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Current Affairs for 26 February 2026

Carbon Capture and Utilisation (CCU): Turning Emissions into Economic Assets

Prelims: (Environment & Ecology + CA))
Mains: (GS 3: Environment & Climate Change; Science & Technology; Infrastructure & Industrial Development)

Why in News ?

Carbon Capture and Utilisation (CCU) technologies are gaining policy and industry attention in India as the country explores pathways to decarbonise hard-to-abate sectors such as cement, steel, power, and chemicals. Unlike Carbon Capture and Storage (CCS), which stores CO₂ underground, CCU converts captured carbon dioxide into useful products like fuels, chemicals, polymers, and construction materials — integrating emissions back into the economic cycle.

Background & Context

India is currently the world’s third-largest CO₂ emitter, with emissions largely driven by coal-based power generation and energy-intensive industries. While renewable energy expansion is progressing rapidly, several industrial processes inherently release CO₂ due to chemical reactions (e.g., clinker production in cement, blast furnaces in steel).

Globally, CCU has emerged as a complementary strategy to renewable energy, energy efficiency, and green hydrogen. International climate frameworks under the United Nations Framework Convention on Climate Change increasingly recognise carbon management technologies as part of long-term decarbonisation pathways.

For India, which has pledged to achieve net-zero emissions by 2070, CCU offers a bridge technology — reducing emissions while creating new industrial value chains and promoting a circular carbon economy.

What is Carbon Capture and Utilisation (CCU) ?

CCU involves three key steps:

  1. Capture – CO₂ is captured from industrial flue gases or directly from the atmosphere (Direct Air Capture).
  2. Purification & Compression – The gas is processed for safe handling.
  3. Conversion/Utilisation – CO₂ is transformed into:
    • Synthetic fuels (e-methanol, aviation fuels)
    • Chemicals (urea, methanol, polymers)
    • Building materials (carbon-cured concrete)
    • Bio-based products

Unlike CCS, which focuses on permanent geological storage, CCU reintegrates carbon into productive economic uses.

Why India Needs CCU ?

1. Addressing Hard-to-Abate Sectors

Sectors such as cement, steel, fertilisers, and refining account for significant industrial emissions. Renewable electricity alone cannot eliminate process emissions in these industries.

2. Supporting Net Zero 2070

CCU complements renewable expansion and green hydrogen strategies, aligning with India’s long-term climate commitments.

3. Promoting a Circular Carbon Economy

By converting waste CO₂ into value-added products, CCU reduces dependence on virgin fossil feedstocks.

4. Energy Security & Industrial Competitiveness

CO₂-derived fuels and chemicals can reduce import dependency and create new manufacturing opportunities.

India’s Progress on CCU

Policy & Research Initiatives

  • The Department of Science and Technology has developed a national CCU R&D roadmap.
  • The Ministry of Petroleum and Natural Gas has released a draft CCUS roadmap for 2030 identifying industrial clusters for deployment.

Industry-Led Pilot Projects

  • Ambuja Cements (Adani Group), in collaboration with IIT Bombay and Swedish partners, is piloting CO₂-to-fuels and material technologies.
  • JK Cement is developing a CCU testbed for lightweight concrete and olefin production.
  • Organic Recycling Systems Limited (ORSL) is leading India’s first Bio-CCU pilot converting CO₂ from biogas into specialty chemicals.

These initiatives indicate early-stage experimentation but remain limited in scale.

Global Efforts to Advance CCU

1. European Union – Circular Economy Integration

The European Union integrates CCU into its Circular Economy Action Plan and Bioeconomy Strategy, promoting CO₂-derived fuels and materials.

2. United States – Incentive-Based Scaling

The United States promotes CCU through tax credits and funding support for industrial carbon conversion projects.

3. United Arab Emirates – Hydrogen Integration

The United Arab Emirates integrates CCU with green hydrogen in projects like Al Reyadah to decarbonise heavy industry.

4. China – Industrial-Scale Deployment

China is expanding CCUS projects in coal-based power and chemical sectors, focusing on converting CO₂ into fuels and building materials.

Risks and Challenges in Scaling CCU in India

1. High Costs

CO₂ capture and conversion are energy-intensive. Without carbon pricing or incentives, CCU products struggle against cheaper fossil-based alternatives.

2. Infrastructure Constraints

Effective deployment requires:

  • Industrial clusters
  • CO₂ transport networks
  • Integration with downstream industries

Such infrastructure remains underdeveloped.

3. Regulatory & Market Gaps

  • Lack of certification standards for CO₂-derived products
  • Uncertain demand signals
  • Absence of robust carbon markets

4. Risk of Delayed Decarbonisation

Over-reliance on CCU without parallel renewable deployment may slow the clean energy transition.

Significance of CCU for India

Climate Mitigation Tool

Reduces industrial emissions where electrification is difficult.

Industrial Innovation Driver

Encourages advanced materials science and green chemistry innovation.

Strategic Autonomy

Supports domestic fuel and chemical production.

Economic Diversification

Creates new value chains and green employment opportunities.

Global Climate Leadership

Enhances India’s role in emerging carbon management technologies.

Way Forward

  • Introduce fiscal incentives and viability gap funding.
  • Develop carbon pricing or credit mechanisms.
  • Build industrial CCU clusters near refineries and cement plants.
  • Promote green hydrogen integration for CO₂-to-fuel pathways.
  • Establish certification standards for CO₂-derived products.
  • Encourage public-private partnerships and international collaboration.

A balanced approach combining renewable expansion, green hydrogen, energy efficiency, and CCU will be essential for India’s low-carbon transition.

FAQs

Q1. How is CCU different from CCS ?

CCS stores captured CO₂ underground permanently, while CCU converts it into useful products, reintegrating carbon into economic cycles.

Q2. Can CCU alone solve India’s emission problem ?

No. CCU is a complementary strategy. Renewable energy, energy efficiency, and green hydrogen remain essential pillars.

Q3. Which sectors benefit most from CCU ?

Cement, steel, fertilisers, refining, and chemical industries — sectors with unavoidable process emissions.

Q4. Is CCU commercially viable today ?

Currently, it remains costly and requires policy incentives, technological innovation, and market support.

Q5. Why is CCU important for India’s net-zero target ?

It helps decarbonise hard-to-abate sectors and promotes a circular carbon economy, supporting India’s 2070 net-zero commitment.

Nationwide Single-Dose HPV Immunisation Drive to Combat Cervical Cancer

Prelims: (Science & Technology + CA)
Mains: (GS 2: Issues Relating to Development & Management of Social Sector/Health; GS 3: Science & Technology in Health, Human Development)

Why in News ?

The Union government is preparing to launch a nationwide 90-day single-dose HPV vaccination campaign targeting 14-year-old girls to reduce the burden of cervical cancer in India. The initiative marks a major preventive public health intervention aimed at tackling one of the leading causes of cancer-related deaths among Indian women.

Background & Context

Cervical cancer is primarily caused by persistent infection with high-risk strains of the Human Papillomavirus (HPV), a common sexually transmitted infection. Nearly 90% of cervical cancer cases are linked to HPV infection, especially types 16 and 18.

India accounts for nearly one-fifth of the global cervical cancer burden. Despite screening and treatment efforts, late diagnosis remains common due to low awareness, limited screening coverage, and social stigma.

Globally, HPV vaccines have demonstrated strong effectiveness in preventing pre-cancerous lesions and cervical cancer. In 2022, the World Health Organization endorsed a single-dose HPV vaccine schedule for girls aged 9–14 years, significantly strengthening the case for mass immunisation in low- and middle-income countries like India.

The current campaign aligns with India’s broader goal of reducing preventable cancers and improving women’s health outcomes.

What is HPV ?

  • HPV is a group of viruses with over 100 types, at least 14 of which are cancer-causing.
  • Types 16 and 18 account for nearly 70% of cervical cancer cases globally.
  • Apart from cervical cancer, HPV can cause anal, penile, vaginal, vulvar, and oropharyngeal cancers.
  • Vaccination before sexual debut offers maximum and long-lasting immunity.

HPV Vaccination Drive: Eligibility and Rollout Plan

  • Target Group: All 14-year-old girls across India.
  • Duration: 90-day nationwide campaign.
  • Dose Schedule: Single-dose vaccination.
  • Annual Beneficiaries: Approximately 1.15 crore girls turning 14 each year.
  • Registration Platform: Appointments to be booked through the U-Win digital portal, modeled on the Co-WIN system used during COVID-19.
  • Post-Campaign Plan: HPV vaccination will be integrated into the routine immunisation programme through Health & Wellness Centres.

The strategy focuses on age-based cohort vaccination rather than school-based targeting alone, ensuring wider inclusion.

Vaccine Choice and Supply Strategy

Vaccine Being Used: Gardasil

The campaign will use Gardasil, manufactured by MSD Pharmaceuticals, due to its established global efficacy and safety record.

Indigenous Vaccine: Cervavac

India has developed its own HPV vaccine, Cervavac, produced by the Serum Institute of India.

However, it is not being used in the current drive because:

  • It is awaiting WHO prequalification.
  • The Indian Council of Medical Research is still evaluating its effectiveness under a single-dose schedule.

A transition to Cervavac may occur in the coming years once regulatory processes are completed.

Role of GAVI

The GAVI, The Vaccine Alliance will supply 2.6 crore doses over two years.

  • One crore doses have already been delivered.
  • Remaining supplies will arrive in phases.

Is a Single Dose Sufficient ?

In 2022, the WHO’s Strategic Advisory Group of Experts recommended a single-dose schedule for girls and women up to 20 years, citing strong immune response and sustained protection.

Guidelines:

  • 9–20 years: Single dose sufficient.
  • Above 21 years: Two doses (six months apart).
  • Immunocompromised individuals (including HIV patients): Ideally three doses.

This simplified schedule enhances feasibility and reduces programmatic costs.

Why the HPV Vaccination Campaign Matters

1. High Disease Burden in India

  • ~1.25 lakh new cases annually.
  • ~75,000 deaths per year.
  • Second most common cancer among Indian women.

India contributes nearly 20% of global cervical cancer cases, making preventive action urgent.

2. Proven Vaccine Effectiveness

Global evidence shows significant reduction in HPV infection rates and pre-cancerous lesions following vaccination.

3. Herd Immunity Benefits

Vaccinating girls reduces HPV transmission to boys, lowering risks of other HPV-related cancers and strengthening community-level protection.

4. Global Evidence – Australia Model

Countries like Australia introduced HPV vaccination in 2007 and extended it to boys in 2013. Within a decade:

  • HPV prevalence among young women dropped sharply.
  • Significant indirect protection observed even among unvaccinated groups.

Australia is now on track to nearly eliminate cervical cancer as a public health problem.

5. Long-Term Public Health Gains

  • Reduced cancer treatment costs.
  • Lower burden on tertiary healthcare.
  • Improved female workforce participation and productivity.
  • Progress toward universal health coverage.

Is This India’s First HPV Immunisation Programme 

No. Several states have piloted HPV vaccination drives earlier:

State-Level Initiatives

  • Sikkim (2018): First state to launch a statewide HPV vaccination programme. Achieved over 95% coverage.
  • Punjab (2016): Began in Mansa and Bathinda districts; recorded over 97% coverage in initial phase.
  • Delhi (2016): Launched via Delhi State Cancer Institute; limited uptake due to hospital-based delivery.

The current initiative marks the first nationwide, centrally coordinated HPV immunisation campaign.

Significance of the Initiative

Strategic Public Health Intervention

Shifts policy focus from cancer treatment to prevention — aligning with global best practices.

Women-Centric Healthcare Reform

Strengthens reproductive and preventive health systems targeting adolescent girls.

Digital Health Integration

Leverages digital platforms like U-Win, improving tracking, transparency, and coverage.

Alignment with Global Health Goals

Supports WHO’s global strategy to eliminate cervical cancer as a public health problem by 2030.

Economic and Social Impact

Prevention reduces catastrophic health expenditure for families and enhances long-term human capital formation.

FAQs

Q1. Why is the HPV vaccine targeted at 14-year-old girls ?

Vaccination before sexual debut ensures stronger immune response and maximum preventive benefit against HPV infection.

Q2. Is a single dose scientifically validated ?

Yes. WHO recommendations in 2022 endorsed a single-dose schedule for girls up to 20 years based on strong evidence of long-term protection.

Q3. Why is India not using its indigenous vaccine yet ?

Cervavac is awaiting WHO prequalification, and studies are ongoing to confirm its efficacy under a single-dose schedule.

Q4. Can HPV vaccination eliminate cervical cancer completely ?

While vaccination significantly reduces incidence, elimination requires a combination of vaccination, screening, and early treatment.

Q5. How does this campaign fit into India’s broader health policy ?

It strengthens preventive healthcare, reduces cancer burden, promotes women’s health, and aligns with long-term public health and human development goals.

US Slaps Steep Countervailing Duties on Indian Solar Modules

Prelims: (Economics + CA)
Mains: (GS 2: India–US Relations; GS 3: Infrastructure, Energy Security, Industrial Policy, External Sector)

Why in News ?

The United States has imposed preliminary countervailing duties (CVD) of 126% on crystalline silicon photovoltaic (CSPV) cells and modules imported from India, following an investigation into alleged unfair government subsidies. The decision could significantly affect India’s rapidly expanding solar manufacturing sector, which has relied heavily on exports to the US market.

Background & Context

The duties were announced by the United States Department of Commerce after a subsidy probe into Indian solar manufacturers. The investigation also covered imports from Indonesia and Laos, assigning varying duty rates.

Countervailing duties are imposed to offset subsidies provided by exporting countries that allegedly distort fair trade. These measures are distinct from anti-dumping duties and are consistent with global trade rules under the World Trade Organization framework.

The move comes amid rising trade tensions in the clean energy sector, where governments are increasingly promoting domestic manufacturing through subsidies and industrial policies.

The final determination on the duties is expected later this year.

India’s Expanding Solar Manufacturing Capacity

India has significantly scaled up its solar module production capacity:

  • Current manufacturing capacity exceeds 140 GW per annum.
  • Expected to rise to over 165 GW by March 2027.
  • Domestic annual solar installations are projected at only 45–50 GWDC.

This indicates a structural supply-demand imbalance, making exports crucial for sustaining capacity utilisation.

Between 2021 and 2024:

  • Over 90% of India’s solar module exports were shipped to the US.
  • Solar exports to the US were valued at $792.6 million in 2024, marking sharp growth since 2022.

Thus, the US market has been central to India’s solar export strategy.

Potential Impact on Indian Manufacturers

1. Export Disruption

A 126% duty significantly increases the landed cost of Indian modules in the US, potentially making the market commercially unviable for many exporters.

2. Domestic Pricing Pressure

If export-bound modules are redirected to India:

  • Oversupply may intensify.
  • Module prices could decline.
  • Profit margins of domestic Original Equipment Manufacturers (OEMs) may shrink.

3. Project & Financing Implications

Tariff disruptions may affect:

  • Financing structures of solar projects
  • Power Purchase Agreement (PPA) timelines
  • Tariff assumptions and viability calculations

India’s renewable sector is already facing:

  • Slower project award activity
  • Delays in PPA signing
  • Transmission connectivity constraints

Further disruptions could impact renewable capacity addition targets.

Divergent Industry Responses

Not all manufacturers are equally exposed.

  • Some large firms had anticipated US trade tightening and reduced exports in advance.
  • For certain players, US exports now account for a negligible share of total output.
  • Export volumes to the US are estimated to have declined in 2025 compared to peak levels in 2024.

Thus, impact may vary depending on company-specific export strategies.

Broader Trade and Strategic Context

The investigation reportedly stems from allegations that Chinese manufacturers, facing US tariffs, shifted production to countries such as India, Indonesia, and Laos to retain access to the American market.

In the first half of 2025:

  • India, Indonesia, and Laos together accounted for 57% of US solar module imports.

The duties are aimed at protecting US domestic solar manufacturing under broader industrial policy measures.

However, higher import duties may:

  • Increase solar project costs in the US
  • Slow renewable energy deployment there
  • Create supply chain uncertainties in global solar trade

This reflects the growing intersection of climate policy and trade protectionism.

Implications for India’s Energy Transition

India has committed to achieving 500 GW of non-fossil fuel capacity by 2030 and net-zero emissions by 2070.

A strong domestic solar manufacturing ecosystem is essential for:

  • Energy security
  • Reducing import dependence on China
  • Supporting Make in India initiatives

The US duties may compel India to:

1. Diversify Export Markets

Explore opportunities in Europe, Africa, Middle East, and Latin America.

2. Strengthen Domestic Demand

Enhance policy incentives such as Production-Linked Incentive (PLI) schemes and domestic procurement mandates.

3. Encourage Overseas Manufacturing

Shift from exporting products to exporting capital — establishing manufacturing bases abroad to bypass trade barriers.

4. Improve Competitiveness

Invest in technology upgrades, efficiency improvements, and cost reductions.

Significance of the Development

Trade Policy Implications

Highlights increasing use of trade remedies in the renewable energy sector.

Strategic India–US Economic Dimension

Adds complexity to clean energy cooperation between India and the US.

Industrial Policy Test

Challenges India’s ambition to become a global solar manufacturing hub.

Energy Transition Risks

Excess capacity and pricing pressure could destabilise domestic manufacturers.

Global Climate Paradox

Protectionist measures may conflict with global climate cooperation goals.

FAQs

Q1. What are countervailing duties (CVD) ?

They are tariffs imposed to offset subsidies provided by exporting countries that allegedly give unfair price advantages to their manufacturers.

Q2. Why is the US imposing duties on Indian solar panels ?

Following an investigation, the US determined that Indian manufacturers benefited from government subsidies that distorted market competition.

Q3. How dependent is India on the US solar market ?

Between 2021 and 2024, over 90% of India’s solar module exports were shipped to the US, making it a critical export destination.

Q4. Will this affect India’s renewable energy targets ?

Indirectly, yes. Oversupply and pricing pressure may strain domestic manufacturers, potentially impacting long-term capacity expansion plans.

Q5. What strategic options does India have ?

India can diversify export markets, enhance domestic demand, strengthen industrial competitiveness, and consider overseas manufacturing investments.

India–Japan Joint Military Drill ‘Dharma Guardian’ Strengthens Tactical Interoperability

Prelims: (Defence + CA)
Mains: (GS 2: International Relations; GS 3: Security, Defence Preparedness, Joint Military Exercises)

Why in News ?

The 7th edition of Exercise Dharma Guardian, the annual joint military exercise between the Indian Army and the Japan Ground Self-Defense Force (JGSDF), has commenced at the Foreign Training Node, Chaubattia in Uttarakhand. The exercise aims to enhance interoperability and joint operational capabilities in semi-urban combat environments.

Background & Context

India and Japan have steadily deepened defence and strategic cooperation over the past decade, particularly under their “Special Strategic and Global Partnership.” The annual Dharma Guardian exercise serves as a cornerstone of this growing military engagement.

The strengthening of India–Japan defence ties aligns with:

  • Shared commitment to a free, open, and rules-based Indo-Pacific.
  • Concerns over maritime security and regional stability.
  • Increasing emphasis on joint preparedness for counter-terrorism and humanitarian operations.

Defence cooperation between the two countries has expanded to include logistics agreements, high-level military dialogues, and participation in multilateral naval exercises.

About Exercise Dharma Guardian

  • Type: Annual bilateral military exercise
  • Participants: Indian Army & Japan Ground Self-Defense Force (JGSDF)
  • Nature: Counter-terrorism and joint operations training
  • Venue: Alternates between India and Japan
  • Current Edition: 7th edition

The exercise remains a key pillar of India–Japan defence engagement and reflects growing military trust and operational coordination.

Aim of the Exercise

The primary objective of Exercise Dharma Guardian is to:

  • Strengthen military-to-military collaboration.
  • Enhance combined capabilities to undertake joint operations in semi-urban terrain.
  • Improve interoperability between Indian and Japanese ground forces.
  • Share best practices in tactical operations and counter-terrorism strategies.

Key Tactical Activities Conducted

The exercise focuses on realistic, scenario-based operations, including:

1. Establishment of Temporary Operating Base (TOB)

Simulating deployment and operational readiness in hostile environments.

2. Intelligence, Surveillance & Reconnaissance (ISR) Grid Development

Coordinated surveillance planning to detect and neutralise threats.

3. Mobile Vehicle Check Posts

Simulating urban security operations to detect infiltration or contraband.

4. Cordon and Search Operations

Joint drills in hostile and semi-urban terrain to neutralise simulated insurgents.

5. Heliborne Operations

Rapid insertion of troops using helicopters to secure strategic locations.

6. House Intervention Drills

Room-clearing and close-quarter battle techniques for urban warfare scenarios.

These exercises enhance tactical synchronisation and operational compatibility.

Other Defence Exercises Between India and Japan

1. Malabar (Naval Exercise)

The multilateral naval exercise Malabar involves India, Japan, the United States, and Australia. It enhances maritime interoperability and Indo-Pacific naval coordination.
Participants include the United States and Australia.

2. JIMEX (Japan-India Maritime Exercise)

A bilateral naval exercise focusing on maritime security, anti-submarine warfare, and tactical manoeuvres.

3. SHINYUU Maitri

An air force exercise between the Indian Air Force and the Japan Air Self-Defense Force, focusing on air mobility and disaster relief cooperation.

Together, these exercises indicate expanding tri-service defence cooperation.

Strategic Significance of Exercise Dharma Guardian

1. Strengthening India–Japan Strategic Partnership

The exercise reinforces defence ties within the broader framework of their special strategic relationship.

2. Enhancing Indo-Pacific Security Architecture

Improves preparedness to respond to regional contingencies, including terrorism and maritime threats.

3. Improving Interoperability

Standardising operational procedures ensures seamless coordination during joint missions.

4. Confidence Building & Trust

Regular bilateral exercises build mutual understanding, trust, and strategic alignment.

5. Expanding India’s Defence Diplomacy

Positions India as a reliable security partner in the Indo-Pacific region.

Broader Geopolitical Context

India and Japan are both active members of the Quad grouping, alongside the United States and Australia, which promotes a free and open Indo-Pacific.

Military cooperation through exercises like Dharma Guardian reflects:

  • Shared concerns over regional security challenges.
  • The shift toward multi-domain operational preparedness.
  • Growing emphasis on joint response capabilities in evolving conflict scenarios.

FAQs

Q1. What is Exercise Dharma Guardian ?

It is an annual joint military exercise conducted between the Indian Army and the Japan Ground Self-Defense Force.

Q2. Where is the current edition being held ?

The 7th edition is being conducted at the Foreign Training Node, Chaubattia, Uttarakhand.

Q3. What is the primary objective of the exercise ?

To enhance interoperability and strengthen joint operational capabilities in semi-urban combat scenarios.

Q4. How often is the exercise conducted ?

It is held annually and alternates between India and Japan.

Q5. How does it contribute to Indo-Pacific security ?

By improving military coordination and operational readiness between two major Indo-Pacific democracies, it strengthens regional stability and collective deterrence.

China’s CM-302 Supersonic Anti-Ship Missile: Capabilities and Strategic Implications

Prelims: (Science Technology + CA)
Mains: (GS 2: International Relations; GS 3: Security, Defence Technology, Maritime Strategy)

Why in News ?

Reports indicate that Iran is close to finalising a deal with China to procure the CM-302 supersonic anti-ship cruise missile. The potential acquisition has drawn attention due to the missile’s advanced capabilities and its possible impact on regional maritime security, particularly in the Persian Gulf and Strait of Hormuz region.

Background & Context

The CM-302 is an export variant of the YJ-12 missile deployed by the People's Liberation Army Navy. China has increasingly emerged as a key exporter of advanced missile systems, particularly to countries facing Western arms restrictions.

Iran has historically invested in anti-access/area denial (A2/AD) capabilities to deter superior naval forces operating near its coastline. The acquisition of a high-speed anti-ship missile like the CM-302 would significantly enhance its maritime strike capabilities.

The development reflects broader trends in:

  • Expansion of Chinese defence exports
  • Strategic military cooperation between China and Iran
  • Growing militarisation of critical sea lanes

About CM-302 Missile

The CM-302 is a supersonic anti-ship cruise missile designed to target large naval vessels and maritime assets.

It is primarily intended to:

  • Strike aircraft carriers
  • Attack destroyers and frigates
  • Disrupt naval task forces

Key Features of CM-302

1. Speed

  • Sustained supersonic speeds of Mach 2.5–3 or higher
  • High velocity makes interception extremely difficult.

2. Range

  • Operational range of approximately 290 km
  • Allows engagement from beyond immediate defensive perimeters.

3. Propulsion System

  • Powered by a liquid direct-flow air-breathing jet engine
  • Equipped with four air intakes for efficient thrust at high speeds

4. Warhead

  • Conventional high-explosive payload
  • Designed to inflict severe damage on large vessels

5. Launch Platforms

  • Can be launched from:
    • Surface ships
    • Ground-based mobile launchers

6. Flight Profile

  • Employs a sea-skimming trajectory
  • Flies at extremely low altitudes to evade radar detection

7. Guidance System

  • Inertial Navigation System (INS) for initial guidance
  • Mid-course correction via BeiDou Navigation Satellite System
  • Active radar seeker for terminal homing

8. High Hit Probability

  • Estimated hit probability close to 90%
  • Advanced guidance and low-altitude approach increase lethality

Strategic Significance of the Missile

1. Enhancement of Anti-Access/Area Denial (A2/AD)

The missile strengthens the ability of coastal states to deter naval incursions by threatening high-value targets such as aircraft carriers.

2. Impact on Gulf Maritime Security

If inducted by Iran, the CM-302 could:

  • Raise risks for naval forces operating in the Persian Gulf
  • Increase vulnerability of commercial shipping routes
  • Affect energy supply chains

3. Shift in Regional Military Balance

Supersonic anti-ship missiles complicate defence planning for technologically advanced navies, including those of the US and its regional partners.

4. China’s Expanding Defence Exports

The deal underscores China’s growing role as an alternative arms supplier, particularly for states under Western sanctions.

5. Implications for Global Trade Routes

Given the proximity of the Strait of Hormuz — a critical global energy chokepoint — enhanced missile capabilities may influence maritime risk calculations.

Broader Geopolitical Context

  • Strengthening China–Iran strategic ties amid evolving global alignments.
  • Increased competition in maritime domains across the Indo-Pacific and West Asia.
  • Growing emphasis on missile-centric naval warfare, where speed and stealth are decisive factors.

Comparison with Other Anti-Ship Missiles

Feature

CM-302

Subsonic Missiles

Speed

Supersonic (Mach 2.5–3)

Subsonic (Mach 0.8–0.9)

Interception Difficulty

High

Moderate

Reaction Time for Target

Very Limited

Relatively Higher

Strategic Role

A2/AD, Carrier Strike

Tactical/Surface Engagement

 

Significance for India and Global Maritime Security

While geographically distant, developments in advanced anti-ship missile proliferation:

  • Influence naval modernisation globally.
  • Reinforce the importance of missile defence systems.
  • Highlight the increasing role of satellite-guided precision strike weapons.

For maritime powers, including India, strengthening naval air defence and early warning capabilities remains essential in an era of high-speed cruise missiles.

FAQs

Q1. What is the CM-302 missile ?

It is a Chinese-developed supersonic anti-ship cruise missile designed to strike large naval vessels and maritime targets.

Q2. How fast is the CM-302 ?

It travels at sustained supersonic speeds of approximately Mach 2.5–3, making interception challenging.

Q3. How does it differ from subsonic anti-ship missiles ?

Its higher speed drastically reduces reaction time for defensive systems and increases penetration capability.

Q4. Why is Iran’s potential acquisition significant ?

It would enhance Iran’s maritime deterrence posture and could alter the security dynamics of the Persian Gulf region.

Q5. What role does satellite navigation play in the missile ?

The missile uses China’s BeiDou satellite system for mid-course guidance, improving accuracy and strike probability.

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