Over the past decade, commercial space has transformed satellites from \u201cnational-level missions\u201d into industrial products that can be mass-produced and deployed on demand. As thousands of low-Earth orbit broadband, remote-sensing and navigation satellites form interconnected constellations, space has acquired the characteristics of infrastructure for the first time. It can continuously provide connectivity, observation and positioning services to users on the ground, rather than merely carrying out scientific missions.<\/p>\n
Publicly documented cases from several regional crises in recent years have demonstrated this transformation. When terrestrial communications, power grids or port facilities are damaged during emergencies, commercial satellite communications and remote-sensing networks often step in to meet the need for continuous connectivity and reliable observation. Space is therefore increasingly discussed as part of critical infrastructure\u2014and has become one of the most certain sources of long-term demand in commercial space.<\/p>\n
When terrestrial communications networks go down, low-Earth orbit broadband constellations can keep users connected. Commercial communications satellites have become critical infrastructure.<\/p>\n
When conventional communications and command networks are damaged, the ability to maintain basic communications and coordination may depend on a broadband constellation overhead. Commercial satellite communications can fill the connectivity gap left by failed ground networks, providing a highly visible demonstration of commercial space capabilities.<\/p>\n
As of 2026, Starlink had approximately 10,400 active satellites in orbit, accounting for around 65% of all active satellites worldwide. Its user base had surpassed 10 million across more than 160 countries.<\/p>\n
Its resilience comes from its distributed architecture. The failure of a single satellite does not compromise the entire network. Meanwhile, the cost of user terminals has fallen by nearly 60% within several years, while median network latency has declined to approximately 25 milliseconds\u2014bringing the user experience close to that of terrestrial fiber-optic networks.<\/p>\n
Satellite internet is therefore no longer merely a supplementary service for remote regions. It is becoming a backbone connectivity option capable of providing redundancy when terrestrial infrastructure fails.<\/p>\n
China\u2019s SpaceSail and Guowang low-Earth orbit satellite internet constellations have entered the deployment phase. Their value extends beyond internet access. They can provide resilient connectivity for emergency response, maritime operations, aviation and border regions where terrestrial networks remain limited. This is where commercial space evolves from simply \u201claunching satellites\u201d into providing critical infrastructure.<\/p>\n
Navigation systems such as BeiDou have become foundational to modern operations. When their signals are disrupted, the consequences extend far beyond the military, affecting aircraft, ships, financial systems and even the clocks used to synchronize power grids.<\/p>\n
Navigation satellites are not merely used for smartphone maps. Positioning, navigation and timing, or PNT, supports an entire network of modern activities, including drone delivery, precision agriculture, financial transaction timestamps and the synchronization of power grids and communications base stations.<\/p>\n
As one of the world\u2019s four major global navigation satellite systems, BeiDou also offers a distinctive short-message communication service, allowing critical information to be transmitted even when terrestrial communications are unavailable.<\/p>\n
However, the deeper this dependence becomes, the more visible the vulnerabilities are. Navigation signals are already extremely weak by the time they travel from space to Earth, making them susceptible to jamming, which overwhelms the authentic signal, and spoofing, which transmits false positioning information.<\/p>\n
According to the BBC, an average of more than 800 flights worldwide were affected by GNSS spoofing or interference every day in 2026. In the Persian Gulf, the monthly number of flights reportedly affected by GPS spoofing surged from 14 in January to 5,381 in March. Annual incidents in the Baltic region also rose from approximately 17,000 in 2024 to around 59,000 in 2025.<\/p>\n
The spillover effects are even more concerning. Commercial vessels in the Black Sea and Persian Gulf have experienced apparent position shifts or appeared to move in circles while stationary, directly increasing shipping and insurance costs. GNSS interference is no longer confined to battlefields; it has become a civilian problem affecting commercial aviation and maritime transport.<\/p>\n
How can this resilience gap be addressed? Internationally, countries are developing stronger anti-jamming capabilities. The encrypted GPS M-Code signal and Galileo\u2019s Public Regulated Service are among the available protected options.<\/p>\n
For China, the direction involves strengthening BeiDou and developing multi-source PNT backups. A BeiDou-centered architecture can be supplemented by LEO-based navigation augmentation, ground-based augmentation, inertial navigation, computer vision and other complementary technologies, reducing dependence on any single signal source.<\/p>\n
Commercial remote sensing has turned high-resolution Earth observation into a product that almost anyone can purchase. With the addition of AI, the industry is moving from simply capturing images to understanding them\u2014putting geospatial intelligence in the spotlight.<\/p>\n
A decade ago, capturing detailed images of the Earth\u2019s surface was largely a national-level capability. Today, commercial satellites have turned it into a marketable service. A total of 391 Earth-observation satellites were launched worldwide in 2025, including 221 commercial satellites. By the end of that year, approximately 1,822 Earth-observation satellites were operating in orbit, with commercial satellites accounting for roughly 78%.<\/p>\n
The competition over resolution has also intensified. Commercial optical satellites can now provide imagery at resolutions of approximately 0.3 meters. Synthetic aperture radar, or SAR, can also achieve resolutions of around 0.3 meters while operating through clouds and at night. Planet uses a constellation of more than 200 satellites to image the entire Earth every day.<\/p>\n
The real game changer is AI. In the past, receiving an image was merely the beginning, and interpreting it required large teams of analysts. Today, onboard AI and edge computing can identify objects and detect changes in orbit, shortening the time from \u201cimage\u201d to \u201cintelligence\u201d from weeks to hours.<\/p>\n
China\u2019s Jilin-1 constellation has already used proprietary algorithms to automatically identify aircraft, ships, oil storage tanks and photovoltaic power plants with an accuracy rate exceeding 95%. This captures the essence of geospatial intelligence: automatically transforming satellite data into information that can support decisions.<\/p>\n
The broad availability of commercial imagery also creates new governance challenges. One commercial remote-sensing company previously imposed a 14-day restriction on imagery from a specific maritime area. The case highlighted a growing question: as high-resolution observation becomes widely accessible, how should openness be balanced against potential risks?<\/p>\n
Greater access to imagery is making battlefields more transparent, while raising the requirements for camouflage, mobility and concealment.<\/p>\n
For Chinese entrepreneurs, the opportunity lies in combining constellations, AI and downstream applications. Jilin-1, which has 117 satellites in orbit and plans to expand to 300 by 2027, has demonstrated the viability of scaling up a commercial constellation. Differentiated payloads\u2014including SAR, infrared and hyperspectral instruments\u2014combined with industry-specific data services offer a more practical opportunity than simply launching more satellites.<\/p>\n
More satellites do not automatically make space systems safer. The distributed architecture of LEO megaconstellations improves resilience against single-point failures, but it also increases the need for asset protection, collision avoidance and space situational awareness, or SSA.<\/p>\n
As discussed above, distributed deployment allows a network to continue operating even if an individual satellite fails. This is the source of its resilience. The other side of the equation is that as orbit becomes increasingly crowded, systemic risks grow, along with the danger of losing visibility and control over space assets.<\/p>\n
The space environment is becoming congested. According to publicly available statistics, more than 34,000 trackable pieces of space debris larger than 10 centimeters are orbiting Earth at extremely high speeds. The International Space Station alone conducted more than 30 avoidance maneuvers in 2025. The larger megaconstellations become, the more essential collision avoidance, in-orbit servicing and active deorbiting capabilities will be.<\/p>\n
A corresponding market is taking shape. The global space situational awareness market is projected to grow from approximately $2.1 billion in 2025 to $4.3 billion in 2034, representing a compound annual growth rate of around 8.7%, according to Marketintelo.<\/p>\n
Commercial SSA companies are combining networks of radar and optical sensors with AI-based collision prediction. Their services are increasingly becoming standard infrastructure for constellation operators.<\/p>\n
For China, space safety is an unavoidable new frontier for commercial space. It encompasses maintaining visibility and control over the BeiDou, remote-sensing and communications systems, as well as developing domestic capabilities in in-orbit servicing, debris monitoring and space situational awareness.<\/p>\n
This is the commercial interface most directly connected with the new space competition. The question is not only how many satellites a country or company operates, but whether it can protect them.<\/p>\n
Remote sensing, communications, navigation and space safety each present different opportunities and bottlenecks. Geospatial intelligence and resilient architectures are the common themes connecting all four.<\/p>\n
Space capabilities are evolving from state-controlled scientific and defense tools into critical infrastructure that everyone depends on\u2014and that almost anyone can purchase.<\/p>\n
The competition is not about satellite numbers alone. It is about building a system that can turn space capabilities into reliable infrastructure: constellations provide coverage, AI transforms data into intelligence, resilient architectures withstand interference and failures, and effective rules and protective capabilities safeguard orbital assets.<\/p>\n
For China\u2019s commercial space industry, this represents both an industrial opportunity and an unavoidable challenge. Strengthening the connections among constellations, AI, resilience and security\u2014while continuing to advance the underlying technologies\u2014will be essential to turning China\u2019s space potential into lasting industrial strength.<\/p>\n