Protecting India’s Satellites

Syllabus: Science & Tech

Source:  TH

Context: India approved a ₹27,000-crore programme to launch 52 surveillance satellites from 2026.

  • Reports suggest India is also considering “bodyguard satellites” to protect its space assets after near-miss incidents.

About:  Protecting India’s Satellites:

Need for Protecting India’s Satellites

  • Vital role – Satellites are the backbone for communication, navigation (NavIC), weather forecasts, internet, defence and surveillance, making them critical for national security and economy.
  • Multiple threats – They face risks from space debris, collisions, hostile manoeuvres, jamming, spoofing, cyber intrusions, and solar storms that can disrupt services or destroy satellites.
  • High costs – Launching and maintaining satellites involves billions; protecting them ensures return on investment and safeguards India’s strategic autonomy.

Initiatives Taken:

  • IS4OM Centre (Bengaluru) – Tracks Indian satellites and issues timely alerts for possible collisions, enabling manoeuvres to prevent accidents.
  • Project NETRA – Expanding India’s space surveillance with radars and telescopes to build indigenous space situational awareness capabilities.
  • Aditya-L1 Mission – Observes the sun to forecast solar storms and coronal mass ejections that could damage satellites’ electronics and shorten orbital lifespans.
  • CERT-In Guidelines (2025) – Mandate strong encryption, network segmentation, and cyber hygiene protocols to safeguard satellites from hacking attempts.
  • IN-SPACe Licensing – Ensures private space firms adopt safety standards so that commercialisation of space remains secure and reliable.
  • Debris-Free Space Mission by 2030 – India’s pledge to avoid space debris creation and adopt sustainable practices announced at IADC 2024.

Bodyguard Satellites

  • What it is?
    • Special satellites designed to escort and shield India’s high-value orbital assets from external threats.
    • Monitor close approaches – They can detect when foreign satellites or debris move dangerously close to Indian spacecraft.
    • Warn against manoeuvres – Capable of identifying suspicious activities such as shadowing or hostile proximity operations.
    • Physical intervention – May reposition themselves or the protected satellite to prevent collisions or jamming.
    • Global alignment – Reflects global defence trends where major powers are developing proximity and protection satellites.

Challenges:

  • Technological – Requires advanced sensors, AI-based autonomy, and precision manoeuvring not yet fully mastered by India.
  • Financial – Developing and deploying escort satellites involves high costs, demanding sustained budgetary commitment.
  • Cybersecurity – Ground stations and user terminals remain weak links vulnerable to hacking or spoofing attacks.
  • Geopolitical – Deployment of defensive satellites may trigger mistrust or arms race in outer space among global powers.
  • Sustainability – Protecting satellites must not worsen the problem of orbital debris or overcrowding in space.

Way Ahead:

  • Indigenous SSA tech – Invest in LiDAR-based and radar satellites to strengthen India’s ability to track debris and hostile movements.
  • Anti-jamming systems – Develop encrypted signals, hardened waveforms, and autonomous avoidance technologies for resilience.
  • Public–Private partnerships – Leverage start-ups and private industry to innovate low-cost solutions for satellite safety.
  • Global engagement – Actively participate in COPUOS, IADC and multilateral platforms to promote responsible space behaviour.
  • Defensive-first strategy – Focus on sustainable, non-weaponised measures that ensure security without escalating conflict.

Conclusion:

Protecting satellites is no longer optional but a strategic imperative for India’s security and economy. A layered defence of technology, governance, and diplomacy is essential. With careful planning, India can secure its orbital assets while championing peaceful, sustainable use of space.