Category: China

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727: GEOPOLITICAL DYNAMICS AND DEFENCE MODERNISATION: LESSONS OF 2025 CONFLICTS

 

Presented my views at a round table conference at the Best Practices Meet 2025 organised by Data Security Council of India on 21 Aug 25.

 

The year 2025 has been a decisive moment for international security. It has confirmed trends that have been emerging over the last decade. Growing rivalries between several powers, the swift development of hybrid warfare, and defence transformation have been evident in fighting in Ukraine, and Gaza, elsewhere. These scenarios represent a combination of great power competition, scarcity of resources, and technological innovation that compelled countries to adapt rapidly to new realities. This article emphasises salient geopolitical dynamics, lessons of the 2025 wars, and emerging defence modernisation trends. It summarises how nations are reacting to a more precarious world.

 

Geopolitical Dynamics

Changing Power Blocs and Multipolar Rivalries. The world in 2025 is undeniably multipolar. Power is shared among contesting blocs. The US-China competition is most notable, shaping trade tensions, technological divisions, and alliances such as AUKUS (Australia, UK, US) and the Quad (US, India, Japan, Australia). AUKUS has broadened its scope from naval security to include technology cooperation. The Quad, on the other hand, has enhanced strategic collaboration in the Indo-Pacific. China’s aggressive moves, especially control of key supply chains, have increased tensions. This has compelled the US to deepen alliances with India, Japan, and South Korea. At the same time, Russia and Iran are testing Western strength. Russia’s moves in Ukraine and Iran’s proxy interventions in the Middle East are destabilising Europe and the wider world. Therefore, protectionism is on the rise, global markets are disintegrating, and supply chain breakdowns are common, particularly in semiconductors, rare earth elements, and strategic minerals. These strains have amplified geopolitical risk premiums, causing energy and commodity market volatilities and creating regional polarisations.

Resource Competition as Flashpoints. Scarcity of resources is a major source of geopolitical strain in 2025. China’s dominant hold on rare earth processing—more than 80% of the world supply—gives strategic vulnerabilities to Western countries that depend upon those commodities for electronics, green technology, and defence systems. The competition for energy has gained strength, particularly with Russia employing the use of gas supply as a bargaining chip and the volatile oil prices in the Middle East. Climate change is aggravating water scarcity, emerging as a palpable flashpoint, especially in Africa and the Middle East. Conflicts between Egypt, Ethiopia, and Sudan over the Grand Ethiopian Renaissance Dam and Middle Eastern water shortages fuel political tensions. These are putting pressure on migration channels and over-stretching international aid systems. These are influencing resource flashpoints to emphasise the need for diversified supply chains and robust infrastructure to reduce geopolitical risks.

Hybrid Warfare and Non-State Actors. The wars of 2025 illustrate that hybrid warfare, which involves conventional military operations along with cyberattacks, propaganda, and the utilisation of drones, has become the primary nature of conflict. In Ukraine, Gaza, as well as the India-Pakistan standoff in April 2025, the methods have created a fusion of state and non-state actors. Non-state actors, such as private military companies and terrorist groups, are acquiring sophisticated technologies, frequently with the intermediation of major-power proxies. In the Red Sea, Houthis, with Iranian backing, have interrupted global supply chains. In the Sahel, uprisings in Mali and Niger are taking advantage of shortages of resources related to climate change and foreign assistance to challenge state control. These hybrid threats need adaptable defence approaches that can integrate cyber capabilities, physical means, and information tactics.

Regionalisation of Conflicts and Proxy Involvement. Local conflicts are spilling over into larger conflicts with support from influential nations. The April 2025 India-Pakistan tensions in Kashmir entailed quick mobilisation, artillery engagements, drone strikes, and cyber activities, fueled by external intelligence and arms supply, raising the nuclear spectre. In the Sahel, both the insurgencies in Niger and Mali, which are driven by climate challenges and poor governance, have attracted Russian and Western intervention, making stabilisation a complex challenge. The conflict between Israel and Hamas in Gaza involving Iranian and Yemeni surrogates has precipitated humanitarian disasters and undermined important trade lanes such as the Red Sea and Bab el-Mandeb Strait, showing the global resonance of regional wars.

Erosion of Multilateralism. Multilateral bodies such as the United Nations are finding it hard to operate under the current geopolitical tensions. The Security Council dynamics have disallowed rapid reactions in the Gaza and Ukraine crises, demonstrating the shortcomings of consensus-driven governance. When older methods lose potency, smaller configurations like AUKUS, the Quad, and the India-France-UAE trilateral are starting to prove themselves as workable options. Yet, these selective alignments further disintegrate global governance, and it becomes difficult to address interconnected challenges like climate change, conflicts, and economic instability.

Economic Warfare and Sanctions. Economic instruments like sanctions, currency intervention, export controls, and supply chain dislocation have become a staple in geopolitical competition. The Russia-Ukraine conflict revealed Europe’s energy vulnerabilities, with gas supply cutbacks fueling inflation. Middle East conflicts, particularly in Gaza, have resulted in oil price spikes and increases in global inflation. The weaponisation of currency, including China’s and Russia’s departures from the dollar, further polarises the world economy. These trends highlight the importance of multiple economic partners and robust supply chains to mitigate the effects of economic warfare.

 

Learnings from 2025 Conflicts

Speed of Escalation and Hybrid Threats. Conflicts in 2025 build rapidly from grey-zone operations—like cyber attacks and disinformation—to physical military responses, in some cases within days. The conflict in Ukraine and the India-Pakistan crisis demonstrate how hybrid threats involving drones, cyber operations, and disinformation raise the stakes, particularly in regions with nuclear powers. Non-state actors add to the complexity of accountability and response, making integrated defence planning critical to manage multi-domain threats.

Civil-Military Tech Convergence. The swift transition of commercial technologies to military applications has altered the face of war. Ukraine’s exploitation of low-cost, commercially procured drones against Russian forces underscores the need for adaptability as opposed to quantities. Likewise, drone strikes between India and Pakistan in 2025 underscore the need for hypersonic technology, AI-enabled targeting, and premium cybersecurity in multi-domain warfare. Such developments necessitate defence architectures prioritising smooth collaboration between civilian and military realms and fast-paced innovation.

Information Domain as a Decisive Battlefield. Shaping narratives and combating disinformation is important for winning strategically. Ukraine’s success in moulding world opinion using social media and open-source intel is a blueprint for successful information operations. In Gaza, the application of sophisticated technologies has minimised casualties among civilians and preserved the support of allies, exemplifying the necessity of an interdisciplinary strategy of information and combat operations to shape legitimacy and diplomatic results.

Logistics Under Fire. Global conflicts have exposed vulnerabilities in supply chains, with specific attacks on fuel depots, rail infrastructures, and electronic inventory breaking operations. Ukraine’s distributed logistics model, depending on diverse supply routes, has served its military operations against sanctions and blockades. This indicates the necessity of resilient, distributed logistics systems for maintaining operational continuity under adverse conditions.

Electronic Warfare and Counter-Drone Operations. Electronic warfare and counter-drone technologies have become a must. In Ukraine, jamming and signal interference tactics have nullified Russian drone activities. Urban combat in Gaza highlights the need for dependable communication in urban centers. Nations must invest in convergent electronic warfare, counter-drone, and cybersecurity competencies to counter emerging threats in sophisticated electronic environments.

Humanitarian and Ethical Considerations. Minimising mistakes among non-combatants is essential. The Gaza and Ukrainian conflicts underscore the importance of precision technologies and moral principles. Allowing force size variations, modernisation, and preparedness demands adaptive forces that can reform toward humanitarian and operational demands quickly. Morality in war is more closely associated with success in strategy since killing civilians might erode legitimacy and result in global sanctions.

Preparing for Peer-to-Peer Conflicts. Analysis based on US-China wargaming and India-Pakistan interactions emphasises the need for enhanced air and missile defences against hypersonic and mass drone threats. US Government Accountability Office reports indicate optimal practices for overcoming these challenges, including AI-based detection and modular defence systems. India’s swift introduction of Akash-NG and S-400 systems indicates a priority for countering peer country threats.

 

Defence Modernisation Trends

Acceleration of AI-Driven Command & Control.  The inculcation of AI in command, control, communications, computers, intelligence, surveillance, and reconnaissance systems is advancing rapidly. Real-time targeting, predictive analytics, and cross-domain integration are enriching decision-making in high-intensity conflicts. India’s AI roadmap for 2025-27 prioritises surveillance, cyber defence, and autonomous systems, in line with AI-driven warfare global trends.

Unmanned Systems Proliferation. The expansion and diversity of unmanned systems—drones, unmanned underwater vehicles, and loitering munitions—are developing at a fast pace. Ukraine’s utilisation of cheap drones against more powerful forces proves the utility of swarm tactics and artificial intelligence technology. Countries are emphasising mass production, redundancy, and flexibility in distributed operations to engage numerically superior adversaries.

Resilient Communications and Quantum-Encrypted Networks. Secure jam-resistant communication networks are vital with increasing electronic warfare threats. Quantum encryption holds out a potential answer to counter cyber intrusions. India’s focus on indigenous cybersecurity development is in sync with international pushes towards robust command-and-control networks and maintaining operational continuity in the midst of war.

Integrated Air & Missile Defence Enhancements. Developments in defending against hypersonic missiles and swarms of drones are essential. AI-based radar platforms, modular interceptors, and networked sensors enable faster reaction times. India, combining Akash-NG with Russian S-400 systems, along with practices that the Government Accountability Office has proposed, demonstrates a layered defence against a range of airborne threats.

Distributed and Modular Force Structures. Greater, fixed sizes of units are being supplanted by smaller, networked ones, which can be rapidly redeployed. Modular force structures allow flexible organisation of tasks, and theatre commands facilitate joint operations. India’s initiative of local defence manufacturing and theatre-level integration is in tune with a worldwide trend towards technology-enabled, agile military forces.

Rapid Production & Fielding Through Modular Manufacturing. Accelerating research and development to deployment is imperative in the quest for staying competitive. Industry 5.0 converges AI, advanced robots, and human-machine interaction to enable modular manufacturing. India’s Production-Linked Incentive programs seek scalable manufacturing of drones and AI systems, tracking global initiatives toward quick, flexible manufacturing.

 

Conclusion

The 2025 geopolitical trends, fueled by rivalry between several powers, resource depletion, and hybrid warfare, have transformed global security. Ukraine, Gaza, and Kashmir conflicts display the velocity of escalation, the role of information control, and the requirement of robust logistics and communications. Defence modernisation is progressing at a fast pace, with systems that embrace AI, unmanned systems, and modular forces taking the forefront. States have to focus on agility, convergence of technologies, and morality to combat the complexity of contemporary threats. With the global system continuing to break apart, the 2025 lessons reinforce the importance of flexible, robust, and creative defence approaches towards guaranteed security in a world that is uncertain.

 

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References and credits

To all the online sites and channels.

Pics Courtesy: Internet

Disclaimer:

Information and data included in the blog are for educational & non-commercial purposes only and have been carefully adapted, excerpted, or edited from reliable and accurate sources. All copyrighted material belongs to respective owners and is provided only for wider dissemination.

 

 

References:-

  1. Al-Jabari, M., & Khalidi, R. (2025). Proxy Warfare in the Middle East: Iran, Yemen, and the Red Sea Crisis. Middle East Policy Council.
  2. Apps, P. (2025, June 27). From India-Pakistan to Iran and Ukraine, a new era of escalation. Reuters. https://www.reuters.com
  3. Binnendijk, H., & Gompert, D. C. (2024). The Future of Warfare: Hybrid Threats and the New Geopolitical Reality. RAND Corporation.
  4. Center for Strategic and International Studies (CSIS). (2025). The Future of Hybrid Warfare.
  5. Center for Strategic and International Studies (CSIS). (2025). Unmanned Systems and Swarm Tactics: Lessons from Ukraine and Beyond.
  6. European Union Institute for Security Studies (EUISS). (2025). Resource Competition and Geopolitical Flashpoints: Energy, Water, and Rare Earths.
  7. EY Global. (2024, December). Top 10 Geopolitical Risks in 2025: Geostrategic Outlook.
  8. Indian Ministry of Defence. (2025). Defence Modernisation Roadmap 2025-27: AI, Drones, and Theatre Commands. Government of India.
  9. IJCRT. (2025). Comparing Hybrid Warfare Strategies Inside The Ukraine Conflict.
  10. Kapur, S. P., & Ganguly, S. (2025). India-Pakistan Tensions in 2025: Escalation and Nuclear Risks. Carnegie Endowment for International Peace.
  11. NATO Defence College. (2025). Hybrid Warfare and the Information Domain: Lessons from Ukraine. NDC Research Paper.
  12. Operation Sindoor demonstrates India’s indigenous defence technological strength. (2025). The Times of India.
  13. S&P Global. (2025, February). Top Geopolitical Risks of 2025. S&P Global Market Insights.
  14. Stockholm International Peace Research Institute (SIPRI). (2025). SIPRI Yearbook 2025: Armaments, Disarmament, and International Security. Oxford University Press.
  15. UNIDIR. (2025, July). Artificial Intelligence in the Military Domain and Its Implications.
  16. Wellington Management. (2025, February). Geopolitics in 2025: Risks, Opportunities, and Deepening Uncertainties.
  17. India’s new warfare: Drones, data, and the defence race that can’t wait. (2025, June). Economic Times.
  18. Narratives Under Fire: Information Warfare Lessons from… (2025, July 31). Small Wars Journal.

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726: Stealth and Counter Stealth Technologies

 

Presented my views While Chairing a session on Counter Stealth Technologies during the “Best Practices Meet 2025” organised by the Data Security Council of India on 21 Aug 25.

 

STEALTH AND COUNTER-STEALTH TECHNOLOGIES

 

Stealth Technology Overview

Stealth technology enhances aircraft survivability by reducing detectability across radar, infrared (IR), acoustic, and visual spectrums, not rendering aircraft invisible but lowering signatures to complicate enemy detection and targeting. Key techniques include:

    • Radar Cross-Section (RCS) Reduction: Achieved through aerodynamic shaping and radar-absorbent materials (RAM).
    • Infrared (IR) Suppression: Minimises heat signatures from engines and airframes.
    • Acoustic and Visual Reduction: Reduces noise and visual detectability.
    • Electronic Countermeasures (ECM): Jamming and deception disrupt enemy sensors. Examples include the F-22, F-35, and B-2, which aim to delay or complicate enemy interception. Stealth evolves with advanced RAM, active stealth, and hypersonic/unmanned designs, sustaining an ongoing offence-defence race.

 

Challenges in Countering Stealth Aircraft

    • Detection vs. Targeting: Low-frequency radars (VHF/UHF/OTH) detect stealth aircraft but lack precision for targeting. High-frequency radars offer accuracy but struggle against stealth designs.
    • Electronic Warfare (EW): Stealth platforms deploy jamming, deception, and cyber-attacks to disrupt sensors and defence networks.
    • Operational Limitations: Terrain, weather, electromagnetic interference, and sensor fusion complexities hinder counter-stealth efforts.

 

Stealth Vulnerabilities

    • Broadband Detection: Stealth is optimised for specific radar bands (e.g., X-band), but broadband, low-frequency, and multi-static radars exploit larger RCS at longer wavelengths.
    • Operational Emissions: IR and electromagnetic emissions remain detectable by passive sensors and advanced EW, despite suppression efforts.
    • Environmental Factors: Rain, ice, dust, and temperature variations degrade stealth coatings, increasing detectability.
    • Data Fusion: AI-driven sensor fusion integrates radar, IR, and electromagnetic data, challenging stealth’s low-observable nature.

 

Key Counter-Stealth Technologies

  1. Low-Frequency Radars (VHF/UHF)
    • Mechanism: Operate in the 30 MHz–3 GHz range, exploiting larger RCS where RAM and shaping are less effective.
    • Examples: Russia’s Nebo-M, China’s JY-27A, India’s Rohini.
    • Effectiveness: Ideal for long-range early warning but limited in targeting precision, requiring integration with high-frequency radars or IRST.
    • Limitations: Susceptible to clutter, less accurate for weapon guidance, vulnerable to ECM.
  2. Passive Radar Systems
    • Mechanism: Detect reflections of ambient signals (e.g., FM radio, TV, cellular) or emissions like engine noise.
    • Examples: Czech VERA-NG, U.S. Silent Sentry.
    • Effectiveness: Resistant to jamming, ideal for covert detection in high-signal environments.
    • Limitations: Dependent on ambient signal availability, requires complex signal processing and dense sensor networks.
  3. Infrared Search and Track (IRST)
    • Mechanism: Detects heat signatures from engines or airframe friction, bypassing radar-based stealth.
    • Examples: Russian Su-35, Chinese J-20 (up to 50 km range).
    • Effectiveness: Immune to RAM, complements radar in multi-sensor networks.
    • Limitations: Weather-dependent (clouds, rain, humidity) and limited range compared to radar.
  4. Multi-Static Radar Networks
    • Mechanism: Use multiple transmitters/receivers to detect scattered signals from various angles, countering stealth’s angle-specific designs.
    • Examples: Russia’s Nebo-M, UK’s CELLDAR.
    • Effectiveness: Increases detection probability by exploiting reflections missed by monostatic radars.
    • Limitations: Requires sophisticated infrastructure and signal processing.
  5. AI-Powered Sensor Fusion
    • Mechanism: Integrates radar, IR, acoustic, and passive sensor data to create a comprehensive battlespace picture, using AI to identify patterns and reduce false positives.
    • Examples: U.S. and Chinese air defence networks.
    • Effectiveness: Enhances detection accuracy, predicts flight paths, and mitigates single-sensor weaknesses.
    • Limitations: Requires significant computational resources, vulnerable to cyber-attacks.
  6. Over-the-Horizon (OTH) Radars
    • Mechanism: Use low-frequency HF/VHF signals reflected off the ionosphere for long-range detection.
    • Examples: Russia’s Container, China’s Skywave, Australia’s Jindalee.
    • Effectiveness: Bypasses line-of-sight limitations for early warning.
    • Limitations: Low resolution, susceptible to ionospheric disturbances, and limited targeting precision.
  7. Quantum Radar (Emerging)
    • Mechanism: Uses quantum entanglement for high-sensitivity detection of subtle disturbances.
    • Examples: Under development in China and the U.S.
    • Effectiveness: Potentially revolutionary, capable of detecting low-observable targets through RAM.
    • Limitations: Experimental, requiring ultra-low temperatures and robust systems, with deployment years away.
  8. Directed Energy Weapons (DEWs)
    • Mechanism: High-energy lasers/microwaves disrupt stealth aircraft sensors, coatings, or electronics.
    • Examples: U.S. and NATO programs.
    • Effectiveness: Near-instantaneous, cost-effective engagement, degrades stealth capabilities.
    • Limitations: Limited by range, atmospheric conditions, and power requirements.
  9. Space-Based Sensors
    • Mechanism: Satellites with IR and synthetic aperture radar (SAR) detect heat signatures and track stealth aircraft globally.
    • Examples: U.S. Space-Based Infrared System (SBIRS).
    • Effectiveness: Persistent surveillance, immune to terrain limitations.
    • Limitations: High cost, vulnerable to anti-satellite weapons, and data processing challenges.
  10. Hypersonic Defence Systems
    • Mechanism: High-speed interceptors with multi-mode seekers (radar, IR, quantum) engage stealth aircraft.
    • Examples: Emerging U.S. and Russian systems.
    • Effectiveness: Reduces reaction time, counters stealth penetration.
    • Limitations: High cost and technological complexity.

 

Case Studies in Counter-Stealth Operations

  • 1999 Kosovo War: Serbian S-125 SAM downed an F-117 using low-frequency radar, electronic intelligence, and visual observation, exposing early stealth vulnerabilities.
  • U.S.: Integrates low-frequency radars (AN/TPS-77), AI, sensor fusion, and space-based systems (Aegis, SBIRS) for networked defence.
  • Russia: Uses OTH radars (Rezonans-NE), IRST, and multi-band systems (S-400/S-500) to track stealth aircraft in Syria.
  • China: Advances quantum radar, passive systems (DWL002), and VHF/UHF radars (JY-27A) to counter U.S. stealth in the Indo-Pacific.
  • India: Employs S-400, indigenous radars (Rohini, Arudhra), and networked defences, with interest in quantum radar and AI.

 

Effectiveness of Counter-Stealth Technologies

No single technology neutralises stealth aircraft, but integrated air defence systems (IADS) combining low-frequency radars, IRST, passive systems, and AI-driven sensor fusion significantly reduce stealth effectiveness. Examples include Russia’s S-400/S-500 and China’s Type 055 destroyer. The 1999 F-117 shootdown demonstrated vulnerabilities to coordinated low-frequency and passive detection tactics.

 

Operational Challenges:

    • Detection vs. Targeting: Low-frequency and OTH radars excel at detection but lack targeting precision, requiring integration with high-frequency radars or IRST.
    • Environmental Factors: Weather, terrain, and electromagnetic interference degrade IRST and passive system performance.
    • Stealth Adaptability: Advanced materials (e.g., China’s ultra-thin RAM) and ECM keep stealth ahead of detection.
    • Cost and Complexity: Quantum radar and space-based sensors are expensive and infrastructure-intensive, limiting adoption.

 

Future Trends

    • Space-Based Detection: Satellites with IR/SAR enhance global surveillance, challenging stealth aircraft.
    • Hypersonic Interceptors: High-speed missiles with multi-mode seekers counter stealth penetration.
    • Directed Energy Weapons: Lasers/microwaves disrupt stealth electronics and coatings, offering cost-effective engagement.
    • Quantum Radar: Could render current stealth designs obsolete if practical challenges are overcome.
    • AI and Distributed Networks: AI-driven sensor fusion and dispersed sensor grids create resilient detection systems.

 

Strategic Implications

    • Tactical Shift: Counter-stealth advancements may push reliance on stand-off weapons, unmanned systems, or EW. Stealth aircraft may operate with drones (e.g., NGAD’s “loyal wingman”) to misdirect detection.
    • Cost-Benefit Analysis: High costs of stealth platforms (e.g., F-35 at $100M+ per unit) may shift investments to hypersonic weapons, DEWs, or drones if counter-stealth systems achieve parity.
    • Geopolitical Dynamics: The U.S. pursues stealth supremacy (NGAD, F/A-XX), while China and Russia counter with advanced detection, driving an arms race with innovation and escalation risks.
    • Future Warfare: Cyber warfare, space-based detection, and AI-driven autonomy will redefine air combat, emphasising multi-domain integration.

 

Added Value: Insights and Perspectives

    • Cat-and-Mouse Game: The stealth-counter-stealth race mirrors historical armour vs. anti-tank dynamics. Advancements like metamaterials and adaptive camouflage prompt countermeasures like quantum radar and AI-driven detection, ensuring no permanent dominance.
    • Role of AI and Autonomy: AI enables real-time radar adaptation, predictive analytics, and autonomous sensor grids, shifting human roles to supervisory functions.
    • Economic and Strategic Trade-offs: Developing nations like India prioritise cost-effective solutions (e.g., low-frequency radars), while wealthier nations pursue high-risk technologies (e.g., quantum radar), potentially widening technological gaps.
    • Environmental Realities: IRST and OTH radar performance varies with conditions, requiring AI-driven adaptability for consistent effectiveness.
    • Emerging Disruptors: Quantum radar and DEWs could revolutionise air defence but face technical hurdles like power requirements and environmental sensitivity.
    • Geopolitical Implications: China’s counter-stealth radar in the South China Sea, Russia’s S-400/S-500, and India’s balancing act highlight regional tensions driven by stealth-counter-stealth competition.
    • Ethical Considerations: AI and autonomous systems raise risks of misidentification and escalation, while proliferation to non-state actors could destabilise global security.

 

Conclusion

The arms race between stealth and counter-stealth defines modern air warfare. Stealth technology, exemplified by platforms like the F-22 and F-35, provides a tactical edge through RCS reduction, IR suppression, and ECM. However, counter-stealth innovations—low-frequency radars, IRST, passive systems, AI-driven sensor fusion, and emerging quantum radar—are narrowing this advantage. Integrated air defence systems (e.g., S-400, Type 055) combine these technologies for robust detection. Sixth-generation fighters (e.g., NGAD, J-36) will integrate AI, drones, and adaptive materials to counter evolving defences. Future success depends on multi-domain integration of AI, space-based sensors, DEWs, and autonomous systems. Environmental, economic, and geopolitical constraints will shape adoption, while the interplay between stealth and counter-stealth will redefine air superiority and global military balances, demanding continuous innovation and strategic foresight.

 

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References and credits

To all the online sites and channels.

Pics Courtesy: Internet

Disclaimer:

Information and data included in the blog are for educational & non-commercial purposes only and have been carefully adapted, excerpted, or edited from reliable and accurate sources. All copyrighted material belongs to respective owners and is provided only for wider dissemination.

 

References:-

  • Sweetman, B. Stealth Aircraft: Secrets of Future Airpower. St. Paul, MN: Zenith Press, 2012.

  • Pace, S. The B-2 Spirit Stealth Bomber. Minneapolis: Motorbooks International, 1999.

  • Knott, E. F., Shaeffer, J. F., & Tuley, M. T. Radar Cross Section. 2nd ed. Raleigh: SciTech Publishing, 2004.

  • Goure, D. “The Limits of Stealth: Challenges of Countering Low Observable Aircraft.” Journal of Military and Strategic Studies, vol. 18, no. 3, 2016, pp. 1–24.

  • Watts, B. D. “The Role of Stealth Technology in the Air Force’s Future.” Center for Strategic and Budgetary Assessments, 2015.

  • Jivraj, M. “Counter-Stealth Technologies and the Evolving Air Defence Landscape.” Defense & Security Analysis, vol. 32, no. 4, 2016, pp. 289–307.

  • Karber, P. A. “Lessons Learned from the F-117 Shootdown in Kosovo.” Military Review, vol. 80, no. 3, 2000, pp. 51–60.

  • Congressional Research Service. Advanced Military Technology: Emerging Trends and Implications. Washington, D.C.: CRS, 2021.

  • Office of Naval Research. Directed Energy Weapons Roadmap. Washington, D.C.: ONR, 2018.

  • Federation of American Scientists (FAS). “Stealth Technology and Counter-Stealth Radar Systems.” FAS Issue Brief, 2019.

  • RAND Corporation. The Future of Air Combat: Stealth, Counter-Stealth, and Electronic Warfare. Santa Monica, CA: RAND, 2017.

  • Australian Defence Science and Technology Group. Over-the-Horizon Radar and its Implications for Air Defence. Canberra: DSTG, 2018.

  • Chinese Academy of Sciences. Quantum Sensing for Defence Applications. Beijing: CAS, 2020.

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716: PAKISTAN ARMY INDUCTS CHINA’S Z-10ME ATTACK HELICOPTER

 

My Article was published on “The EurasianTimes” website

on 04 Aug 25.

 

On August 2, 2025, the Pakistan Army inducted the Chinese-manufactured Z-10ME attack helicopter into its aviation wing. The induction ceremony was held at Multan Garrison and presided over by Chief of Army Staff Field Marshal Asim Munir. During the induction ceremony, a firepower demonstration at the Muzaffargarh Field Firing Ranges showcased the Z-10ME’s operational prowess. The helicopter executed precision strikes, demonstrating its ability to engage targets with accuracy and lethality. This event not only marks the first known export of the Z-10ME but also highlights Pakistan’s growing military-industrial ties with China.

Designed for high-altitude operations, precision strike missions, and enhanced survivability in contested environments, the Z-10ME is poised to become the cornerstone of Pakistan’s attack helicopter fleet, supplanting the ageing American-supplied AH-1F Cobra helicopters. The induction of the Z-10ME signifies a significant realignment in Pakistan’s defence procurement strategy, especially in light of the stalled agreements with Western suppliers.

 

The Z-10ME

 The Z-10ME, an export-oriented variant of China’s Z-10 attack helicopter, is designed to deliver precision strikes in both day and night conditions, making it a versatile asset for modern battlefields. It is often referred to as China’s answer to the American AH-64 Apache and the Russian Mi-28 Havoc. Developed by the Changhe Aircraft Industries Corporation (CAIC), the Z-10ME is equipped with cutting-edge technology tailored to meet the demands of complex combat environments.

Pakistan’s variant comes equipped with twin uprated WZ-9G turboshaft engines, providing approximately 1,500 horsepower each, designed to deliver reliable performance in high-altitude, hot-and-dusty operational theaters, a crucial requirement given Pakistan’s mountainous terrain in areas like Khyber Pakhtunkhwa and Balochistan. The service ceiling exceeding 6,000 meters enables operations in regions where older platforms, such as the AH-1F, struggled with payload and manoeuvrability.

The Z-10ME is engineered with an emphasis on all-weather, day-night precision strike capabilities, integrating advanced sensor suites that include millimeter-wave (MMW) radar, electro-optical targeting systems (EOTS), and helmet-mounted displays (HMD) for pilots. Its six external hardpoints allow it to carry a versatile range of munitions, including AKD-10 anti-tank guided missiles (ATGMs), CM-502AG air-to-ground missiles, TY-90 air-to-air missiles, and precision-guided rockets. Additionally, the Z-10ME is compatible with CM-501XA loitering munitions and SW-6 launchable UAVs, offering Pakistan a multi-domain strike capability.

One of the helicopter’s standout survivability features is its infrared-suppressed exhaust system, designed to reduce heat signatures against MANPADS threats. Its sand-filtered engine intakes, composite armour plating, self-defence electronic warfare (EW) suite, and laser warning receivers further enhance its ability to survive in modern contested environments.

 

Analytical Perspective

Failed Acquisition Efforts: China to the Rescue. The induction of the Z-10ME coincides with Pakistan’s ongoing efforts to modernise its battlefield aviation assets, particularly following obstacles encountered in acquiring Western attack helicopters. Pakistan’s ageing fleet of Bell AH-1F Cobras, initially inducted in the 1980s, has become increasingly obsolete in the face of advanced air defence systems and technologically sophisticated enemy armour. An earlier attempt to procure the Turkish T-129 ATAK helicopters was unsuccessful after the United States withheld export licenses for the CTS800 engines, thereby effectively terminating the deal. Similarly, Pakistan’s persistent requests to acquire additional AH-1Z Viper helicopters from the United States have been impeded due to diplomatic tensions and export restrictions. In this context, China has emerged as a reliable defence partner, offering a capable and adaptable solution through the Z-10ME platform. For Pakistan, this development not only addresses a critical operational deficiency but also aligns with its broader strategic objectives of reducing dependence on Western suppliers, diversifying its defence arsenal, and strengthening defence-industrial collaboration with Beijing.

Pakistan-China Military Cooperation. The induction of the Z-10me signifies a milestone in Pakistan-China military collaboration, which has witnessed substantial growth in recent years. China has become Pakistan’s principal arms supplier, offering a diverse array of platforms, ranging from main battle tanks to naval vessels. The agreement concerning the Z-10ME fortifies this partnership, illustrating China’s confidence in Pakistan as a strategic ally and as a significant market for its defence exports. This collaboration transcends mere equipment procurement. The two nations have engaged in joint military exercises, technology transfers, and co-production agreements, thereby fostering interoperability and enhancing technical expertise. The China-Pakistan Economic Corridor (CPEC), a flagship initiative within China’s Belt and Road Initiative, has further solidified bilateral ties, with security cooperation playing an essential role in protecting CPEC infrastructure. The deployment of the Z-10me could augment Pakistan’s capacity to safeguard these economic assets, particularly in volatile regions such as Balochistan.

Fleet Size and Deployment Plans. While the exact number of helicopters in the initial batch remains undisclosed, defence analysts estimate that Pakistan has received an initial tranche of 4–8 units, with a long-term objective of inducting around 50–60 helicopters. These helicopters are expected to be deployed across strategically vital sectors, including the Eastern front facing India, counter-terrorism operations in the North-West, and rapid deployment roles in the South. Operational deployment is also expected to focus on integration with Pakistan’s Network-Centric Warfare (NCW) infrastructure, enabling seamless coordination with ground forces, surveillance drones, and air defence units.

Capability Enhancement. From a tactical standpoint, the Z-10ME significantly enhances Pakistan’s capability to conduct close air support (CAS), anti-armour missions, and precision strikes against high-value targets in complex terrains. The helicopter’s ability to integrate unmanned systems, loitering munitions, and advanced networked sensors offers the Pakistan Army a level of operational flexibility that its legacy platforms could not provide. With the Z-10ME in its arsenal, the Pakistan Army Aviation Corps can now:-

    • Deliver precise anti-armour strikes against adversary mechanised forces, particularly relevant in the context of India’s armoured strength along the eastern border.
    • Provide sustained air support and rapid troop deployment in insurgency-prone areas, enhancing the ability to counter hostile movements swiftly.
    • Conduct modern reconnaissance and battlefield management missions, thanks to digital communications, long-range optics, and robust sensor suites.
    • Project airpower into rugged mountainous terrains, where older helicopters struggled to operate at full effectiveness.

 

Challenges. While the Z-10ME signifies a significant advancement for Pakistan’s army aviation, its integration into the force encounters several challenges. Training pilots and maintenance personnel to operate and maintain this new platform will necessitate substantial investments of time and resources. The Pakistan Army must establish a comprehensive logistics and support infrastructure to guarantee the helicopter’s operational readiness. Furthermore, ensuring interoperability with existing systems and fostering coordination with other branches of the armed forces will be essential to maximising the Z-10ME’s operational effectiveness.

Future Prospects. Looking ahead, the induction of the Z-10me paves the way for enhanced collaboration with China, potentially involving technology transfers and joint development of future platforms. As Pakistan advances its military modernisation efforts, the Z-10ME is expected to play a pivotal role in shaping its army aviation strategy. Its success will depend on Pakistan’s capacity to capitalise on the helicopter’s capabilities while effectively addressing logistical and operational challenges.

Regional Implications. The deployment of the Z-10ME helicopter holds considerable significance for regional security dynamics, particularly within the context of Pakistan’s rivalry with India. The modernisation of the Indian military, exemplified by its procurement of Apache AH-64E attack helicopters from the United States, has incentivised Pakistan to pursue comparable capabilities. While the Z-10ME may not fully match the advanced systems of the Apache in every aspect, it offers a cost-effective alternative with comparable firepower and operational versatility. This acquisition underscores Pakistan’s intention to preserve a credible deterrent against potential adversaries. Furthermore, the deployment of the Z-10me could alter the power balance in South Asia, particularly in the realms of counterinsurgency and border operations. Its capacity to execute precision strikes against terrorist hideouts and to support ground forces in remote regions enhances Pakistan’s operational scope. Nevertheless, this development also raises concerns regarding an arms race in the region, as neighbouring states may respond by accelerating their military modernisation initiatives.

 

Conclusion

The induction of the Z-10ME attack helicopter into the Pakistan Army signifies a significant advancement in its military modernisation and strategic alliance with China. With its cutting-edge technology, precision strike capabilities, and reliable all-weather performance, the Z-10ME augments Pakistan’s capacity to confront a broad spectrum of security concerns, ranging from counterterrorism initiatives to conventional combat. As an emblem of Pakistan-China collaboration, the helicopter highlights the strengthening defence relations between the two nations. Although challenges persist, the integration of the Z-10me into the Pakistan Army Aviation Corps positions it as a vital asset in safeguarding the nation’s security and sovereignty amid an increasingly complex regional landscape.

 

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After J-10C Fighters, China, Pakistan Cement Military Ties With Z-10 ME Helos; How Do They Stack Up Against Indian Apaches?

 

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References:-

  1. “Pakistan Army Inducts Chinese Z-10ME Attack Helicopter into Service.” The News International, August 3, 2025.
  1. “Z-10ME Helicopter: Pakistan’s New Aerial Asset.” Dawn, August 3, 2025.
  1. “China’s Z-10ME Makes Export Debut with Pakistan Army.” Global Times, August 2, 2025.
  1. “Pakistan Bolsters Army Aviation with Z-10ME Induction.” Express Tribune, August 3, 2025.
  1. “Technical Specifications and Capabilities of the Z-10ME Attack Helicopter.” Jane’s Defence Weekly, August 2025.
  1. “Pakistan-China Military Cooperation: A Growing Partnership.” Asia-Pacific Defence Reporter, July 2025.
  1. “Field Marshal Asim Munir Presides Over Z-10ME Induction Ceremony.” Pakistan Armed Forces News, August 2, 2025.
  1. Pakistan Today, “COAS stresses civil-military synergy as Army inducts Z-10ME attack helicopters”, Published: August 3, 2025.
  1. The Khyber Mail, “Pakistan Inducts China’s Z-10ME Gunship Helicopters”, Published: August 3, 2025.
  1. Army Recognition, “Pakistan replaces US-made attack helicopters with Chinese Z-10ME to strike faster and farther”, Published: August 3, 2025.

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