The global space industry shattered historical records last year, launching more rockets into Earth’s orbit than at any other point in human history. Yet, despite this unprecedented cadence of flight activity, satellite operators across the globe are confronting an unexpected and intensifying bottleneck: there still are not enough rides to go around.
For a growing segment of the commercial space sector, the crunch is no longer just about raw launch frequency. Instead, satellite companies are increasingly finding that the shortage lies in where rockets are going, how often they fly, and what kinds of vehicles are available to carry payloads into space.
Instead of a diverse ecosystem of launch options, much of the modern space industry has become deeply dependent on a relatively small number of frequently launched vehicles that tend to travel to very similar, highly trafficked orbits. Consequently, a significant number of companies and their advanced spacecraft find themselves waiting months, or even years, for a suitable ride that matches their specific mission parameters.
"Demand is crazy," said Robert Sproles, chief executive of Exolaunch, a Berlin-based global launch services broker that has successfully placed 912 satellites into orbit across 51 separate launch events. "The demand curve is so much steeper than the supply curve."
This market squeeze persists despite a massive, historic expansion in global launch activity. According to data provided by the Federal Aviation Administration (FAA), the agency licensed 187 commercial launches in fiscal year 2026 alone. That figure represents a dramatic leap from fewer than 100 launches a decade prior. Furthermore, government ambitions point toward even greater expansion; the Trump administration has previously called for U.S. spaceports to support more than 1,000 launches and reentries annually by the year 2030.
However, raw launch tallies obscure a structural problem that is becoming increasingly critical as the commercial space economy matures and expands. A rocket launching to the wrong orbit at the wrong time provides little to no utility for a satellite operator whose business model depends on precise positioning.
As a result, operational choice—not just raw launch capacity—is rapidly emerging as one of the most significant constraints facing the global space industry.
To truly close the widening gap between supply and demand, Sproles emphasized that space transportation companies must significantly increase the diversity of available launches. Meeting overall market demand is only half the battle; the industry must also ensure that payloads reach their intended destinations efficiently.

"Yes, we need to meet demand. But we also need to make sure we’re putting that demand in the right places," Sproles said. "We need to recognize what types of launches are best for what types of missions, and we need to make sure those types of launches are available when the launch customer needs them."
Destination: Diversity
The broader macroeconomic health of the sector underscores the urgency of these logistical challenges. Recent market research from Novaspace indicates that the global space economy reached a staggering valuation of $626 billion in 2025. Driven by ongoing industry consolidation, closer operational integration, and a renewed institutional focus on security, resilience, and performance, Novaspace forecasts a steady annual market growth rate of 5.5% through 2034. By that point, the global space economy is projected to surpass the $1 trillion threshold.
An economic engine of that scale is inherently diverse and multifaceted, according to Sproles. A trillion-dollar market cannot function effectively through a monolithic infrastructure, meaning the industry requires multiple launch providers operating on regular schedules across a wide array of distinct orbital regimes.
"If you rewind to, say, 2016, there was more launch diversity in the market at that time than there is today. There was not more capacity, but there was a wider variety of vehicles that you could reliably gain access to," Sproles explained.
The steady decline in overall launch diversity over the past decade stems from a complex confluence of technological shifts, geopolitical tensions, and global supply chain disruptions triggered and accelerated by the COVID-19 pandemic. Together, these pressures have funneled a vast majority of available launch capacity into the hands of a very small number of highly active, dominant launch providers.
Despite this concentration, industry customers desperately need variety. Satellite operators require the flexibility to optimize their launch windows based on timing, precise destination requirements, and cost-efficiency.
To illustrate this divergence, industry analysts often point to the two most prolific launch providers operating today: SpaceX and Rocket Lab. SpaceX’s Falcon 9 vehicle is expertly optimized to service large commercial mega-constellations, human spaceflight missions, and heavy commercial rideshares. In stark contrast, Rocket Lab’s Electron vehicle is tailored specifically for small satellites and CubeSats that frequently require customized orbital planes and unique inclinations.
"You could not come up with two more different vehicles both in terms of performance and commercial offerings, which just goes to show you that the industry is as hungry for choice as it is for capacity," Sproles said.

Beyond Rideshare
In the contemporary launch market, rideshare services have served as a foundational economic driver for the broader space industry, allowing smaller payloads to hitch a ride on larger missions. Yet, rideshare is far from a universal panacea.
"Rideshare is appropriate when your schedule is flexible enough to align with when a planned rideshare is launching, and when you have enough orbital wiggle room to go where the masses want to go," Sproles noted. "Basically, it makes sense when you have less rigid mission constraints."
However, as commercial and institutional space missions grow increasingly sophisticated, specialized, and bespoke, the traditional one-size-fits-all model falls short. The market urgently requires viable alternatives to standard rideshare arrangements. These include shared launches—where missions are intentionally conceived from the ground up with multiple distinct customers in mind, rather than a secondary payload haphazardly piggybacking on a primary customer’s mission—and fully dedicated launches. In a dedicated launch, a customer procures an entire rocket explicitly customized to accommodate their unique schedule, precise orbital destination, and proprietary payload requirements.
Exolaunch’s operational pipeline highlights the tangible benefits of pursuing launch diversity. The company’s first eight missions of the year were executed across four distinct launch vehicles departing from three different continents. By actively securing capacity across a broad, diversified portfolio of launch vehicles, orbital inclinations, and global spaceports, Sproles and his team aim to provide customers with not only more predictable access to the cosmos, but also vastly superior flexibility regarding financial costs, strict schedules, and final orbital destinations.
We Need Launchers to Launch
Looking toward the horizon, Sproles envisions a mature future where satellite operators can launch at any time and to any orbital regime without ever having to obsess over vehicle availability or rigid schedules. He compares this ideal state to traditional terrestrial manufacturing, where industrial producers can ship physical goods anywhere in the world knowing that a container ship, freight train, or long-haul truck will always be readily available to transport them.
"The ideal situation is that customers don’t have to think about what the vehicle is or when it’s going because there’s always an option to get to the desired orbit at the time when their satellite is manufactured," Sproles said.
Ultimately, realizing that frictionless future rests squarely in the hands of the world’s commercial launch companies.
"We have multiple launch providers who have shown they can launch rockets," Sproles concluded. "Now, we need those launchers to launch. We need them operating reliably at cadence, and we need them going to multiple orbits. They can do it. We just need them to execute."

