Why Is FAA Spaceport Expansion Now Focused on New Spaceports and Priority Launch Corridors?

Key Takeaways

• FAA is examining new launch sites and priority airspace as U.S. launch activity remains concentrated at three federal ranges.
• The RFI asks whether underused commercial spaceports can absorb growth before entirely new launch infrastructure is built.
• The RFI’s 10,000-operation figure is an aggressive planning assumption that differs sharply from FAA’s published forecast.

FAA Spaceport Expansion Has Become a National Capacity Policy

On August 24, 2026, the Federal Register placed a new Federal Aviation Administration Request for Information on public inspection under docket FAA-2026-9736. The official FAA RFI is titled Siting New Spaceports and Use of Priority Airspace for Critical Space Launch Corridors. It is scheduled for publication on August 25, 2026, and asks for written comments within 60 days after publication.

The RFI seeks public and industry input on two connected transportation issues: where additional U.S. launch facilities could be located and how the federal government should develop priority airspace for launch corridors. The Federal Register public-inspection listing confirms that the notice was filed on August 24 at 8:45 a.m. and is scheduled for publication the next day.

The timing follows the August 20 release of the National Space Transportation Policy, which establishes an explicit federal goal of developing range capacity capable of supporting more than 1,000 launches and reentries each year by 2030. The memorandum directs the Secretary of Transportation, working with other federal agencies and stakeholders, to identify potential locations for additional launch facilities, integrate launch and reentry management into air traffic control modernization, and designate priority airspace for launch corridors.

That makes the RFI more consequential than a routine consultation about real estate. It is an attempt to determine how the physical and operational architecture of U.S. space transportation would have to change if launch and reentry become much higher-frequency transportation activities. Pads, roads, utilities, range scheduling, airspace management, environmental review, financing, telecommunications spectrum, national security requirements, and federal procurement all become components of the same transportation problem.

The figures presented by FAA explain the pressure behind the effort. According to the RFI, the United States accounted for 217 of 329 launches worldwide during 2025. More than half of U.S. launches originated at Cape Canaveral Space Force Station and Kennedy Space Center. Those two Florida facilities, combined with Vandenberg Space Force Base in California, accounted for 83% of U.S. launches.

Concentration at three federal sites provides substantial advantages. Operators gain access to established range organizations, experienced personnel, specialized processing facilities, transportation links, communications systems, safety infrastructure, and decades of operational knowledge. Concentration can also create scheduling pressure and make national launch capacity dependent on a small number of geographic locations.

New Space Economy has examined the same issue through the question of whether NASA launch infrastructure can keep pace with commercial demand. Launch pads represent only one part of the constraint. Roads, electrical systems, bridges, industrial gases, payload processing buildings, communications networks, security systems, range instrumentation, workforce availability, and airspace coordination can each limit launch cadence.

The new policy treats those systems as parts of a transportation network rather than isolated space facilities. That distinction matters because increasing rocket production does not automatically increase the number of missions a range can safely support. Ground infrastructure, regulators, airspace managers, processing facilities, transportation systems, and launch customers must scale together.

Federal policy is also becoming more involved in decisions that historically depended heavily on state governments, local authorities, airport operators, private investment, and arrangements with federal ranges. The August 2026 policy gives the Department of Transportation a more active planning role by directing it to identify where national capacity should expand and what policy changes could support that expansion.

The RFI Tests Whether New Sites Are Better Than Upgrading Existing Ones

One of the most revealing features of the FAA request is that it does not assume construction of another spaceport is automatically the best answer. The agency asks why existing commercial spaceports remain underused, what federal actions could increase orbital launches from those sites, and whether development efforts at existing facilities can be renewed.

Those questions recognize a persistent economic problem in the commercial spaceport business: obtaining a site operator license does not create launch demand.

A spaceport requires customers whose vehicles, payloads, trajectories, schedules, and support requirements match the facility. A location may hold an FAA license yet lack a launch vehicle committed to sustained operations. Another site may possess a runway suited to horizontal operations but have limited relevance to the dominant vertical orbital launch market. A third location may support suborbital missions without possessing the infrastructure needed for frequent orbital launches.

The FAA licensing framework makes this distinction explicit. FAA authorizes vehicle operations separately from launch and reentry sites. A spaceport license permits the site to host operations. It does not provide the vehicle authorization required for a launch or create a commercial customer willing to use the site.

The economics are explored in New Space Economy’s analysis of commercial spaceport business models. Spaceport infrastructure can include payload processing facilities, telemetry systems, command networks, emergency services, propellant handling, secure storage, specialized transportation links, vehicle integration facilities, environmental systems, and range-support capabilities. Maintaining those assets without frequent missions can leave a spaceport carrying substantial fixed costs with limited operating revenue.

Federal policy has confronted this question before. A 2020 Government Accountability Office review found that most launch providers interviewed by GAO considered the available U.S. launch infrastructure generally sufficient for their requirements at that time. Launch companies and site operators nevertheless disagreed about where future investment should go. Some launch providers favored additional capacity at busy existing locations. Some spaceport representatives favored construction at additional sites.

GAO recommended that FAA examine a broader set of infrastructure-support options, including funding and financing tools as well as technologies that could increase capacity at facilities already in operation. That recommendation remains open. GAO reported in 2026 that FAA had continued working on infrastructure-support recommendations, although some of that work had been overtaken by newer executive policy.

Demand has changed substantially since the 2020 review. Reusable launch systems, satellite constellation deployment, defense requirements, commercial human spaceflight, growing reentry activity, and increased mission frequency have altered the operating environment. Yet the economic question remains the same. Building more launch pads does not guarantee that enough vehicles, customers, range personnel, processing infrastructure, or transportation capacity will exist to use them efficiently.

The RFI consequently reopens several proposals that illustrate different approaches to expansion. These include Spaceport Shiloh in Florida, Camden Spaceport in Georgia, an earlier Puerto Rico spaceport concept, and offshore or converted-rig launch platforms. Camden advanced through years of planning before local opposition stopped site development in 2022, according to the FAA notice, although its FAA site operator license runs through December 2026. Puerto Rico had previously been considered for light- and medium-class launch activity. Offshore platforms represent a different model that can move launch activity farther from populated coastal areas.

FAA is also asking respondents to identify locations not listed in the notice.

The eventual answer to FAA spaceport expansion may consequently be less dramatic than construction of another large federal range. A successful policy could combine upgrades at established federal sites, increased use of selected commercial spaceports, new privately developed facilities, offshore operations, and targeted infrastructure investment at locations with identifiable customers.

Geography Still Dictates Which Spaceports Can Support Orbital Launch

Rocket technology has changed substantially since the United States selected its major eastern and western launch ranges, but geography remains highly restrictive.

The RFI identifies access to open-water trajectories, transportation and utility infrastructure, launch logistics, and limited early overflight of foreign territory as enduring attributes of viable sites. Those requirements explain why the search for new vertical orbital spaceports is much narrower than a map of undeveloped land might suggest.

Orbital launch vehicles do not simply rise vertically and disappear into space. They accelerate downrange, may shed stages or other hardware, and require flight-safety planning for both nominal and off-nominal events. Coastal launch locations can provide long trajectories over water and reduce exposure of populated areas to potential debris.

Launch direction matters as well. Missions to different orbital inclinations require different trajectories. Geography that works well for one class of mission may be poorly suited to another. A location that provides attractive eastward trajectories may have limitations for polar or high-inclination missions, and the reverse can also be true.

The current regulatory framework reinforces these geographic constraints. 14 CFR Part 420 governs licenses to operate launch sites and contains requirements concerning flight corridors, populated areas, explosive hazards, public safety, and other site characteristics. The regulation defines a flight corridor as an area associated with potentially hazardous debris during nominal and non-nominal flight.

Infrastructure can eliminate another large group of theoretically attractive locations. Rocket stages and payloads may require oversized road access, deep-water ports, rail connections, specialized cranes, secure processing facilities, industrial power, communications infrastructure, and substantial quantities of commodities. The FAA RFI explicitly asks whether candidate sites already possess transport links such as wide-load highways or deep-water ports.

The agency also asks respondents about construction costs, supply-chain constraints, energy requirements, financing, and technologies that could reduce construction time.

The FAA Spaceport Licensing Primer describes another set of development challenges. Prospective operators must consider community engagement, environmental review, airspace integration, airport co-location, safety planning, site infrastructure, and long-term business viability well before operations begin.

Vehicle licensing creates another layer. FAA’s current commercial space licensing page identifies Part 450 vehicle operator licenses as the framework that may authorize launch, reentry, or both, whereas Part 420 governs launch-site operators. New Space Economy’s explanation of FAA Part 450 commercial space licensing provides additional context for how vehicle authorization differs from site authorization.

Wallops Flight Facility illustrates why an established location can still have physical constraints. The RFI recognizes Wallops as an important source of U.S. launch capacity but describes the site as physically constrained, with four launch pads and no heavy-spacelift option. Those limitations do not make Wallops unsuccessful. They demonstrate why increasing activity at an existing facility cannot always reproduce the capabilities of a much larger federal range.

New Space Economy’s examination of spaceport infrastructure also shows how requirements differ by operating model. Horizontal-launch facilities can resemble specialized airports and reuse runways, hangars, aviation services, and transportation networks. Vertical orbital facilities need a different set of launch pads, propellant systems, integration facilities, range capabilities, and safety areas.

Community acceptance further narrows the available choices. Land acquisition, noise, environmental effects, transportation impacts, restricted access areas, construction activity, safety zones, and expectations about local economic development can influence whether a technically feasible project becomes an operating spaceport.

Camden illustrates the problem. A site can proceed through licensing and planning yet fail to develop an active launch market when political, community, commercial, or environmental conditions no longer support the project.

A viable site therefore needs more than good latitude and open water. It must combine usable trajectories, suitable infrastructure, customers, financing, regulatory feasibility, community acceptance, environmental compatibility, transportation access, and enough long-term demand to justify its fixed costs.

Priority Launch Corridors Shift the Debate Into Airspace Management

The other half of the FAA initiative concerns an asset that is less visible than a launch pad but can be just as important to launch frequency: access to the National Airspace System.

Current launches require coordination between launch operators and the FAA Air Traffic Organization because aircraft must be protected from hazards associated with launches and reentries. FAA uses Aircraft Hazard Areas to identify airspace where an aircraft occupant could face unacceptable risk from launch-vehicle debris or other hazards.

FAA’s airspace integration guidance explains how Aircraft Hazard Areas are used to segregate aviation from launch and reentry hazards. The geometry and duration of those areas depend on vehicle trajectory, potential debris, flight stage, operating conditions, and safety analysis.

The transportation problem is not that every aircraft must remain hundreds of miles from a rocket. It is that temporary protection areas can intersect heavily traveled aviation routes. Aircraft may need to reroute around them, and the operational cost depends on location, timing, closure duration, traffic density, weather, and the amount of warning provided.

A 2024 Government Accountability Office review found that FAA uses historical air-traffic information to estimate which routes and how many aircraft could be affected by a proposed launch time. GAO also reported that FAA had reduced some airspace closure periods through time-based management procedures designed to identify aircraft that would actually encounter a hazard area rather than rerouting more traffic than necessary.

New Space Economy summarized the same regulatory problem in its examination of FAA environmental and airspace effects.

The August 2026 National Space Transportation Policy goes further. It directs the Department of Transportation to integrate launch and reentry management with air traffic control modernization and designate priority airspace for launch corridors.

That wording suggests movement toward more repeatable operating structures for selected missions, trajectories, or locations rather than treating every launch entirely as an isolated airspace event. The policy does not prescribe exactly how those corridors should operate. The RFI asks the aviation sector, space operators, communities, and other stakeholders to help define the concept.

Several policy choices follow from that question. A corridor could be geographically predefined but activated only for limited periods. Access might depend on mission type, launch-site activity, payload purpose, national security requirements, scheduling rules, or operational urgency. FAA asks what operations should qualify, which spaceports should benefit, what governance structures should apply, and what emergency provisions would protect aviation and public safety.

Environmental effects are also explicitly included in the RFI’s corridor questions.

Aviation operators have strong reasons to participate. Airlines, cargo carriers, business aviation, general aviation, military aviation, airports, and other users depend on predictable access to shared airspace. A priority system that improves launch predictability by repeatedly imposing large detours on aviation would transfer part of the economic cost of launch operations to other transportation users.

The opposite approach creates a different problem. Giving aviation unrestricted precedence could make high-frequency launches difficult to schedule even when launch vehicles and pads are available.

The policy question is consequently broader than drawing protected paths in the sky. It concerns how two transportation systems with very different operating patterns share a finite national resource.

Aviation operates continuously and at enormous scale. Space launch remains far less frequent, but individual missions can require protection over geographically large areas and may support commercial, civil, scientific, or national security objectives. Priority corridors could create a more predictable operating framework, but their design will determine whether that predictability improves total transportation efficiency or shifts disruption elsewhere.

Funding and Governance May Decide Which Spaceport Proposals Survive

Launch infrastructure is expensive because a spaceport is a collection of specialized systems rather than a pad surrounded by vacant land.

Roads, bridges, electrical systems, water systems, propellant storage, communications infrastructure, payload processing facilities, integration buildings, range systems, emergency services, security infrastructure, environmental mitigation, and launch pads all require capital. Much of that infrastructure has long service lives and substantial maintenance costs.

The RFI places financing directly into the FAA spaceport expansion discussion by asking how funding constraints should be addressed and how public-private partnerships could support development.

The broader Department of Transportation already operates financing programs designed to encourage private participation in infrastructure. The Build America Bureau’s P3 program describes public-private partnerships as arrangements in which private entities can assume responsibility for design, construction, finance, long-term operations, or revenue risk.

In June 2026, DOT also awarded nearly $47 million through its Innovative Finance and Asset Concession program to help public entities evaluate innovative financing and partnership arrangements. The program is not specific to spaceports, but it demonstrates the department’s broader interest in using private capital and alternative delivery models for transportation infrastructure.

The National Space Transportation Policy now applies the same approach directly to launch and reentry infrastructure. It directs federal agencies to encourage leases, commercial investment, co-development, and public-private partnerships for capital improvements on federal property.

The Aerospace Corporation examined the issue in a 2025 study of spaceport investment models, separating development approaches into public-sector, public-private partnership, and private-sector models. Each allocates capital requirements and operating risk differently.

The basic economic problem does not disappear when financing becomes more creative. Someone still pays for construction, carries the risk of low utilization, pays to maintain specialized infrastructure between missions, and absorbs the consequences when projected launch demand does not materialize.

A financing structure cannot compensate indefinitely for a spaceport that lacks an anchor launch provider, suitable trajectories, adequate airspace, transportation links, or enough customers.

Federal range funding introduces another issue: cost recovery.

A 2025 GAO assessment of national security launch ranges found that growing commercial use had exposed weaknesses in how the Department of Defense recovered some indirect costs from commercial launch providers. GAO found that statutory reimbursement limits could prevent the Space Force from recovering all indirect costs from high-cadence users after those companies reached the applicable cap.

The August 2026 National Space Transportation Policy responds to that broader issue by directing federal agencies to develop fair and transparent cost-recovery policies for common services, commodities, and infrastructure.

Cost recovery involves a difficult balance. Insufficient recovery can leave taxpayers supporting infrastructure whose wear and operating costs increasingly come from commercial activity. Excessive fees can reduce the attractiveness of federal ranges, discourage investment, or make private alternatives more appealing.

Existing commercial spaceports therefore remain economically relevant to the RFI. If federal policy can increase use through better transportation access, standardized range services, airspace coordination, infrastructure investment, or financing support, expanding selected facilities may cost less than creating entirely new orbital launch sites.

If the underlying problem is lack of customer demand additional subsidies could simply create more underused infrastructure.

The 10,000-Operation Planning Figure Needs Careful Interpretation

The most striking number in the FAA RFI is 10,000 FAA-licensed launches and reentries per year by 2035.

The RFI states that activity could grow from a few launches each week to several launches and reentries each day and says that the rate is expected to reach 10,000 FAA-licensed operations annually by 2035. That figure provides much of the justification for considering a substantial expansion of physical and airspace capacity.

It should not be confused with the formal target in the August 20 National Space Transportation Policy.

The presidential memorandum directs U.S. ranges to develop enough capacity to support more than 1,000 launches and reentries each year by 2030. That is a capacity objective. It does not state that more than 1,000 operations will necessarily occur during 2030.

There is also a substantial unresolved difference between the RFI’s 10,000-operation statement and FAA’s own published commercial space forecast.

On July 28, 2026, the Department of Transportation announced a commercial space licensing initiative and stated that the FAA commercial space forecast projected as many as 4,288 operations over the coming decade, with annual operations rising from 214 in 2026 to 507 in 2036.

Those figures are not close to 10,000 annual operations by 2035.

The available federal material reviewed through August 24, 2026 does not provide a public methodology reconciling those numbers. They may represent different scenarios, definitions, policy assumptions, categories of activity, or demand cases. Without an explanation from FAA, they should not be treated as measurements of the same forecast.

That distinction matters for infrastructure policy.

A system designed to support 1,000 annual operations requires one scale of launch pads, range staffing, automation, airspace management, utilities, processing infrastructure, regulatory throughput, and transportation capacity. A system intended for 10,000 annual launches and reentries would require something much closer to a mature transportation network.

At 10,000 operations per year, average activity would exceed 27 launches or reentries per day. Supporting that volume would imply extensive standardization, automated safety systems, frequent reusable-vehicle operations, high-volume reentry capability, rapid regulatory processing, substantial geographical distribution, and a much larger industrial support base than exists in 2026.

Even the 1,000-operation policy target represents a large increase over present commercial activity.

FAA reported in July 2026 that it authorized a record 204 commercial space operations during fiscal year 2025. Its published forecast places annual operations at 507 in 2036. A range system capable of more than 1,000 annual launches and reentries would therefore contain significant capacity above the central commercial forecast if that forecast remains accurate.

There is a rational reason to build margin into infrastructure planning. Spaceports, roads, power systems, launch pads, range equipment, and airspace systems can take years to plan, permit, finance, and construct. Infrastructure built only for current traffic can become obsolete before it enters service.

Reusable vehicles, higher launch cadence, commercial stations, defense replenishment missions, satellite constellations, lunar logistics, cargo reentry, and future transportation concepts could produce activity levels above today’s baseline forecasts.

The safest interpretation is therefore to treat 10,000 annual launches and reentries as an aggressive planning assumption stated in the RFI rather than a settled FAA demand forecast.

That does not make the number irrelevant. It changes how the number should be used. It can support stress testing of infrastructure requirements without being presented as a demonstrated market outcome.

Surface Transportation Is Becoming Part of Spaceport Policy

Spaceport policy increasingly extends beyond the perimeter fence.

A launch facility can possess suitable airspace and an available pad yet still be constrained by roads, bridges, ports, electrical systems, or freight connections. Rocket stages, ground-support systems, propellant equipment, payload containers, construction materials, cranes, and oversized components must physically reach the site.

The Department of Transportation made that connection explicit in June 2026 when it announced that its infrastructure programs would, for the first time, prioritize eligible road projects connecting transportation networks to commercial spaceports.

The June 2026 infrastructure initiative stated that DOT wanted to improve roadway access to commercial space facilities as part of a $626.7 million infrastructure funding opportunity. The department’s FY 2026 INFRA program likewise identifies eligible land-side surface transportation access to licensed commercial spaceports as an area of federal interest.

This represents an important change in how launch infrastructure is classified for public investment.

A spaceport has traditionally been discussed mainly as an aerospace facility. Treating access roads and freight connections as components of national transportation infrastructure moves commercial space closer to the policy model used for airports, seaports, logistics terminals, and other intermodal facilities.

That approach matches the questions in the RFI. FAA specifically asks whether candidate locations have existing infrastructure such as wide-load highways or deep-water ports.

The connection between spaceports and freight infrastructure could influence where future facilities are economically viable. A coastal site with favorable trajectories may still require extensive investment if heavy components cannot reach the property efficiently. A site near an established port, industrial corridor, freight railroad, or high-capacity highway may begin with a substantial infrastructure advantage.

Energy availability could become equally important. High-cadence launch facilities can require substantial electrical capacity, water, industrial gases, propellant production or storage, communications systems, and support for manufacturing or payload processing. The RFI asks respondents directly about energy constraints because launch capacity can be limited long before a rocket reaches the pad.

This broader transportation framing also creates investment opportunities outside the launch industry itself. Civil engineering companies, utility providers, logistics companies, port operators, construction contractors, telecommunications firms, cybersecurity providers, environmental services companies, and infrastructure financiers can all participate in spaceport development without manufacturing rockets.

What the RFI Could Change for the U.S. Space Economy

FAA spaceport expansion could affect considerably more than launch companies.

Space transportation sits upstream of satellite manufacturing, national security procurement, Earth observation, communications networks, commercial stations, scientific missions, lunar logistics, in-space services, and other markets that depend on reliable access to orbit.

New Space Economy’s analysis of launch economics and space markets explains why range capacity and launch scheduling affect businesses far beyond the launch provider. Transportation cost matters, but so do schedule availability, suitable orbital destinations, range access, regulatory approvals, mission assurance, and the ability to place a spacecraft into service at the time its business model requires.

Additional launch capacity could influence where aerospace investment occurs within the United States. An operating orbital spaceport can attract vehicle integration, payload processing, manufacturing, logistics, engineering services, construction contractors, range-technology suppliers, security companies, telecommunications providers, and specialized workforce programs.

Those effects depend on actual flight activity. A licensed spaceport that rarely hosts a launch creates a different local economy from a range conducting missions every week.

Federal procurement could become an anchor for selected facilities. National security programs increasingly rely on proliferated satellite architectures, launch diversity, and faster replenishment. Civil agencies require access for exploration and science missions. Commercial constellation operators can generate recurring demand that traditional one-time spacecraft programs cannot.

A site capable of serving several customer classes may have a stronger economic case than a facility whose business model depends on one speculative vehicle.

Regulatory capacity belongs in the same equation. FAA’s Office of Commercial Space Transportation licenses commercial launch and reentry operations and non-federal launch sites, conducts safety oversight, and coordinates with the National Airspace System. The agency’s current licensing framework demonstrates how site licensing, vehicle authorization, permits, safety approvals, payload reviews, and operational data form separate parts of the regulatory system.

Physical infrastructure that expands faster than regulatory capacity can simply move the bottleneck.

The RFI creates an opportunity for states, communities, aviation organizations, infrastructure developers, environmental organizations, launch providers, airport authorities, investors, defense interests, and other stakeholders to influence policy before DOT defines its preferred approach.

FAA is asking for strategic siting criteria, explanations for underused facilities, lessons from earlier proposals, potential new locations, financing ideas, construction strategies, corridor governance models, emergency procedures, environmental considerations, and questions that the government may have overlooked.

That breadth gives the consultation unusual significance.

The outcome could influence whether future U.S. launch growth remains concentrated at a few federal ranges, spreads toward commercial spaceports, produces new purpose-built facilities, increases offshore launch operations, or develops through a mixed national network.

It could also determine whether access to launch airspace continues to be coordinated mainly mission by mission or becomes more standardized through repeatable corridors and integrated traffic-management systems.

For businesses, the opportunity may lie less in predicting which proposed spaceport will be selected and more in identifying the capabilities that almost every expansion scenario will require.

Range automation, airspace coordination, construction, power systems, communications, transportation links, cybersecurity, payload processing, safety systems, environmental services, logistics, and infrastructure financing all sit beneath the launch vehicle itself.

The RFI is asking the market to help determine which combinations deserve policy support and where additional capacity would produce the greatest national value.

Summary

The FAA’s August 2026 RFI marks a change in how the United States is approaching launch infrastructure. Docket FAA-2026-9736 does not select a new spaceport, establish a permanent launch corridor, or commit federal funding to a named site. It begins a structured process for deciding whether additional capacity should come from new facilities, existing commercial spaceports, expanded federal ranges, offshore systems, infrastructure upgrades, or some combination of those approaches.

The strongest argument for expansion comes from concentration. According to FAA, Cape Canaveral Space Force Station, Kennedy Space Center, and Vandenberg Space Force Base accounted for 83% of U.S. launches during 2025. That concentration gives the United States highly capable operating centers but leaves future growth dependent on a small number of ranges and their associated infrastructure, schedules, utilities, workforce, transportation systems, and airspace.

The airspace component may prove as consequential as the search for land. Higher launch cadence cannot be achieved simply by adding pads if missions continue to require intensive coordination with heavily traveled aviation routes. Priority launch corridors could improve predictability, but their design will need to maintain aviation safety and limit unnecessary disruption to other users of the National Airspace System.

Financing may determine which concepts progress beyond planning. Public-private partnerships can distribute capital requirements and project risks, but they cannot create customers for poorly positioned facilities. Existing commercial spaceports, new locations, and federal ranges still need credible demand, appropriate geography, infrastructure, airspace access, regulatory feasibility, and sustainable operating economics.

The RFI’s 10,000-launch-and-reentry figure also requires careful treatment. It is far above FAA’s July 2026 published commercial forecast of 507 annual operations in 2036 and should be understood as a high-demand planning assumption unless the government publishes a methodology that reconciles the difference. The formal national policy objective is more specific: U.S. ranges are directed to build capacity capable of supporting more than 1,000 launches and reentries annually by 2030.

FAA spaceport expansion is consequently becoming a transportation-network question rather than a narrow launch-pad question. The policy decisions that follow this consultation could determine where the United States launches, how frequently it launches, how aviation and spaceflight share airspace, how infrastructure is financed, and whether the country’s future space transportation demand can expand without reproducing today’s capacity constraints on a much larger scale.