
Such research may eventually help scientists understand how Earth and the Solar System evolved nearly 4.6 billion years ago.
Possibility of Earth-like Worlds
Many recently discovered exoplanets are rocky and potentially Earth-sized, increasing scientific interest in finding habitable worlds beyond the Solar System.
Future observatories may detect planets possessing:
Stable atmospheres
Liquid water
Suitable temperatures
Earth-like chemistry,
raising the possibility of discovering a true “Earth twin.”
Future of Exoplanet Research
Extremely Large Telescope (ELT)
Europe is currently constructing the Extremely Large Telescope in northern Chile, expected to become one of the most powerful optical telescopes ever built.
The ELT will dramatically improve humanity’s ability to:
Detect exoplanets
Study planetary atmospheres
Observe protoplanetary disks
Search for biosignatures.
Advanced instruments may eventually identify:
Exoplanet nurseries
Earth-like planets
Potentially habitable worlds
with unprecedented accuracy.
Broader Scientific Importance
Exoplanet research increasingly combines:
Astronomy
Atmospheric science
Climate modelling
Physics
Chemistry
creating one of the most interdisciplinary frontiers in modern science.
The field also contributes to humanity’s broader philosophical and scientific questions regarding:
Origins of life
Uniqueness of Earth
Existence of extraterrestrial intelligence.
Prelims Pointers
James Webb Space Telescope was launched in December 2021.
WASP-94A b is a Hot Jupiter exoplanet located nearly 700 light years away.
The planet is tidally locked to its parent star.
Spectroscopy helps identify atmospheric compounds through wavelength absorption patterns.
Europe’s Extremely Large Telescope is being built in northern Chile.
India, Oman trade pact to come into force from June 1; Check what’s inside
Why in News?
The India–Oman Comprehensive Economic Partnership Agreement (CEPA) came into force on June 1, 2026, marking a major milestone in India’s trade diplomacy and economic engagement with the Gulf region.
The agreement provides 100% duty-free market access in Oman to 98.08% of tariff lines, covering 99.38% of India’s exports, significantly improving upon the earlier Most Favoured Nation (MFN) regime where only 15.33% of exports enjoyed zero-duty access.
CEPA is India’s fifth major trade pact since 2014, following agreements with:
Mauritius
UAE
Australia
EFTA countries
and complements India’s expanding trade outreach to the Gulf Cooperation Council (GCC).
Relevance
GS Paper 2: Bilateral Relations, Gulf Region, Economic Diplomacy, Indian Diaspora.
GS Paper 3: International Trade, FTAs, MSMEs, Agriculture Exports, Energy Security, Services Sector.
Practice Question
“Free Trade Agreements are increasingly becoming instruments of strategic and economic statecraft.” Examine in the context of the India–Oman CEPA. (250 words)
What is CEPA?
Nature of the Agreement
A Comprehensive Economic Partnership Agreement (CEPA) is an advanced form of Free Trade Agreement that covers:
Trade in goods
Trade in services
Investment
Mobility
Intellectual property
Customs cooperation
Dispute settlement mechanisms.
Unlike traditional FTAs limited to tariff reduction, CEPAs seek broader economic integration and long-term strategic cooperation between partner countries.
The India–Oman CEPA is particularly significant because it is Oman’s first bilateral trade agreement since its 2006 FTA with the United States, reflecting the strategic importance of India in Oman’s economic policy.
Strategic Importance of Oman for India
Geostrategic Importance
Oman occupies a strategically critical position near the Strait of Hormuz, one of the world’s most important maritime chokepoints through which a substantial share of global oil trade passes.
Oman acts as an important gateway connecting:
West Asia
East Africa
Indian Ocean trade routes
thereby enhancing India’s maritime and commercial outreach.
The agreement strengthens India’s long-term strategic presence in the Gulf and complements India’s broader engagement with the Gulf Cooperation Council (GCC) region.
Diaspora and People-to-People Ties
Nearly 7 lakh Indians reside in Oman, making it one of the most significant Indian diaspora destinations in West Asia.
Indian workers in Oman remit approximately USD 2 billion annually, contributing significantly to India’s foreign exchange inflows and supporting household incomes.
More than 6,000 Indian enterprises operate in Oman across sectors such as:
Retail
Construction
Healthcare
Logistics
Services
reflecting deep commercial interdependence.
Economic Significance of the Agreement
Massive Tariff Liberalisation
Oman has granted immediate 100% duty-free access on nearly all Indian exports, dramatically improving India’s export competitiveness in the Omani market.
Indian goods previously facing a 5% import duty, amounting to exports worth approximately USD 3.64 billion, will now become significantly more price competitive.
The agreement creates opportunities for expansion of exports in:
Manufacturing
Agriculture
Processed food
Gems and jewellery
Engineering goods.
Bilateral Trade Growth
Bilateral trade between India and Oman reached approximately USD 11.18 billion in 2025–26, compared to USD 10.61 billion in 2024–25, indicating steadily expanding economic engagement.
India’s exports stood at approximately USD 4.02 billion, while imports from Oman reached around USD 7.16 billion, reflecting Oman’s importance in India’s energy and petrochemical imports.
CEPA is expected to accelerate trade growth further by reducing tariff barriers and improving predictability for investors and exporters.
Benefits for MSMEs and Manufacturing
MSME-Centric Export Growth
Several sectors expected to benefit from CEPA are dominated by Micro, Small and Medium Enterprises (MSMEs), making the agreement particularly important for employment-intensive manufacturing ecosystems.
Key MSME-linked sectors likely to gain include:
Iron and steel
Textiles
Leather
Auto components
Industrial machinery
Engineering goods.
Increased export orders can stimulate:
Production expansion
Private investment
Technology adoption
Employment generation
across industrial clusters.
Textile and Apparel Sector Gains
Duty-free access is expected to significantly enhance competitiveness of Indian textiles and garments in the Omani market, especially against Asian and European competitors.
Major textile clusters likely to benefit include:
Tirupur
Surat
Ludhiana
Panipat
Karur
Ahmedabad
among others.
Increased export demand can generate substantial employment opportunities for:
Weavers
Artisans
Women workers
Informal labour networks.
Leather and Footwear Industry
Labour-intensive leather and footwear industries in:
Tamil Nadu
Uttar Pradesh
West Bengal
Punjab
Karnataka
are expected to witness increased export demand.
Export expansion in these sectors could create significant employment opportunities, especially for semi-skilled workers and traditional artisan communities.
Agriculture and Rural Economy Benefits
Protection of Sensitive Sectors
India excluded 2,789 tariff lines from tariff concessions to protect vulnerable domestic sectors and safeguard farmers against import competition.
Sensitive products kept outside liberalisation include:
Rice
Wheat
Millets
Dairy
Edible oils
Tea
Coffee
Oilseeds
Fruits and vegetables.
This reflects India’s calibrated trade strategy balancing export expansion with domestic livelihood protection.
Export Opportunities for Farmers
Indian agricultural exports such as:
Honey
Potatoes
Cashews
Bakery products
Processed foods
will receive immediate duty-free access to the Omani market.
Oman’s recognition of India’s National Programme for Organic Production (NPOP) certification creates major opportunities for Indian organic farmers and agri-exporters.
Increased agricultural exports can improve:
Rural incomes
Agro-processing
Value addition
Supply-chain integration.
Marine Products and Fisheries
Oman imported approximately USD 119 million worth of marine products between 2022 and 2024, while imports from India stood at only about USD 7.75 million, indicating substantial untapped potential.
Indian exports such as:
Shrimp
Frozen cuttlefish
Processed seafood
could expand significantly under CEPA.
Growth in marine exports can create employment across:
Fishing communities
Cold-chain logistics
Processing units
Packaging industries
particularly in coastal states.
Pharma and Traditional Medicine
Pharmaceutical Sector Gains
Indian pharmaceutical products approved by regulators such as:
USFDA
EMA
UK MHRA
TGA
will receive automatic marketing authorisation in Oman within 90 days.
This provision significantly improves market access for India’s globally competitive generic pharmaceutical industry.
The agreement can strengthen India’s position as a major supplier of:
Generic medicines
Vaccines
Affordable healthcare products
in the Gulf region.
Traditional Medicine Cooperation
CEPA includes provisions for joint research in traditional medicine, creating opportunities for expansion of:
Ayurveda
Wellness services
Traditional healthcare systems.
This aligns with India’s broader strategy of promoting traditional medicine and wellness diplomacy globally.
Services and Mobility Advantages
Services Sector Opportunities
Oman has undertaken commercially meaningful commitments in sectors including:
Information Technology
Healthcare
Education
Tourism
Research and Development
Professional services.
India’s services exports to Oman increased from approximately USD 397 million in 2020 to nearly USD 665 million in 2024, reflecting growing demand for Indian expertise.
Enhanced Mobility for Professionals
Oman has agreed to improved mobility commitments for Indian professionals, including:
Engineers
Doctors
Accountants
Consultants
Construction specialists
IT professionals.
The ceiling for Intra-Corporate Transferees (ICTs) has been increased from 20% to 50%, allowing Indian firms greater operational flexibility.
Business visitors and contractual service providers will also receive easier temporary entry provisions and longer duration of stay.
Strategic and Geopolitical Significance
Strengthening India’s Gulf Outreach
CEPA reinforces India’s strategy of deepening trade integration with the Gulf region following the successful India–UAE CEPA (2022).
India has already initiated broader trade discussions with the Gulf Cooperation Council (GCC), including:
Saudi Arabia
UAE
Qatar
Kuwait
Bahrain
Oman.
Enhanced Gulf integration strengthens India’s:
Energy security
Supply-chain resilience
Maritime connectivity
Export diversification.
Countering Global Protectionism
In an increasingly fragmented and protectionist global economy, CEPA demonstrates India’s willingness to pursue outward-oriented trade and integration with global markets.
The agreement signals India’s transition from defensive trade postures toward a more confident export-driven growth strategy.
Challenges and Concerns
Trade Deficit Concerns
India currently imports significantly more from Oman than it exports, raising concerns regarding widening trade deficits if export growth does not accelerate proportionately.
MSME Competitiveness
While CEPA creates opportunities, many Indian MSMEs continue facing challenges related to:
High logistics costs
Credit constraints
Technology gaps
Quality certification requirements.
Rules of Origin and Compliance
Effective implementation requires strong customs cooperation and robust Rules of Origin mechanisms to prevent misuse of tariff concessions through third-country routing.
Dependence on Gulf Markets
Excessive dependence on Gulf economies may expose Indian exports and workers to:
Oil-price volatility
Regional instability
Labour market disruptions.
Way Forward
Strengthen Export Competitiveness
India must improve:
Logistics infrastructure
Port connectivity
Trade facilitation
Standards compliance
to fully utilise CEPA opportunities.
Support MSMEs and Farmers
Dedicated export support schemes, credit access, branding assistance, and market intelligence systems are necessary to help MSMEs and agricultural exporters benefit effectively from CEPA.
Expand Services Diplomacy
India should leverage its comparative advantage in:
IT
Healthcare
Education
Professional services
to deepen long-term economic engagement with Oman and the broader Gulf region.
Deepen Strategic Gulf Integration
CEPA should become part of a broader framework involving:
Energy cooperation
Maritime security
Supply-chain resilience
Investment partnerships
across the GCC region.
Prelims Pointers
CEPA stands for Comprehensive Economic Partnership Agreement.
The India–Oman CEPA came into force on June 1, 2026.
Oman granted 100% duty-free access on 98.08% tariff lines covering 99.38% of Indian exports.
Nearly 7 lakh Indians live in Oman.
Oman is strategically located near the Strait of Hormuz.
India excluded 2,789 tariff lines from tariff concessions to protect sensitive sectors.