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Introduction 
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In recent years, India has seen tremendous growth in its space industry. The satellite infrastructure of India now provides key services to a variety of sectors, including communication, navigation, broadcasting, disaster management and national security operations. Satellite communications globally will connect remote communities, aid in the delivery of Digital Governance and support India's strategic military capabilities. Given the expanding space ecosystem in India with the involvement of the public sector, private sector and research institutions, the security of satellite communications is becoming increasingly important.  

 At the same time, as satellite communication technologies become more pervasive, the risk of cyber threats targeting space systems increases. Cyberattacks against satellites, ground terminals or communication networks may critically impact, disrupt, damage, and/or destroy essential services, and expose sensitive information. To mitigate these risks, CERT-In (Computer Emergency Response Team), in collaboration with the SatCom Industry Association of India released a Cyber Security Framework and Guidelines for Space Platforms/Systems, including Satellite Communication, in 2026. This framework aims to establish and enhance cybersecurity measures throughout India's space ecosystem, while guiding how to better prepare for and respond to the growing volume of cyber threat activity targeting Space Systems. 
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Overview of the CERT-In Space Cybersecurity Framework 
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CERT-In introduced a dedicated cybersecurity framework for space systems in February 2026. Developed in collaboration with industry stakeholders, the framework provides guidelines to strengthen the security of satellite communication infrastructure across India. Although the guidelines are advisory in nature, they are designed to promote best practices and encourage organisations to adopt robust cybersecurity measures. 

The framework targets a wide range of stakeholders involved in satellite communication operations. These include government agencies, satellite operators, ground station operators, equipment manufacturers, technology vendors, and emerging space startups. By outlining cybersecurity principles, technical controls, and governance mechanisms, the framework aims to create a coordinated approach to protecting space assets. 

Another key objective of the guidelines is to foster collaboration between the public and private sectors. As India’s space industry expands and private participation increases, maintaining a secure and resilient ecosystem becomes essential. The framework, therefore, emphasises risk management, incident reporting, and continuous monitoring to strengthen the overall cybersecurity posture of the space sector. 
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Key Components of Satellite Communication Systems 
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Satellite communication systems are made up of multiple interconnected devices that can be used to deliver communication services. The cybersecurity framework groups these elements into three categories: the space segment, the ground segment, and the user segment.  

The space segment is everything related to the satellite itself, including the satellite's onboard systems. This includes the satellite's communication payload, telemetry systems, antennas, power systems, and software that controls its operation. Because satellites operate in remote parts of space with very little opportunity for maintenance, securing these systems is critical in order to guard against unauthorized access to or control of these systems.  

The ground segment comprises the terrestrial infrastructure responsible for controlling the satellite's operations. It consists of satellite mission control centres, ground stations, network gateways and data processing facilities. The ground stations send commands to the satellites and receive telemetry data from the satellites, which makes the ground station a very important physical interface point between the satellite asset located in outer space and a terrestrial network. 

The user segment contains any device terminal being used by either an individual or an organisation that is accessing a satellite service. Examples of user devices are satellite phones, VSAT terminals, modems, and IoT devices connected to satellite networks. Since these devices connect directly to the communication networks, vulnerabilities in user equipment could also represent a significant threat to the cybersecurity of satellite communications. 

Major Cyber Threats to Space Infrastructure 
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The space systems that support the delivery of satellite communications are being increasingly targeted with multiple types of cyber threats. A major category includes cyber-attacks on communication links between satellites and ground stations. Cyber criminals can attempt to jam the satellite’s communication link, intercept communication signals, or re-transmit previously sent communication signals in order to disrupt the operation of the affected satellites. 

Attacks on the systems that control the satellite are serious threats to satellite operations. Cybercriminals and hostile actors can perform command injection attacks where commands are sent to a satellite, and the satellite responds through some undesired action. If cybercriminals are able to gain access to the telemetry or command channels, they can potentially disrupt the operation of the satellite or alter the telemetry data being received from the satellite. 

The ground infrastructure that supports satellite communications is still a major target for cybercriminals. Mission control networks and data centres are susceptible to malware, ransomware, phishing, and insider threats. Attackers will frequently target ground stations because they provide a connection point to terrestrial networks and can exploit vulnerabilities from the ground station’s IT systems into the satellite control systems. The combination of these threats illustrates the need for an overall security strategy that encompasses all parts of the satellite communications ecosystem. 
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Key Security Principles and Measures 
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A comprehensive overview of multiple principles designed to increase the security of satellite communications is provided in the CERT-In Framework on Cybersecurity for Satellite Communications. The first of these principles, security by design, refers to ensuring that all cybersecurity controls associated with a system are implemented at the time of the system's initial design and development, not afterwards; therefore, security controls should be incorporated throughout the entire lifecycle of a satellite system. 

The second principle, which is known as Defense-in-Depth, consists of implementing many different layers or tiers of security controls to protect a system against cyber threats or attacks. An example of the different categories of security controls includes physical security, network security, and access control, among others. By combining security controls across multiple categories, an organisation may be able to reduce the chance that one single vulnerability will result in the loss of the entire system. 

The third principle in the Framework, Zero Trust Architecture (ZTA): Users and/or devices located within a network should not be able to rely on implicit trust. Therefore, every request for access to the network will be verified and continuously monitored for potential threats. 

The previous two principles stated that secure satellite communications should be conducted using strong encryption and authentication methods, as well as secure communications methods, and that an enterprise monitoring system would be put into place to help detect anomalies or suspicious behaviour. 

Conclusion 
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India is taking an important step toward protecting its expanding space ecosystem by creating a cybersecurity framework to safeguard cyberspace systems from cyber threats. The CERT-In guidelines offer a structured means of reducing the likelihood of cyber threats impacting satellite communication infrastructure through secure system design, continuous monitoring of systems and creating consistent partnerships among organisations. As well as providing evidence that both government and private sector organisations share a collective responsibility for the protection of space assets, both sectors participate in a collaborative effort.

India will need to implement rigorous cybersecurity measures as it expands its space infrastructure in order to ensure the continued availability of critical space infrastructure and ultimately develop its existing commercial satellite business operations with the highest level of safety and security.

References 
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1. https://www.cert-in.org.in/s2cMainServlet?pageid=GUIDLNVIEW02&refcode=CISG-2026-01
2. https://www.pib.gov.in/PressReleasePage.aspx?PRID=2233122&reg=3&lang=1

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Introduction

The Indian Cabinet has approved a comprehensive national-level IndiaAI Mission with a budget outlay ofRs.10,371.92 crore. The mission aims to strengthen the Indian AI innovation ecosystem by democratizing computing access, improving data quality, developing indigenous AI capabilities, attracting top AI talent, enabling industry collaboration, providing startup risk capital, ensuring socially-impactful A projects, and bolstering ethical AI. The mission will be implemented by the'IndiaAI' Independent Business Division (IBD) under the Digital India Corporation (DIC) and consists of several components such as IndiaAI Compute Capacity, IndiaAI Innovation Centre (IAIC), IndiaAI Datasets Platform, India AI Application Development Initiative, IndiaAI Future Skills, IndiaAI Startup Financing, and Safe & Trusted AI over the next 5 years.

This financial outlay is intended to befulfilled through a public-private partnership model, to ensure a structured implementation of the IndiaAI Mission. The main objective is to create and nurture an ecosystem for India’s AI innovation. This mission is intended to act as a catalyst for shaping the future of AI for India and the world. AI has the potential to become an active enabler of the digital economy and the Indian government aims to harness its full potential to benefit its citizens and drive the growth of its economy.

Key Objectives of India's AI Mission

●     With the advancements in data collection, processing and computational power, intelligent systems can be deployed in varied tasks and decision-making to enable better connectivity and enhance productivity.

●     India’s AI Mission will concentrate on benefiting India and addressing societal needs in primary areas of healthcare, education, agriculture, smart cities and infrastructure, including smart mobility and transportation.

●     This mission will work with extensive academia-industry interactions to ensure the development of core research capability at the national level. This initiative will involve international collaborations and efforts to advance technological frontiers by generating new knowledge and developing and implementing innovative applications.

The strategies developed for implementing the IndiaAI Mission are via Public-Private Partnerships, Skilling initiatives and AI Policy and Regulation. An example of the work towards the public-private partnership is the pre-bid meeting that the IT Ministry hosted on 29th August2024, which saw industrial participation from Nvidia, Intel, AMD, Qualcomm, Microsoft Azure, AWS, Google Cloud and Palo Alto Networks.

Components of IndiaAI Mission

The IndiaAI Compute Capacity: The IndiaAI Compute pillar will build a high-end scalable AI computing ecosystem to cater to India's rapidly expanding AI start-ups and research ecosystem. The ecosystem will comprise AI compute infrastructure of 10,000 or more GPUs, built through public-private partnerships. An AI marketplace will offer AI as a service and pre-trained models to AI innovators.

The IndiaAI Innovation Centre will undertake the development and deployment of indigenous Large Multimodal Models (LMMs) and domain-specific foundational models in critical sectors. The IndiaAI Datasets Platform will streamline access to quality on-personal datasets for AI innovation.

The IndiaAI Future Skills pillar will mitigate barriers to entry into AI programs and increase AI courses in undergraduate, master-level, and Ph.D. programs. Data and AI Labs will be set up in Tier 2 and Tier 3 cities across India to impart foundational-level courses.

The IndiaAI Startup Financing pillar will support and accelerate deep-tech AI startups, providing streamlined access to funding for futuristic AI projects.

The Safe & Trusted AI pillar will enable the implementation of responsible AI projects and the development of indigenous tools and frameworks, self-assessment check lists for innovators, and other guidelines and governance frameworks by recognising the need for adequate guardrails to advance the responsible development, deployment, and adoption of AI.

CyberPeace Considerations for the IndiaAI Mission

●     Data privacy and security are paramount as emerging privacy instruments aim to ensure ethical AI use. Addressing bias and fairness in AI remains a significant challenge, especially with poor-quality or tampered datasets that can lead to flawed decision-making, posing risks to fairness, privacy, and security.

●     Geopolitical tensions and export control regulations restrict access to cutting-edge AI technologies and critical hardware, delaying progress and impacting data security. In India, where multilingualism and regional diversity are key characteristics, the unavailability of large, clean, and labeled datasets in Indic languages hampers the development of fair and robust AI models suited to the local context.

●     Infrastructure and accessibility pose additional hurdles in India’s AI development. The country faces challenges in building computing capacity, with delays in procuring essential hardware, such as GPUs like Nvidia’s A100 chip, hindering businesses, particularly smaller firms. AI development relies heavily on robust cloud computing infrastructure, which remains in its infancy in India. While initiatives like AIRAWAT signal progress, significant gaps persist in scaling AI infrastructure. Furthermore, the scarcity of skilled AI professionals is a pressing concern, alongside the high costs of implementing AI in industries like manufacturing. Finally, the growing computational demands of AI lead to increased energy consumption and environmental impact, raising concerns about balancing AI growth with sustainable practices.

Conclusion

We advocate for ethical and responsible AI development adoption to ensure ethical usage, safeguard privacy, and promote transparency. By setting clear guidelines and standards, the nation would be able to harness AI's potential while mitigating risks and fostering trust. The IndiaAI Mission will propel innovation, build domestic capacities, create highly-skilled employment opportunities, and demonstrate how transformative technology can be used for social good and enhance global competitiveness.

References

●     https://economictimes.indiatimes.com/tech/artificial-intelligence/governments-say-aye-to-sovereign-ai/articleshow/113014070.cms

●     https://www.livemint.com/industry/amid-push-for-indian-ai-myriad-challenges-pose-concerns-11720012574665.html

●     https://pib.gov.in/PressReleasePage.aspx?PRID=2012375

●     https://pib.gov.in/PressReleaseIframePage.aspx?PRID=2012355#:~:text=The%20Mission%20will%20be%20implemented,1

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Introduction 

Governments worldwide are enacting cybersecurity laws to enhance resilience and secure cyberspace against growing threats like data breaches, cyber espionage,  and state-sponsored attacks in the digital landscape. As a response, the EU Council has been working on adopting new laws and regulations under its EU Cybersecurity Package- a framework to enhance cybersecurity capacities across the EU to protect critical infrastructure, businesses, and citizens. Recently, the Cyber Solidarity Act was adopted by the Council, which aims to improve coordination among EU member states for increased cyber resilience. Since regulations in the EU play a significant role in shaping the global regulatory environment, it is important to keep an eye on such developments.

Overview of the Cyber Solidarity Act 

The Act sets up a European Cyber Security Alert System consisting of Cross-Border Cyber Hubs across Europe to collect intelligence and act on cyber threats by leveraging emerging technology such as Artificial Intelligence (AI) and advanced data analytics to share warnings on cyber threats with other cyber data centres across the national borders of the EU. This is expected to assist authorities in responding to cyber threats and incidents more quickly and effectively. 

Further, it provides for the creation of a new Cybersecurity Emergency Mechanism to enhance incident response systems in the EU.  This will include testing the vulnerabilities in critical sectors like transport, energy, healthcare, finance, etc., and creating a reserve of private parties to provide mutual technical assistance for incident response requests from EU member-states or associated third countries of the Digital Europe Programme in case of a large-scale incident.  

Finally, it also provides for the establishment of a European Cybersecurity Incident Review Mechanism to monitor the impact of the measures under this law. 

Key Themes

1. Greater Integration: The success of this Act depends on the quality of cooperation and interoperability between various governmental stakeholders across defence, diplomacy, etc. with regard to data formats, taxonomy, data handling and data analytics tools. For example, Cross-Border Cyber Hubs are mandated to take the interoperability guidelines set by the European Union Agency for Cybersecurity (ENISA) as a starting point for information-sharing principles with each other.  
2. Public-Private Collaboration: The Act provides a framework to govern relationships between stakeholders such as the public sector, the private sector, academia, civil society and the media, identifying that public-private collaboration is crucial for strengthing EUs cyber resilience. In this regard, National Cyber Hubs are proposed to carry out the strengthening of information sharing between public and private entities.  
3. Centralized Regulation: The Act aims to strengthen all of the EU's cyber solidarity by outlining dedicated infrastructure for improved coordination and intelligence-sharing regarding cyber events among member states. Equal matching contribution for procuring the tools, infrastructure and services is to be made by each selected member state and the European Cybersecurity Competence Centre, a body tasked with funding cybersecurity projects in the EU. 
4. Setting a Global Standard: The underlying rationale behind strengthening cybersecurity in the EU is not just to protect EU citizens from cyber-threats to their fundamental rights but also to drive norms for world-class standards for cybersecurity for essential and critical services, an initiative several countries rely on.

Conclusion

In the current digital landscape, governments, businesses, critical sectors and people are increasingly interconnected through information and network connection systems and are using emerging technologies like AI, exposing them to multidimensional vulnerabilities in cyberspace. The EU in this regard continues to be a leader in setting standards for the safety of participants in the digital arena through regulations regarding cybersecurity. The Cyber Solidarity Act’s design including cross-border cooperation, public-private collaboration, and proactive incident-monitoring and response sets a precedent for a unified approach to cybersecurity. As the EU’s Cybersecurity Package continues to evolve, it will play a crucial role in ensuring a secure and resilient digital future for all. 

Sources

• https://www.consilium.europa.eu/en/press/press-releases/2024/12/02/cybersecurity-package-council-adopts-new-laws-to-strengthen-cybersecurity-capacities-in-the-eu/ 
• https://data.consilium.europa.eu/doc/document/PE-94-2024-INIT/en/pdf 
• https://digital-strategy.ec.europa.eu/en/policies/cybersecurity-strategy 
• https://www.weforum.org/stories/2024/10/cybersecurity-regulation-changes-nis2-eu-2024/