Orbital Composites Wins a $1.7 Million Space Force Contract to Print Antennas in Orbit

The deep-tech startup is using non-dilutive government funding to mature its robotic additive manufacturing for aerospace and defense.

About Orbital Composites

Published

The most ambitious sales cycle in the world doesn't involve a procurement committee. It involves convincing the U.S. Space Force to fund a factory that doesn't yet exist, in an environment where no one has ever manufactured anything, to build a product that must work perfectly the first time. For Orbital Composites, a Campbell, California startup, that's the core of the business. The company is not selling a printer; it's selling a capability to build large, complex composite structures in space, and it's using a stack of government contracts as its primary R&D budget.

Its wedge is robotic additive manufacturing for high-performance composites in extreme environments, a niche with punishing technical barriers but equally high strategic value. The company's public traction is measured not in venture rounds, but in a series of Small Business Innovation Research (SBIR) awards from the Department of Defense. The most notable is a $1.7 million Orbital Prime contract from the U.S. Space Force's innovation arm, SpaceWERX, to develop technology for 3D printing massive antennas in orbit [SpaceNews, 2026]. For a company with an estimated $2 million in total funding, that non-dilutive capital represents a significant use point [Prospeo, Oct 2023].

The Government as First Customer

Orbital Composites operates in a realm where the initial customer is almost always a government agency with a specific, hard problem. The company has secured at least six SBIR contracts from the U.S. Space Force, Air Force, and Navy over a two-year period, according to a 2022 report [SpaceNews]. A more recent tranche of three SBIRs was valued at more than $3 million combined [TechCrunch, Aug 2023]. These contracts fund targeted development work on projects ranging from radiation-tolerant satellites and quantum antennas to carbon-carbon composite printing for thermal protection systems.

This model provides several advantages. It de-risks early-stage technology development with patient capital that doesn't demand immediate commercial scale. It also forces the company to solve real, mission-critical problems for the most demanding customers imaginable, which in turn validates the technology for downstream commercial and defense prime contractors. The work with partners like Axiom Space, Northrop Grumman, and the Southwest Research Institute on the antenna-printing project is a direct result of this government-funded path [SpaceNews, 2026].

A Dual-Path to Market

While its most futuristic work is focused on in-space servicing, assembly, and manufacturing (ISAM), Orbital Composites is also building a terrestrial business. The company holds an exclusive license for a proprietary additive manufacturing compression molding (AMCM) technology co-developed with Oak Ridge National Laboratory, aimed at high-volume composite parts manufacturing [CompositesWorld]. It also sells a lower-cost, $99,900 robotic additive manufacturing system called the Orbital e- targeted at education and research institutions [Orbital Composites].

This creates a two-track strategy:

  • The long-term bet: Becoming the go-to provider for manufacturing large-scale structures like antennas, booms, and shields in the vacuum of space.
  • The near-term business: Licensing advanced composite printing technology and selling robotic systems for research and specialized terrestrial manufacturing, which generates revenue and refines the core robotics platform.

The terrestrial side offers a path to recurring revenue and product iteration, while the space side represents the strategic, high-margin future. It's a capital-efficient way to build a deep-tech company, though it ties the company's near-term fate closely to the continuity of government R&D budgets.

The Team and the Traction

Founders Amolak Badesha (CEO) and Cole Nielsen (CTO) lead the company, which reportedly employs around 10 people [RocketReach, 2026]. Public details on their prior careers are sparse, but Nielsen has been designing large-format 3D printers for aerospace structures since 2015 [SpaceNews]. The company's advisory board includes Bryan Bauw, and it has participated in the Orbital Edge Accelerator. Its investor base is a mix of venture firms like Fly Ventures, Compound, and Flying Fish Ventures, who are betting on the convergence of advanced robotics, materials science, and the new space economy.

Role Name Note
CEO & Co-Founder Amolak Badesha Leads company strategy and partnerships [LinkedIn, 2026].
Founder & CTO Cole Nielsen Technical visionary; has focused on large aerospace 3D printing since 2015 [SpaceNews].
Hardware Engineer Ren Fisher Example of early technical hire [LinkedIn, 2026].

The company's public roadmap is articulated through its government contracts and partnerships. The next twelve months will be critical for demonstrating progress on its flagship Space Force antenna-printing project and likely seeking to convert its SBIR successes into a larger, growth-oriented equity round.

The Realistic Competitive Set

Orbital Composites does not compete with desktop 3D printer companies. Its realistic competitors are other advanced manufacturing firms targeting high-performance composites for aerospace and defense. The field is specialized but not empty.

  • ARRIS Composites and Continuous Composites are both well-funded startups developing novel continuous fiber composite manufacturing techniques for automotive and aerospace. Their focus is predominantly terrestrial.
  • Large aerospace primes like Northrop Grumman have in-house additive manufacturing capabilities, but they often partner with agile startups like Orbital for specific, cutting-edge applications, as the antenna project demonstrates.
  • The most significant long-term competition may come from other space-focused ISAM startups, though this ecosystem is still in its infancy. Orbital's first-mover advantage in securing key government contracts is a meaningful moat.

Where the Model Gets Tested

The company's government-first GTM strategy is its greatest strength and its most visible risk. The model works brilliantly as long as non-dilutive funding flows and technology milestones are hit. The risks are equally clear.

  • Budget dependency. A shift in defense or space R&D priorities could slow contract awards. The sales cycle, while deep-pocketed, is inherently political and subject to appropriation delays.
  • The commercialization jump. Successfully transitioning from bespoke government contracts to standardized, scalable products with repeatable economics is a classic valley of death for deep-tech firms. The $99.9k Orbital e- system is a test of this transition.
  • Capital intensity. While capital-efficient now, scaling hardware production and supporting large-scale space demonstrations will eventually require significant venture capital. The company's next funding round will be a key signal of investor belief in that transition.

The company's answer to these risks is its partnership strategy. By working directly with primes like Northrop Grumman on government contracts, it builds relationships that could later turn into commercial supply agreements. Its exclusive ORNL license also provides a defensible IP position for terrestrial applications.

For now, Orbital Composites' ideal customer profile is unambiguous: it's a procurement officer at a U.S. defense or space agency with a problem that can only be solved by printing a high-performance composite structure in an extreme environment. The company has convinced that customer to write multiple checks. The next test is proving that the technology developed for those checks can build a product line that appeals to a second customer: a program manager at a commercial satellite company or an advanced manufacturing lab with a budget and a need for speed.

Sources

  1. [Orbital Composites] Company Website | https://www.orbitalcomposites.com/
  2. [SpaceNews, 2026] Orbital Composites leans into space market | https://spacenews.com/orbital-composites-leans-into-space-market/
  3. [TechCrunch, Aug 2023] Orbital Composites secures new SBIR contracts | https://techcrunch.com/2023/08/25/orbital-composites-isam-contracts/
  4. [CompositesWorld] Orbital licenses AMCM technology with ORNL | https://www.compositesworld.com/news/orbital-composites-licenses-breakthrough-amcm-technology
  5. [Prospeo, Oct 2023] Orbital Composites funding data | https://prospeo.io/company/orbital-composites
  6. [RocketReach, 2026] Orbital Composites employee data | https://rocketreach.co/orbital-composites-profile
  7. [LinkedIn, 2026] Ren Fisher profile | https://www.linkedin.com/in/renfisher/
  8. [3DPrint.com, 2026] Podcast with Amolak Badesha | https://3dprint.com/322772/3dpod-285-manufacturing-on-the-moon-with-amolak-badesha-orbital-composites/
  9. [Crunchbase] Orbital Composites profile | https://www.crunchbase.com/organization/orbital-composites

Read on Startuply.vc