Starship May Be Recovered? Starliner Might Fly Again?

Space activity remained at a high level during the final weeks of July, with multiple orbital launches, major spacecraft milestones, new commercial developments, and continued progress across several international space programs.

The period included missions from the United States, India, China, and Russia, while companies and government agencies continued work on satellite communications, reusable launch systems, lunar exploration, and spacecraft servicing.

One of the most closely watched developments involved SpaceX and its latest Starship flight. Before that mission, however, several launch providers completed a series of successful operations that highlighted the increasing pace of global access to space.

SpaceX completed two Starlink missions from Vandenberg during the period, with launches taking place on July 21 and July 25.

According to the mission timeline, the earlier launch attracted attention because the Falcon 9 engines ignited before shutting down almost immediately, resulting in an on-pad abort.

The launch was later completed successfully after the issue was addressed. The event marked another example of an automated safety system stopping a launch before liftoff.

Similar engine shutdown events had recently occurred during launch attempts involving other providers, demonstrating that modern launch systems are designed to halt operations whenever onboard computers detect conditions outside acceptable limits.

Earlier in the month, another Falcon 9 mission lifted off from Vandenberg carrying 21 satellites for the Space Development Agency.

The spacecraft entered a polar orbit as part of the Transport Layer Tranche 1 program.

According to mission information, this launch represented the third deployment within that series after earlier launches during 2025.

The satellite network is designed to improve global communications through laser links between spacecraft. Instead of relying entirely on ground stations and conventional communications infrastructure, the satellites can exchange information directly while in orbit.

Officials have described the system as part of a broader effort to improve secure and rapid data transmission across long distances.

India also reached an important milestone during the reporting period with the first successful orbital mission by Skyroot Aerospace.

The company launched its Vikram 1 rocket from the Satish Dhawan Space Centre, completing its first attempt at placing payloads into orbit.

Skyroot Aerospace was established approximately eight years ago as a private launch company. Before Vikram 1, the company had conducted only a suborbital demonstration flight.

The successful orbital mission represented a significant step for India’s commercial launch industry. The four-stage launch vehicle used three solid propulsion stages followed by a liquid-fueled upper stage.

During the ascent, observers noted what appeared to be an unusual moment during stage separation.

However, the mission continued normally, and the payloads reached their intended orbit. The successful mission placed Skyroot Aerospace among a growing group of private launch providers capable of reaching orbit with independently developed launch vehicles.

Russia also continued its launch schedule with a Soyuz 2.1b mission from the Plesetsk Cosmodrome.

The rocket carried communications satellites identified as Razvit spacecraft into a sun synchronous orbit. According to publicly available mission information, the satellites are expected to support communications services and have been compared with other developing broadband constellations, although the deployment pace remains considerably smaller than some larger international networks.

On July 21, SpaceX completed another Falcon 9 mission from Cape Canaveral carrying Northrop Grumman’s Mission Robotic Vehicle toward geostationary orbit.

The mission was notable because the Falcon 9 first stage was intentionally expended instead of returning for recovery.

The booster had already completed more than thirty previous flights before being retired during this mission.

Unlike many recent commercial launches focused on communications satellites, this spacecraft is designed to extend the operational life of satellites already in orbit.

According to mission plans, the vehicle carries multiple Mission Extension Pods. Robotic systems aboard the spacecraft will attach these devices to aging satellites.

Once connected, each extension pod can assume station keeping and attitude control responsibilities, allowing satellites that have exhausted their own fuel supplies to continue operating.

Officials have stated that two of the extension systems have already been assigned to commercial customers, including satellites operated by Intelsat and Optus.

The approach differs from earlier servicing concepts because each extension pod remains attached to the customer spacecraft while the servicing vehicle proceeds to another assignment.

Supporters of the program believe this design increases efficiency by allowing a single servicing spacecraft to assist multiple satellites during one mission.

China also continued an active launch schedule during the same period. A Gravity 1 rocket launched from a sea platform in the Yellow Sea carrying multiple satellites, including spacecraft associated with the Huantian constellation and several Earth observation payloads.

Additional missions followed with a Long March 3B launching a Tianlian communications satellite into geostationary orbit and a Kinetica 1 rocket placing several smaller spacecraft into orbit.

Chinese officials confirmed that the Tianlian satellite successfully reached its planned orbit. Independent observers also noted reports that the launch vehicle may have encountered lightning during ascent, although no operational problems were reported following orbital insertion.

The Tianlian system serves as China’s space based communications relay network. Similar relay satellites allow spacecraft in low Earth orbit, including crewed missions, to maintain communications even when they are not directly above ground stations.

Another Long March 7A mission later carried an additional Tianlian satellite into orbit, continuing expansion of the communications network.

The most closely watched event during the reporting period remained SpaceX Flight 13 of the Starship program.

The mission followed an earlier launch attempt that ended with an automatic shutdown during engine ignition.

During that attempt, several engines did not reach full operating condition before liftoff, prompting the launch control system to cancel the flight.

SpaceX later stated that engineers believed ice inside part of the propulsion system may have contributed to the issue.

Components were replaced before another launch attempt was scheduled. The second launch proceeded successfully. During ascent, Starship completed stage separation using updated flight procedures intended to improve vehicle stability.

Observers noted improved camera coverage throughout the event, providing detailed views of booster separation and upper stage operations.

According to available mission data, the Super Heavy booster completed its planned flip maneuver before beginning its return toward the Gulf of Mexico.

However, during the landing sequence, not all engines appeared to restart as intended. Telemetry indicated that the booster impacted the water instead of completing a controlled landing.

Although the booster was lost, the upper stage continued its mission successfully. Starship reached orbit and later deployed simulated Starlink payloads as planned.

Mission controllers also completed an in-space engine restart, an important objective for future deep space operations.

Following completion of orbital objectives, the spacecraft performed a controlled atmospheric reentry before descending into the Indian Ocean.

Unlike previous flights that ended with significant structural breakup, Starship remained largely intact after reaching the ocean surface.

Images released after the landing showed the vehicle floating for an extended period. SpaceX founder Elon Musk later stated that recovery teams would attempt to tow the vehicle back to shore if sea conditions allowed.

The company has not yet confirmed the full condition of the spacecraft following its extended time in the ocean, but engineers are expected to evaluate any recovered hardware for future improvements.

According to Musk, if flight data confirms that major systems performed as expected, a future mission could include an attempt to catch the Starship upper stage using the launch tower, similar to recovery concepts previously demonstrated with the Super Heavy booster.

Such a recovery would represent another major milestone in the company’s long-term goal of creating a fully reusable launch system capable of supporting frequent flights to Earth orbit, the Moon, and eventually Mars.

NASA and Roscosmos also completed another important milestone during the reporting period with the return of the Soyuz MS-28 spacecraft.

The capsule landed after approximately eight months in orbit, bringing its crew safely back to Earth following a long-duration mission aboard the International Space Station.

According to mission information, the spacecraft launched in late November of the previous year and completed a mission lasting roughly 240 days.

Russian mission planners have gradually extended Soyuz crew rotations in recent years, allowing longer operational periods before spacecraft replacement.

With Soyuz MS-28 safely on the ground, Soyuz MS-29 remained attached to the International Space Station as the current crew transport vehicle.

Images released after the landing showed the departing spacecraft moving away from the orbital laboratory as normal station operations continued.

Japan also released new information regarding reusable launch vehicle research. The country’s RV-X experimental vehicle, developed through cooperation between JAXA, CNES, and DLR, continues to serve as a technology demonstrator for future reusable launch systems.

The compact test vehicle is designed to perform vertical takeoff and vertical landing flights while gathering engineering data on guidance, propulsion, and recovery systems.

Officials have indicated that future flights will gradually increase altitude and flight duration as development progresses.

Meanwhile, analysts continued monitoring an unusual Chinese spacecraft launched earlier in the year. Public tracking data indicates that the satellite remains in a highly elliptical orbit resembling a Molniya trajectory rather than moving into a traditional geostationary orbit.

According to independent orbital observations, the spacecraft repeatedly passes above the geostationary satellite belt, allowing extended observation periods over different sections of the orbit.

Analysts have suggested that the mission may involve monitoring spacecraft operating in geostationary orbit, although no official mission description has confirmed that purpose.

NASA also announced that SpaceX had been selected to provide laser communication capabilities for the Artemis III mission.

The upgraded communications system is expected to support higher bandwidth transmissions than conventional radio systems, allowing significantly improved data transfer between lunar spacecraft and Earth.

Mission planners expect the technology to support high-quality video transmission and faster scientific data delivery during future Artemis missions.

Another NASA mission also released new scientific results. During its gravity assist flyby of Mars, the Psyche spacecraft collected valuable engineering and scientific information while testing multiple onboard instruments.

Mission teams processed the data into detailed imagery and animations showing the spacecraft’s close approach to the planet.

Engineers reported that the flyby provided an opportunity to verify the performance of cameras, magnetometers, gamma ray detectors, and neutron spectrometers before the spacecraft continues toward the Psyche asteroid.

The mission remains on course to study the metal-rich asteroid later in the decade, with scientists expecting the destination to provide important information about planetary formation and the internal structure of early worlds.

Several additional developments involving launch providers also emerged during the reporting period. Rocket Factory Augsburg continued preparing its launch vehicle for testing at SaxaVord Spaceport in the Shetland Islands.

Company officials assembled the rocket in preparation for a planned static fire test before identifying a technical issue that required the vehicle to be disassembled again.

Although the company did not disclose the specific nature of the problem, officials stated that additional work would be completed before testing resumes.

Northrop Grumman also provided updates regarding several space programs during a financial briefing. Company representatives stated that work continues on the GEM 63XL solid rocket boosters required for future Vulcan launches.

According to the company, the boosters are not expected to be available before the end of the year, delaying some planned Vulcan missions until additional testing and certification are completed.

The company also confirmed continued work on the HALO habitation module originally intended for NASA’s Gateway lunar program.

Although NASA has revised aspects of its long-term lunar exploration plans, engineers continue evaluating the pressure module and addressing previously identified corrosion concerns.

Officials stated that the hardware could potentially support future lunar infrastructure depending on evolving mission requirements.

Boeing also provided an update regarding the Starliner spacecraft. Company representatives stated that work continues toward certification of a future cargo mission, although no confirmed launch date has been announced.

Boeing indicated that it hopes to complete the required preparations before the end of the year, while NASA has previously suggested that additional time may be required before the spacecraft returns to operational service.

During the annual AirVenture gathering in Oshkosh, NASA Administrator Jared Isaacman participated in aviation activities alongside several demonstration aircraft.

The event included displays featuring research aircraft associated with NASA programs as well as presentations highlighting ongoing aerospace development.

The gathering also included exhibits from NASA Ames Research Center, where visitors viewed engineering hardware related to the Artemis program.

Among the displays were examples of heat shield materials used during Artemis I and Artemis II testing.

Engineers demonstrated the differences between the two designs, illustrating improvements made after analysis of the first mission.

Following the public event, invited participants toured NASA Ames facilities, where researchers demonstrated ongoing work involving thermal protection systems and spacecraft materials.

Additional presentations focused on future lunar exploration and continued Artemis development. During a separate discussion, Artemis II astronaut Victor Glover addressed future lunar exploration priorities.

According to his remarks, early missions may benefit from focusing on more accessible landing regions before expanding operations into the more rugged terrain near the lunar south pole.

Glover noted that experience gained from those earlier missions could support long-term exploration goals while reducing operational complexity.

Europe also faced several challenges during the reporting period. Wildfires in Spain approached the Madrid Deep Space Communications Complex, one of the key facilities supporting NASA’s Deep Space Network.

Emergency measures were implemented as the fires advanced near the site. After conditions improved, technicians inspected the equipment and confirmed that normal operations had resumed without significant damage to communications systems.

In the United Kingdom, concerns emerged regarding the future funding of the historic Jodrell Bank Observatory.

Current funding plans could result in reduced operations beginning in 2028 unless alternative financial support becomes available.

The observatory has played an important role in radio astronomy for decades, and scientists have expressed concern about the potential impact on future research programs.

Additional funding reductions could also affect other astronomical facilities involved in international observation projects, including telescopes supporting very long baseline interferometry and black hole imaging research.

Rocket Lab announced plans to expand launch operations by establishing a new launch site in Alaska.

According to the agreement, the facility will support multiple suborbital missions conducted in cooperation with the United States Space Force.

The additional launch location will complement Rocket Lab’s existing facilities in New Zealand and Virginia while expanding operational flexibility for specialized missions.

Blue Origin also continued recovery and repair work following earlier launch infrastructure damage. Company teams removed equipment from the launch complex for inspection and refurbishment while preparing upgrades that will support future New Glenn operations.

Work also continued on the access tower and associated ground systems. Separately, Blue Origin reached an agreement with NASA to use the historic B-2 test stand at the Stennis Space Center for future upper stage engine testing.

The facility has supported several major launch programs over the decades, including Saturn V, Space Shuttle, Delta IV, and the Space Launch System.

Company officials plan to adapt the site for testing New Glenn upper stage hardware. Another commercial mission encountered technical challenges after launch.

The Lynx spacecraft, developed by Catalyst, experienced attitude control problems while preparing for its planned rendezvous with the Swift Observatory.

According to company updates, two of the spacecraft’s reaction wheels are not currently operating as expected, while portions of the cold gas control system have also experienced reduced performance.

Engineers reported that the spacecraft continues generating sufficient electrical power while recovery efforts remain underway.

Teams are working to stabilize the vehicle and restore full control before continuing mission objectives.

Company representatives acknowledged that first-generation spacecraft frequently encounter unexpected engineering challenges but stated that efforts continue to recover the mission.

A newly introduced commercial concept also attracted attention during the reporting period. Hop Aero presented an autonomous cargo rocket designed to transport payloads weighing approximately 250 kilograms over distances approaching 450 miles within about 15 minutes.

According to company information, the system is designed to launch from a standard shipping container before delivering cargo to remote locations requiring rapid transportation.

The concept is intended for regional logistics rather than worldwide cargo transport. Company representatives described the vehicle as a specialized solution for missions requiring very rapid delivery across moderate distances.

As July concluded, attention shifted toward several upcoming milestones expected during AuguSt. Recovery teams continued monitoring the Starship vehicle floating in the Indian Ocean, with towing operations planned if ocean conditions remain favorable.

Engineers are expected to inspect the recovered hardware to improve future missions and evaluate the possibility of attempting a launch tower recovery during a later Starship flight.

Observers also prepared for an unusual lunar event expected in early August involving the planned impact of a Falcon 9 second stage on the Moon.

Although the impact was not intentionally designed as a scientific experiment, astronomers planned to monitor the event in the hope of collecting observational data.

Together, these developments reflected another active period for the international space industry as government agencies, commercial companies, and research organizations continued advancing launch technology, satellite services, lunar exploration, and deep space missions.