The New Space- Commercial Space Delivering Missions in Months Instead of Years. Case: The Link

For decades, the development of space missions followed a predictable pattern. Government-funded spacecraft often required years from concept to launch, relying almost exclusively on custom-designed, radiation-hardened electronics, lengthy qualification campaigns, and extensive documentation. Today, the New Space industry is changing this model. Missions can be delivered in months from idea, develop, contract to launch & delivering the job! NASA has done a great job making contracts with space contractors (Mostly Start-ups) pretty fast to help demonstrate it’s really possible to deliver a complex space mission in short period of time. We’ve seen similar contract in development of Lunar base especially after successful return of Artemis II.

Commercial companies are proving that sophisticated spacecraft can be designed, manufactured, tested, and launched in less than one year while still accomplishing technically demanding missions. One of the best examples is Katalyst Space Technologies’ LINK mission to rescue NASA’s Neil Gehrels Swift Observatory.

Whole idea behind the Link is rather than building another scientific telescope, Katalyst was asked to accomplish something arguably more difficult: autonomously rendezvous with a spacecraft (Not designed to be docked- Unprepared but cooperative) launched in 2004, capture it using robotic arms, and boost it into a higher orbit—something never attempted commercially on an operational NASA science observatory.

Historically, spacecraft development emphasized maximum reliability over development speed. Typical programmes include several years of mission definition, custom and radiation-hardened electronics development, multiple engineering and qualification models, extensive environmental testing, long procurement cycles & large engineering teams. While this approach produces exceptionally reliable spacecraft for deep-space exploration, it often results in development cycles exceeding a decade.

New Space companies adopt a different engineering philosophy. Instead of designing every component from scratch, they integrate COTS electronics, commercial manufacturing processes, modular spacecraft architectures, agile software development, rapid hardware iteration & commercial launch opportunities.

Rather than waiting years for perfect hardware, they develop flight-ready systems quickly while managing risk through redundancy, testing, and intelligent system architecture. The result is dramatically shorter development schedules and significantly lower mission costs. We at CAVU Aerospace as supplier of C&DH solutions and thermal management systems, have placed roll production of few products like OBC-Hyper-Polar, OBC-Cube-Polar & TCU to make attractive solutions with fast delivery & fraction of the costs.

Case Study: LINK

The LINK spacecraft perfectly demonstrates how modern commercial aerospace companies can respond rapidly to urgent mission requirements. Swift, launched in 2004, was never designed for servicing. Increased solar activity accelerated atmospheric drag, causing the observatory to lose altitude much faster than expected. Without intervention, NASA risked losing one of its most productive astrophysics missions. Instead of designing a replacement telescope—which would require many years and hundreds of millions of dollars—NASA contracted Katalyst Space Technologies to develop an orbital servicing spacecraft capable of extending Swift’s operational life. The contract value was approximately US$30 million.

So $30M is the cost to try save a $500M asset up & running for another decade or more. It’s making a lot of sense. Even trying for this worth it.

NASA identifies urgent orbital decay problem just in Mid-2025 & Katalyst was selected in Sep 2025. LINK was launched in July 2026. Overall, LINK progressed from contract award to launch in 9 months, an exceptionally short schedule for such a technically demanding spacecraft. So, it’s possible to have a complex historic mission (Even if not work as expected) from A to Z in months instead of years!

Commercial Off-the-Shelf Electronics

One of the biggest enablers of rapid spacecraft development is the increasing use of COTS electronics. Modern commercial processors, FPGAs, memories, power supplies, and communication devices now offer performance that would have been unimaginable only a decade ago. Instead of spending years developing custom radiation-hardened electronics, many missions use COTS hardware together with Fault-tolerant software, Error detection and correction (EDAC), Triple Modular Redundancy (TMR), Watchdog recovery, Redundant architectures, radiation shielding, careful component selection & Mission-specific reliability analysis. Flight computers & other COTS electronics should have proper documentations like FMEA & FDIR to give confidence about EDAC & TMR techniques implemented with COTS products to make decision making much easier for project developers.

Given this, New Space doesn’t need complicated procedures to share data. We try to align our procedures with New Space requirements as much as possible. Basic information like ICD, UserGuide, Functional block diagram, PinMap, 3D step files are accessible for public in websites & other docs like FMEA, CIL, FDIR, Reliability Assessment, Radiation analysis & even schematics, FPGA design & IP cores of can be shared openly with clients to respond to New Space ecosystem requirements!