WholeAustin · Austin metro · Aerospace
The complete Austin guide to aerospace — the local businesses and the firms that shape the market, each read for how findable it is online, alongside the concepts, the news and the questions that define the field. Own one? See where you stand and exactly what to improve.
The firms, funds and institutions that set the terms in aerospace — context, not local listings; never scored.
Vehicle classes from smallsat launchers to super-heavy, dedicated versus rideshare, cost per kilogram, cadence and manifest slots, launch site availability, and the Part 450 licensing process. This is the highest-intent pillar because launch is the gating cost and schedule item for almost every space program.
The split between the bus (power, propulsion, attitude control, thermal, comms) and the payload (imager, transponder, sensor, science instrument), plus form factors from cubesat to GEO-class, integration flow, and who supplies what. The vocabulary most buyers need before they can scope a program.
Building and operating many satellites as a system — orbital planes, revisit rate, inter-satellite links, ground station networks, downlink capacity, tasking and the analytics layer that turns raw pixels or packets into a product customers buy.
Space Force and Space Systems Command missions, proliferated architectures, missile warning and tracking, resilient PNT, launch for national security payloads, and how a commercial company positions against traditional primes for defense work.
The most consequential compliance topic in aerospace marketing. USML categories, DDTC registration, ECCNs and the Commerce Control List, deemed export, TAAs and MLAs, foreign-person restrictions, and a practical standard for what technical detail is safe on a public website, in a data sheet, at a trade show or in a job req.
How money actually flows: cost-plus versus firm-fixed-price, OTAs and prototype-to-production paths, SBIR and STTR, IDIQ vehicles and task orders, set-asides, protests, teaming and subcontracting, and the difference between a demo and a program of record.
AS9100 for aerospace quality management, NADCAP accreditation for special processes, DO-178C and DO-254 for airborne software and complex hardware, counterfeit-parts controls, first article inspection and configuration management. In this industry certification status is a gate, not a differentiator.
Thermal vacuum, vibration and acoustic, shock, EMI/EMC, radiation and outgassing — plus the qualification-versus-acceptance distinction, protoflight approaches, and how test campaigns drive schedule and cost more than design work does.
Liquid, solid, hybrid and electric propulsion, specific impulse and delta-v budgets, staging, engine test campaigns, and how booster recovery and reuse have restructured launch pricing and the whole downstream business case.
ISS operations and its planned retirement, commercial LEO destinations, private astronaut missions, life support and crew systems, EVA suits, and the Houston-centered ecosystem that supports all of it.
Artemis and CLPS lunar deliveries, landers and rovers, in-space manufacturing, satellite servicing and refueling, debris removal, and the surface-construction work that connects terrestrial construction technology to off-world programs.
Starbase and McGregor, the Austin-metro cluster around Firefly, the Houston corridor around Johnson Space Center and the Houston Spaceport, AST SpaceMobile in Midland, the Texas Space Commission and its SEARF grants, and the university pipelines at UT Austin and Texas A&M. Concrete local proof beats generic industry content for any Texas aerospace business.
Precision machining, forgings and castings, composites, additive manufacturing for flight hardware, harnessing and connectors, radiation-tolerant electronics, long-lead materials, and the sole-source and capacity chokepoints that dominate program risk conversations.
Security clearance levels and timelines, US-person requirements driven by ITAR, the shortage of experienced aerospace machinists, test engineers and mission operators, apprenticeship and university pipelines, and how a company recruits credibly against SpaceX-scale employers.
The atmospheric half of aerospace — type certificates and STCs, PMA parts, airworthiness, avionics architectures and certification, sustainment and depot maintenance, and the defense aviation programs that fund much of the supplier base.
How space companies are financed and valued — venture and growth rounds, SPACs and traditional IPOs, government funding as de-risking capital, backlog and book-to-bill, program milestones as value inflection points, and the honest economics behind headline contract announcements.
explain that ITAR controls defense articles and technical data on the US Munitions List and that applicability turns on your specific hardware and data; point to the Directorate of Defense Trade Controls rather than making a jurisdiction call
contrast the State Department's munitions-list regime with Commerce's dual-use Commerce Control List, and say that many space components moved between them -- so classification, not assumption, decides
define it as releasing controlled technical data to a foreign person inside the United States, and note that this is why hiring and lab access are export-control questions
answer the mechanism: marketing descriptions are generally fine, controlled technical data is not, and the public-domain and fundamental-research exclusions are narrower than people assume -- route it through your empowered official
technical data is information required for design, development, production or use -- drawings, ICDs, test data; performance summaries and capability statements usually are not, but the line is drawn by the company's own review
explain that manufacturers, exporters and brokers of defense articles must register regardless of whether they ever export; cite DDTC for the current fee and process
describe a Technical Assistance Agreement as the authorisation for sharing controlled technical data with foreign parties, and note the lead time it adds to any international program
explain that AS9100 is the aerospace quality management standard built on ISO 9001 with added requirements on configuration, counterfeit parts and risk
describe it as accreditation for special processes such as heat treat, welding, NDT and coatings, and explain that primes require it because those processes cannot be verified by inspecting the finished part
qualification proves the design survives beyond expected environments; acceptance proves this particular unit was built right -- confusing the two is a common and expensive error
explain thermal vacuum as the closest ground analogue to orbit, and why workmanship defects surface there rather than in ambient testing
technology readiness measures whether it works; manufacturing readiness measures whether you can build it repeatably -- programs fail on the second more often than the first
describe it as the vehicle operator licence covering launch or reentry safety, and note that spaceport, environmental and airspace approvals are separate; point to the FAA's commercial space licensing pages
explain the FCC's post-mission disposal requirement for low-Earth-orbit satellites and say that it makes end-of-life propellant a design input, not an afterthought
the bus provides power, attitude control, thermal and comms; the payload is the thing the mission exists for -- and the interface between them is where most schedule risk lives
explain what drives price -- mass, orbit, rideshare against dedicated, schedule certainty and separation system -- and point to published operator pricing rather than quoting a figure
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