The Follower’s Dilemma: The Cost of Chasing China in Space
India need not, cannot, and should not validate competitor metrics through reactive pursuit.
When China’s Shenzhou-20 suffered debris damage in November 2025, Shenzhou-22 launched within twenty days – a capability enabled by decades of building a production architecture. India faces strategic choices across space domains: Gaganyaan’s transition from development to operations, NavIC’s recovery from launch and satellite clock failures without backup satellites, and space station plans preceding heavy-lift production capacity. The pattern reveals a planning approach prioritizing announcements over infrastructure. We must move away from reactive policies that appear rational yet systematically undermine India’s actual security needs. Genuine space power is built by solving one’s own problems, with solutions matched to one’s constraints, evaluated on metrics aligned with one’s strategic objectives.
Different Problems, Different Solutions
China’s space architecture solves uniquely Chinese problems. Geopolitical isolation drives autonomous satellite operations: Tianlian relay satellites, inter-satellite links, and satellite tracking ships compensate for potential denial of allied access. BeiDou’s layer of geostationary and inclined geosynchronous satellites specifically penetrates urban canyons in megacities. These aren’t generic capabilities but tailored solutions to Chinese geography, economy, and diplomatic isolation.
India faces different constraints. As a QUAD partner, India can leverage allied ground stations whilst pursuing autonomous operations as a strategic choice rather than an imposed necessity. NavIC emerged from the 1999 Kargil War trauma when the US denied GPS access. The Indian Navy drove requirements: S-band encrypted signals for anti-jam maritime operations, and high satellite elevation angles optimized for Indian Ocean coverage. Optimizing for naval security created trade-offs in civilian adoption that BeiDou’s dual-use architecture avoided. India’s actual threat matrix demands simultaneously monitoring the Line of Actual Control (LAC), deterring Pakistan, and maintaining maritime security in the Indian Ocean Region.
Geographic advantages India possesses yet underutilizes reveal the absurdity of reactive thinking. India’s Satish Dhawan Space Centre sits at 13.7°N - equatorial access that major space powers covet. China signed a letter of intent with Malaysia in 2025 for the Pahang International Spaceport at 3-4°N; Turkey commenced the Somalia spaceport construction in early 2026. Both recognize what India has possessed for decades: lower latitude reduces cost to access low-inclination orbits - geostationary assets for strategic communications and LEO assets for rapid revisit surveillance.
Economic realities between India and China have a fundamental divergence. China uses overcapacity as a deliberate policy: the state subsidizes firms and harvests intellectual property if companies collapse. Chang Guang Satellite Technology (CGSTL) operates duplicate factories despite losses, maintaining the world’s largest commercial Earth Observation (EO) constellation. China tolerates ventures on the brink of failure whilst ensuring strategic outcomes. India cannot replicate this approach. When NavIC’s NVS-02 failed in 2025, the path back to ideal coverage was derailed with no backup satellites ready for launch. Currently, three of the seven required NavIC satellites are operational. NVS-02 was a replacement for IRNSS-1E (111.75°E IGSO slot). This makes Eastern Theatre operations (east of 94°E) face 80% service loss, forcing reliance on foreign GNSS for precision operations - the dependency NavIC was designed to eliminate. India doesn’t have room in its budget for capacity buffers and hence struggles to maintain baseline constellation replacement cadence.
Structural Asymmetries Preclude Parity
China’s centralized system enables unified civil-military integration, where the PLA directs equipment build-out, with each capability having both origin and end-use in the larger “informatized” kill web. The China Aerospace Science and Technology Corporation (CASC) coordinates subsidiaries in systematic technology transfer across fifteen-year roadmaps: LEO rendezvous demonstrations (Shiyan-7, 2013) informed lunar docking systems (Chang’e 5, 2020), which fed operational GEO servicing capabilities (Shijian-25, 2025). This institutional fluidity - where IP flows across state enterprises, military requirements drive civil development, and long-term planning coordinates otherwise dispersed capabilities - demonstrates how centralized governance can achieve strategic outcomes impossible within fragmented institutional structures. In April 2024, China dissolved the PLA Strategic Support Force, creating the dedicated PLA Aerospace Force as a full military branch, signalling commitment to this integrated approach as well as confirming that space is now a warfighting domain.
America’s market-based economy produces different integration patterns: commercial innovation like HEO Robotics’ non-Earth imaging (NEI) and Northrop Grumman’s Mission Extension Vehicle (MEV) accidentally solve strategic problems that formal military planning can fail to articulate in detail. This hyper-capitalistic model demonstrates innovation pathways that authoritarian systems inherently suppress.
India’s institutional structure cannot replicate either model. ISRO’s commercial arm operates separately from defense requirements. The Defence Space Agency coordinates tri-services needs but remains a coordination body, not a dedicated space force. The challenge lies in integrated planning linking space capabilities to specific military-strategic outcomes rather than funding capability alone. Also, standing up a dedicated space force without formulating an Integrated Space Doctrine would waste significant resources on misaligned objectives.
China’s diverse rocket fleet supports a launch cadence that allows even CGSTL’s claim of 1,000 satellites per year production capacity to be credible. India lacks equivalent diversity or heavy-lift capability, with the Next Generation Launch Vehicle (NGLV) timeline extending to 2032. 2026’s launcher developments (commercial SSLV, Vikram-1) target small-satellite markets facing questionable viability.
ISRO was established as a research organization that also shouldered capacity-building, internalizing facilities and expertise without diffusing know-how into industry. The 2020 space sector reforms demanded retaining research and pushing capacity to industry with expertise lacking at the receiving end. Comparisons with the US and Europe ignore that their launch systems, though government-born, were built by entities structurally configured as industry.
ISRO has evolved into a quasi-PSU through expectation, but without the requisite structure. At capacity limits, it strains between dual personalities, unable to maintain reliability and cadence simultaneously. The private sector needs time and ISRO must meanwhile meet national targets – and to do this, the inability to hire the next generation is unforgivable. It seems we opened the sector without preparing for transition.
PSLV-C61 (May 2025) and PSLV-C62 (January 2026) both failed during third-stage operations: two consecutive failures in a rocket with a near-spotless 32-year record. This signals systemic stress in ISRO, not sabotage - lazy speculation that avoids hard truths. We need to be a space power as a nation, not just as an efficient agency or by startup count. The transition architecture between what ISRO is today and what it is expected to become requires urgent attention before more capability is lost to organizational incoherence.
Validation of Adversary Metrics
When China announced orbital computing constellations in 2025, followed by multiple international players, India’s Department of Space confirmed in January 2026 that ISRO is “studying feasibility” of orbital data centers. Each “we will also develop X” after someone announces X validates their chosen metrics as the yardstick of success.
ISRO continues to rely on imports for critical radiation-hardened components, as India lacks robust electronics manufacturing, where low demand for radiation-hardened chips makes domestic production non-viable. The broader defense sector shows 84% foreign-origin procurement. Recent QUAD uncertainty underscores the importance of strategic sequencing: accept assistance for commoditized capabilities whilst prioritizing indigenous development for crisis-critical systems. The challenge is in distinguishing which dependencies become strategic vulnerabilities during crises versus which represent efficient specialization.
India’s annual space budget is approximately $1.5 billion against China’s estimated $10 billion. Resource constraints demand explicit choices: India cannot simultaneously pursue heavy-lift launch vehicles, human spaceflight infrastructure, mega-constellations, and comprehensive counter-space capabilities. The strategic question isn’t “should India do X?”, it is instead, “what does India explicitly not do to build what matters most?” This requires moving beyond aspirational capability lists to hard prioritization with identified opportunity costs.
China’s space developments optimize for a Taiwan contingency and South China Sea consolidation. India’s efforts should center on stability at the LAC, Pakistan deterrence, and achieving primacy in the Indian Ocean Region. Matching Chinese timelines means optimizing for the wrong culmination points.
Racing with Different Metrics and Finish Lines
Orbital Regime Specialization Through Geographic Advantage
While sun-synchronous orbits became the industry standard to obtain imagery with consistent lighting during the Landsat era, LEO proliferation now makes inclined orbits the next technical frontier. Developing processing expertise to harmonize multi-lighting and multi-viewpoint imagery and deliver machine-ready analytics for target detection and tracking will position India to lead emerging capabilities rather than following decades-old architectural choices. This geography-driven advantage serves the Indian Ocean Region and South Asian intelligence requirements through rapid regional revisit without competing in unproven global rapid-revisit business models. Building on NavIC’s inclined geosynchronous orbit expertise and investigating geostationary platforms alongside Highly-Elliptical Orbits for regional persistence are other options native to our needs.
Critical Data Sovereignty and the Pakistan Paradox
India faces an uncomfortable strategic reality: Pakistan, post Operation SINDOOR, now receives simultaneous support from both the United States and China. Whilst non-synchronized, this dual backing creates asymmetric pressures that India must navigate carefully. Compounding this challenge, the bulk of India’s Earth Observation intelligence (optical, synthetic aperture radar, radio frequency), Space Situational Awareness, and Maritime Domain Awareness streams originate from American and allied sources. This dependency creates vulnerability precisely when the reliability of said alliances is questioned.
The Cabinet’s October 2024 clearance of Space-Based Surveillance-3 (SBS-3), deploying 52 satellites for strategic intelligence, reconnaissance, and surveillance, represents a recognition of this vulnerability. However, the program can run the risk of being locked into today’s technologies if evolution pathways aren’t built to accommodate newer sensors, platforms, and operational capabilities as they mature in the domestic ecosystem.
Any decision-making framework we use must distinguish capability from architecture. India requires capability parity or superiority in critical domains for strategic autonomy, but capacity and implementation should derive from India’s needs, not copy-paste architectures. NavIC is a good example of applying this principle: built before the crisis, not during, and solving India-specific problems through an India-designed architecture. The SBS program must evolve similarly: matching or exceeding foreign capability in persistent surveillance, maritime domain awareness, and signals intelligence, whilst architecting constellations for our regional missions rather than replicating Western global architectures or Chinese designs to deter the US in the South China Sea.
This demands a delicate balancing act. India cannot afford not to build self-sufficiency in these domains, yet it cannot signal unreliability by duplicating capabilities after accepting foreign assistance. The path forward requires transparent communication with partners about strategic autonomy imperatives while demonstrating commitment to interoperability and burden-sharing where interests align.
Full-Spectrum Counter-Space: Asymmetric Response
Counter-space threats span kinetic, directed energy, electronic, and cyber domains. Pakistan’s emerging options include jamming and cyber-attacks on ground infrastructure; China operates the full spectrum with co-orbital capabilities, SIGINT constellations, and demonstrated ASAT in 2007.
Mission Shakti demonstrated kinetic capability twelve years after China, and remains incomplete when adversaries continuously developed the full-spectrum of capabilities. India’s advantages probably lie in software-intensive domains: electronic warfare, cyber operations, and jamming. These exploit Pakistan’s limited defenses and China’s PLA kill-web vulnerabilities through coordinated non-kinetic attack on centralized command nodes.
India must also harden its own assets through encryption, frequency-hopping, and distributed ground architectures, whilst accelerating offensive cyber and electronic warfare capabilities. Importantly, some of these asymmetric capabilities cannot depend on industrial capacity to be fielded at scale.
Industrial Policy and Domestic Standards
Multi-GNSS receivers incorporating NavIC, GPS, Galileo, and BeiDou as a default neutralizes dependency whilst maintaining constellation access. Some have proposed building a Medium Earth Orbit constellation requiring 24-30 satellites, without seeing that it is predicated upon launch capacity that will be unavailable at least until 2032 - asking India to run a global accuracy race versus securing regional availability. Multi-GNSS standardization with terrestrial augmentation and eLORAN backup costs one-tenth of such a constellation expansion and delivers the same with higher resilience.
Domestic industrial standards require maturation beyond current approaches. Transparent procurement needs specific reforms: quality-cum-cost evaluation should replace L1 bidding for technology procurement, multi-year program budgets enabling industry investment confidence, published technology roadmaps with procurement windows, and prototype-to-production pathways reducing re-competition friction. The European Space Agency’s methodology offers a reference model, but implementation must adapt to Indian regulatory constraints and budgetary processes. India’s recent Earth Observation public-private partnership (EO-PPP) illustrates some structural challenges: building capacity without transparent demand prevents organic ecosystem development. When the government fails to articulate operational requirements and procurement timelines, industry cannot determine where to invest. Transparent procurement enables supply to organize around actual operational needs, creating integrated value chains rather than disconnected players.
Procurement rules must also avoid excluding capable vendors through turnover minimums, exorbitant bank guarantees, escrow requirements, or arbitrary domestic content percentages, creating bottlenecks. Component-level ecosystem development requires a coherent industrial policy enabling evolution rather than contracts frozen in today’s technology.
High-Value Asset Security
Protecting existing crown jewels precedes acquiring new systems. GSAT communications satellites, NavIC constellation, and the Cartosat/RISAT Earth Observation fleet represent irreplaceable strategic infrastructure. Space Situational Awareness (SSA) for protecting these assets requires detecting orbital maneuvers, assessing conjunction risks, and maintaining knowledge of objects intersecting their orbital neighborhoods with sufficient warning time to act. This demands both data sharing agreements and domestic sensing capabilities and developing a more comprehensive Space Domain Awareness (SDA) framework that integrates intent assessment with tracking data. India cannot independently sense objects at scale. Currently, it seems like we have only a binary option: pay foreign providers or await domestic ecosystem development. The circular dependency traps investment without intervention: lack of government demand limits private investment; absence of private capability prevents government adoption. The European Space Agency broke this cycle in the Earth observation sector by publishing the procurement value for 2025-26, enabling companies like ICEYE to raise private capital against guaranteed government demand. India requires similar demand signalling.
Conclusion: The Unending Marathon
India’s strategic success cannot be defined by a victory in competitor-defined races. Space power emerges not from milestone chasing but from sustained resilience through each phase of global events while continuously uplifting national capabilities and maintaining strategic autonomy. This is not a sprint toward fixed finish lines but an unending marathon demanding adaptive strategies across shifting geopolitical landscapes.
The criteria by which India should measure progress diverge fundamentally from those enforced by its competitors. Rather than numerical parity in satellites, launch rates, or constellation scale, success should be assessed through functional outcomes: secure communications over priority regions; dependable positioning, navigation, and timing for military and civilian use; persistent intelligence and surveillance of threat vectors; and maritime domain awareness across the Indian Ocean Region – all while ensuring safety of both its own assets in orbit as well as responsibly cleaning up after operations cease.
Implementing this strategy requires institutional reforms that protect long-term programs from short-term political cycles. Multi-year budgeting authority, explicit milestone-independent success metrics, and protected R&D funding streams would enable the patient capability-building this strategy demands. Without these structural changes, reactive announcements will continue despite debates on strategic intent. The civilizational principle of Vasudhaiva Kutumbakam is not a rejection of strategic realism. Properly understood, it demands that India represents continuity rather than imitation: patient capability-building aligned with real national needs; partnerships based on transparency and mutual benefit, not dependency; and stewardship of the orbital commons through sustainable space activities. Running India’s marathon at India’s pace, with India’s metrics, toward India’s horizons is not merely a choice of strategy. It is an assertion of sovereignty.
Originally published in ADITI – Vol. 1, Issue. 1 — with graphics lightly edited for the web and enhanced with hyperlinks for citations. Please note: Access to all the articles in this volume requires a subscription. I would encourage readers to consider supporting the publisher Centre for Strategic Consultation Analyses and Network (CSCAN), founded by Puneet Parasar and Kartikeya Gupt.
The framing around validating adversary metrics is exactly right. Every “we will also build X” response concedes the race before it starts. NavIC is the better template, built for India’s problem, not as a reply to someone else’s solution.
Thanks for a well researched, argued and presented article.
As a China Watcher have following issues for you to consider:
1. China’s space architecture solves uniquely Chinese problems. Geopolitical isolation drives autonomous satellite operations.
2. China’s space developments optimize for a Taiwan contingency and South China Sea consolidation.
While China's space architecture does address problems, it is capability driven rather than problem-driven. China started its space programme in the late 1950s, when it recognised the importance of space. It is aspiring to be a global power by 2049 and it recognises the importance of space from the current as well futuristic perspectives. It is also due to a strategic mindset which calls for absorbing foreign technology, assimilating it and developing it further. We see that in history - domestic manufacture of European clocks in the 16th century and most imported products from the late-1970s when China opened up.
At the national level, the aspiration to become a global power, translates into setting standards which the world will follow. You have the Space Silk Road, which looks at exporting and installing ground systems with access to Beidou and other space systems across the world, as part of BRI projects. From a military perspective, control of Space is essential to win the Information War, which in turn is essential to win wars in other domains. From a futuristic perspective, China needs to establish a permanent and dominating presence in space, if it wants to win the Space War with the US.
3. This hyper-capitalistic model demonstrates innovation pathways that authoritarian systems inherently suppress.
Authoritarian systems including China, do not suppress innovation. If anything, they encourage it. The suppression comes only when the political system is threatened.