ULA’s Decline, Avio’s Surge, and Rocket Futures

The Shifting Landscape of U.S. Government Launch Services

United Launch Alliance (ULA) has been a cornerstone of American national security launches since its formation in 2006. Backed by aerospace giants Boeing and Lockheed Martin, the partnership once enjoyed a near‑monopoly on Department of Defense (DoD) and intelligence payloads. Stephen Clark’s latest Rocket Report deep‑dive, however, paints a starkly different picture: ULA’s market share is eroding, and its core business model—centered on expendable launch vehicles—faces an existential challenge.

The catalyst for this shift is not a single event but a confluence of market forces:

• SpaceX’s aggressive pricing and rapid cadence have forced the government to reconsider legacy contracts.
• The Falcon 9 order freeze—SpaceX’s decision to stop accepting new commercial Falcon 9 missions—has created a temporary vacuum that other providers, notably Italy’s Avio, are eager to fill.
• Policy pressure from the U.S. Space Force to diversify launch sources and to prioritize reusability for cost‑effectiveness.

Understanding why these dynamics matter requires a look at the technical, financial, and strategic dimensions of launch services.

Why SpaceX’s Falcon 9 Order Freeze Matters

SpaceX announced that it would no longer accept new commercial orders for its Falcon 9 vehicle. The statement, reported across industry outlets, signals a strategic pivot: the company is reallocating production capacity to its Starship program and to high‑value government missions. The immediate fallout is twofold:

1. Supply‑Side Shock for Commercial Customers – Companies that had been lining up Falcon 9 slots now face a scramble for alternative launch providers.
2. Opportunity for Competitors – The sudden gap in the market has opened doors for firms with expendable rockets, such as Avio, to capture “captive” customers who are desperate for a launch window.

Giulio Ranzo, Avio’s CEO, summed up the sentiment during the September 10 earnings call:

“I can tell you Space X has already gone captive because we have a whole bunch of customers coming to us and saying, ‘Oh my God, can you fly us?’”

Ranzo’s comment underscores a broader industry truth: launch demand is inelastic. When one provider reaches capacity, customers will migrate to the next viable option, even if that option relies on older, expendable technology.

Avio’s Strategic Gains in a Falcon‑9 Void

Avio, traditionally known for its Vega family of small‑to‑medium lift rockets, has been quietly expanding its service portfolio. The company’s recent earnings call highlighted a surge in inbound inquiries from satellite operators, telecom firms, and scientific missions that were previously slated for Falcon 9.

Key factors driving Avio’s newfound momentum:

• European Government Backing – The European Space Agency (ESA) has pledged additional funding for Vega‑C and upcoming Vega‑E developments, ensuring a steady pipeline of launch opportunities.
• Flexibility in Payload Integration – Avio’s modular fairing designs allow for rapid re‑configuration, a valuable trait for customers with tight schedules.
• Competitive Pricing – While not as low as SpaceX’s historic rates, Avio’s pricing is attractive when the alternative is a delayed launch or a costly re‑flight on a reusable vehicle.

Avio’s growth also illustrates a subtle but important market segmentation: customers who prioritize schedule certainty over reusability may willingly accept expendable rockets if the provider can guarantee a launch slot within a narrow window.

Technical Breakdown: Expendable vs. Reusable Launch Vehicles

The core technical debate centers on the trade‑offs between expendable rockets (like ULA’s Atlas V and Delta IV, and Avio’s Vega) and reusable systems (SpaceX’s Falcon 9 first stage, upcoming Starship). Below is a concise comparison:

🔹 --------
• Expendable Rockets: -------------------
• Reusable Rockets: ------------------

🔹 *Cost per Launch*
• Expendable Rockets: Higher per‑flight hardware cost; no refurbishment expenses.
• Reusable Rockets: Lower marginal cost after initial development; refurbishment adds operational overhead.

🔹 *Payload Capacity*
• Expendable Rockets: Often optimized for specific mass‑to‑orbit envelopes; can be tailored per mission.
• Reusable Rockets: Slightly reduced payload due to added recovery hardware, but improvements are narrowing the gap.

🔹 *Turnaround Time*
• Expendable Rockets: Typically weeks to months for manufacturing and integration.
• Reusable Rockets: Potentially days to weeks if the booster is recovered and inspected quickly.

🔹 *Reliability Record*
• Expendable Rockets: Decades of flight heritage; proven for high‑value national security payloads.
• Reusable Rockets: Rapidly improving; Falcon 9 has achieved >200 successful flights, but re‑entry adds complexity.

🔹 *Environmental Impact*
• Expendable Rockets: One‑off material consumption; higher carbon footprint per kilogram delivered.
• Reusable Rockets: Re‑use reduces material waste, though propellant burn and recovery operations still generate emissions.

From a systems engineering perspective, expendable rockets still hold advantages for certain mission profiles:

• Heavy, high‑energy trajectories where the mass penalty of recovery hardware is prohibitive.
• Classified payloads that require strict chain‑of‑custody controls, making a fresh vehicle per launch preferable.
• Rapidly evolving payload designs that need custom fairings or unique integration solutions not yet standardized for reusable platforms.

Conversely, reusable rockets excel in high‑frequency, low‑to‑medium mass missions, such as Earth‑observation constellations and small‑sat deployments—segments where SpaceX’s Starlink and similar constellations dominate.

Market Outlook: What’s Next for ULA?

Given the current pressures, ULA faces three plausible strategic pathways:

1. Double‑Down on Expendable Excellence – Continue refining Atlas V and Delta IV, targeting niche government contracts that demand the highest reliability and security. This would involve investing in next‑generation propulsion (e.g., BE‑4 engines) while maintaining a clean‑sheet expendable architecture.
2. Hybrid Reusability Transition – Adopt a mixed‑fleet approach, integrating reusable first‑stage technology (potentially through partnerships or in‑house development) while retaining expendable upper stages for payload flexibility. This mirrors the approach of companies like Blue Origin, which operate both New Glenn (reusable) and New Shepard (expendable) vehicles.
3. Strategic Partnerships or Mergers – Align with emerging European launch firms (e.g., Avio) to co‑develop a reusable system that satisfies

satisfies both the U.S. national‑security requirements and the commercial market’s demand for more frequent, lower‑cost access. Such a collaboration could leverage Avio’s proven expendable heritage while tapping ULA’s deep integration expertise and the BE‑4 engine’s performance envelope, potentially yielding a semi‑reusable vehicle that bridges the current capability gap.

The Next Three Launches on the Calendar

While the Rocket Report reserves a detailed launch‑schedule deep‑dive for a future edition, the immediate horizon offers a snapshot of how the market is re‑balancing:

🔹 ------------
• Provider: ----------
• Vehicle: ---------
• Payload: ---------
• Notable Context: -----------------

🔹 *2026‑10‑12*
• Provider: ULA
• Vehicle: Vulcan Centaur (first flight with BE‑4)
• Payload: NRO‑12 (reconnaissance satellite)
• Notable Context: First operational mission for Vulcan, testing the new engine and advanced avionics suite.

🔹 *2026‑10‑28*
• Provider: Avio
• Vehicle: Vega‑E (upgraded Vega‑C with larger payload fairing)
• Payload: EuroSat‑5 (European Earth‑observation constellation)
• Notable Context: Demonstrates Avio’s expanded payload capacity, filling a slot vacated by a delayed Falcon 9.

Read the full breakdown originally published at https://ltdeveloperblogs.github.io/posts/rocket-report-china-wants-a-raptor-3-engine-spacex-set-for-big-starship-test/