Space Traffic Jam: Sky-High Demand for Satellites, Limited Launch Capacity. Who Gets to Orbit First?

In January 2026, China filed plans for more than 200,000 satellites with the International Telecommunication Union (ITU) for two new mega-constellations—CTC-1 and CTC-2. In the same month, SpaceX sought approval from the Federal Communications Commission (FCC) to deploy up to 1 million satellites as part of a new data center constellation. This is in addition to current mega-constellation plans such as SpaceX’s Starlink, Spacesail’s Qianfan, China Satellite Network Group’s Guowang, and more. With numerous satellite operators ramping up constellations’ plans to expand their connectivity network and governments prioritizing space as part of their national strategy, these trends make it increasingly evident that current demand for launch capacity is outpacing available launch supply. For instance, SpaceX conducted 13 successful launches in January and 12 in February. If this cadence continues, SpaceX is on track to conduct at least 140 launches by the end of 2026. However, in 2025, Cape Canaveral Space Force Station (CCSFS) hosted 109 orbital rocket launches, while Vandenberg Space Force Base hosted 71. These numbers include mission launches from other operators rather than SpaceX alone, and they also do not account for launches from other spaceports. This suggests that the pipeline of planned missions is growing faster than the readiness of launch pads and infrastructure, reinforcing the point that current launch demand is running ahead of available supply.    

ABI Research forecasts that orbital launch activity is projected to increase more than fourfold, from around 220 launch attempts in 2023 to approximately 970 in 2035. By 2035, total orbital launches are projected to reach almost 1,000 annually on a global basis. (See ABI Research’s Launch Market Analysis: Reliability, Costs, and Competitive Positioning presentation (PT-3963).)

Beyond the sky-high prices of launches—which can reach tens of millions of dollars per mission—that limit the ability to send rockets into space continuously, launch supply capacity is limited by infrastructure bottlenecks and access to launch pads, including payload processing facilities (specialized locations where spacecraft and their payloads are assembled, tested, and prepared for launch; they ensure that all components are properly integrated and meet safety and operational standards before being transported to the launch site) that require upgrades to accommodate the growing volume and complexity of modern space missions. Furthermore, both government agencies and private sector operators compete for limited space in these facilities.

How does the limited launch capacity affect the broader economy, space industry business models, pricing, and access?

• Broader Economy and Services: The current inability of launch providers to meet surging demand has created a significant bottleneck in the space economy. This will trigger a chain reaction across multiple sectors. First, it impacts the telecommunications and connectivity sectors where delays in Low Earth Orbit (LEO) constellations directly hinder global broadband coverage, network performance (lower latency, higher bandwidth), and value-added satellite network services (satellite messaging and voice calls). Second, it will disrupt downstream industries that rely on satellite imagery and data, such as Earth Observation (EO) for climate monitoring, logistics, finance, and agriculture. Third, it affects satellite operators financially as the opportunity cost of a satellite in their warehouses results in lost revenue and profits. Nonetheless, existing mega-constellations (SpaceX and Amazon) will retain a competitive advantage in the industry as there isn’t significant competition.
• Strategic and Defense Sector: Governments and national organizations recognize that satellites and space infrastructure are key assets in strategic and national defense goals, and they rely on these proliferated architectures for modern defense with capabilities such as missile warning, secure communications, and intelligence in contested areas. The launch capacity crunch will result in delays in developing critical satellite architecture, thereby exposing vulnerabilities in their defense system.
• Space Industry’s Business Models: While many launch companies are developing their reusable launch capabilities to reduce costs, we are observing a shift in business models of the space industry toward more flexible and cost-efficient models. Many companies are opting for rideshare options to piggyback on larger payloads to share costs and secure scarcer slots, especially for commercial or research satellites. While this is evident through SpaceX’s Falcon 9 rideshare missions and the company’s proven success in launch capabilities, we must note that its capacity is heavily used for its own Starlink constellation, which limits the options for other customers. It is reported that 56.75% of SpaceX's total launches are dedicated to its Starlink constellation. Other emerging business models include in-space services that repair, upgrade, and refuel existing assets to extend their operational life, which can support existing satellites in orbit, while minimizing the need for launch. Another key technology that can reduce the need for space launches includes software-defined payloads, which can be reprogrammed post-launch via ground commands for different capabilities.
• Pricing and Access: With limited launch slots, pricing becomes more competitive as operators fight for access to space. This naturally creates the prioritization of customers—who gets to orbit first? As for SpaceX, the company has just raised its rideshare cost from US$ 6,000 to US$7,000, citing inflation. As it is a dominant player in the industry, it can essentially set the price range across the sector. Typically, launch providers have long-term contracts and would favor the systems that are mission-ready and have technical compatibility (meeting their orbital requirements and safety standards). Launchers also prioritize customers with higher reliability and a proven track record of successful missions, as well as those with deeper pockets who can commit to multiple launches.

1. Investment in Research and Development (R&D) of Reusable Rockets: Reusable rockets have proven to reduce launch costs and increase launch cadence significantly. For example, SpaceX has a total of more than 600 launches as of late 2025. Furthermore, it is estimated that SpaceX Falcon 9’s internal cost to launch can be reduced significantly from approximately US$69 million to US$15.6 million after 25 booster reuses (first stage). The higher launch frequency helps to bring costs down, which in turn increases profitability from rideshare programs and can fuel further R&D investments. Some other companies developing reusable rockets include Blue Origin (New Glenn), Relativity Space (Terran R), Landspace (Zhuque-3), and Galactic Energy (PALLAS-1).  
2. Boost Supply Through Public-Private Partnerships (PPPs): The government and the commercial space industry can fund shared launch infrastructure, such as regional launch pads or public-private reusable rocket programs, to scale capacity faster. For instance, the Indian government has encouraged and facilitated private space sector participation through the Indian National Space Promotion and Authorization Centre (IN-SPACe). This initiative allows private companies to use the Indian Space Research Organization’s (ISRO’s) infrastructure, including launch pads and testing facilities. In addition, a joint consortium approach is being explored to establish a spaceport in Biak, Indonesia, with a strong focus on shared funding through international partnerships and PPPs. It will serve as a commercial hub for international satellite launches, taking advantage of its proximity to the equator to reduce launch costs.
3. Promote Software-Defined Architecture: Building more software-defined architecture can allow the satellite assets to have multiple capabilities (imaging, communications, signal intelligence), which can reduce the need for additional satellites in orbit. This network optimization helps decongest launch demand by maximizing the roles a satellite may have over its life span that would otherwise require additional dedicated launches. Launch providers could offer incentives such as priority slots or subsidies for missions adopting these architectures to encourage faster industry-wide adoption.