India has long projected its space program as a symbol of technological advancement and national pride. For decades, the Indian Space Research Organisation (ISRO) enjoyed an international reputation for reliability, particularly through its Polar Satellite Launch Vehicle (PSLV), widely described as the “workhorse” of India’s space fleet. However, a string of launch failures since 2021 has raised serious questions about the sustainability of that reputation.

The latest setback occurred in January 2026 when PSLV-C62 failed shortly after launch from the Satish Dhawan Space Centre. The mission carried the Earth observation satellite EOS-N1 (“Anvesha”) along with fifteen co-passenger satellites. A technical anomaly in the rocket’s third stage reportedly caused a sudden drop in chamber pressure, leading to the loss of all payloads.

This failure marked the second unsuccessful PSLV mission within eight months and the fifth major setback in India’s launch program since 2021. While launch failures are not uncommon in the inherently risky domain of space exploration, the frequency and clustering of recent incidents have fueled debate about whether systemic pressures are undermining operational reliability.

For nearly three decades, the PSLV built a reputation as one of the world’s most dependable medium-lift launch vehicles. Between its first successful mission in the 1990s and 2017, it experienced only two failures. That record allowed India to attract international satellite launches and position itself as a competitive player in the global small-satellite market.

However, recent disruptions suggest the program may be facing structural challenges. Earlier missions such as PSLV-C61 in May 2025 failed during the third stage, preventing the EOS-09 satellite from reaching its designated orbit. The GSLV-F10 mission in August 2021 also failed due to a cryogenic stage malfunction, while the inaugural SSLV-D1 launch in 2022 ended in partial failure when satellites were placed into an unstable orbit.

Although each incident had distinct technical causes, the cumulative effect has been significant. Analysts estimate that these failures have resulted in financial losses exceeding ₹2,200-2,800 crore (approximately $265–335 million), including the cost of destroyed satellites, launch vehicles, and disrupted commercial contracts.

The economic implications extend beyond direct financial losses. India once held a notable share of the global small-satellite launch market, particularly for rideshare missions carrying international payloads. Over time, however, private companies such as SpaceX have dramatically increased launch frequency and reliability, making it difficult for traditional government-run programs to compete.

India’s commercial share of the small-satellite market has consequently declined, with several international clients shifting to more dependable providers. This shift not only reduces potential revenue but also weakens India’s ambition to build an $8-billion space economy by 2030.

Beyond economics, the strategic implications are equally significant. Several of the affected missions carried dual-use satellites linked to navigation, surveillance, and national security applications. Delays or losses of such assets can disrupt capabilities related to earth observation, communications, and border monitoring.

The timing of these failures has also amplified scrutiny. India’s space sector is currently undergoing a major structural transition as the government encourages private participation and commercialization. New companies such as Skyroot Aerospace and Agnikul Cosmos have been introduced as part of a broader push to transform India into a global space technology hub.

While the objective of expanding private participation is widely supported, critics argue that rapid commercialization may inadvertently place pressure on launch schedules and testing cycles. A system that previously prioritized cautious engineering could face new expectations to accelerate deployment and deliver commercial returns. Supporters of India’s reforms counter that setbacks are a normal part of technological development and that both public and private actors must adapt to evolving challenges. They also note that many spacefaring nations—including the United States, Russia, and China—experienced numerous failures during the early phases of their launch programs.

Yet the reputational dimension cannot be ignored. Space technology is closely tied to national prestige and international credibility. Each unsuccessful mission therefore carries symbolic consequences beyond the technical sphere, particularly when foreign payloads are lost alongside domestic satellites. The broader lesson from these setbacks may be that ambitious space programs require balance between innovation, commercialization, and reliability. Expanding the industry without ensuring rigorous engineering oversight risks eroding the very credibility that made India competitive in the first place.

India’s space ambitions remain significant, and the country continues to possess considerable scientific expertise and institutional experience. However, restoring confidence will require transparent investigations, strengthened quality control, and a recalibration of priorities between speed and reliability. In the long run, the success of India’s space sector will depend not merely on ambitious targets or economic projections, but on the resilience of the institutions responsible for turning those ambitions into reality. The recent PSLV setbacks serve as a reminder that in space exploration, credibility is built not through rhetoric but through consistent performance.

© Eurasia Review