China plans to launch the Chang’e-7 lunar mission on Sunday, targeting the south pole of the moon to study volatiles and search for water ice. The mission will be carried by a Long March 5 rocket launched from the Wenchang Satellite Launch Center on Hainan Island, with a launch window expected around 8:00 p.m. Eastern time on August 23 (0000 UTC August 24). The stack consists of an orbiter, lander, rover and a hopper spacecraft. Launch is intended to place the vehicles on a translunar trajectory, with lunar orbit insertion scheduled for about five days later. The orbiter will image potential landing sites near the south pole, and a landing date has not yet been announced. The lander will attempt a precision landing within a sub‑100‑meter ellipse near the Peak Near Shackleton, selecting a site based on terrain and solar illumination. The hopper will make multiple flights into shadowed craters, using a laser‑based spectrometer to scan the surface for frost and then drill up to one meter to collect soil samples for analysis of water content and hydrogen‑isotope ratios. The sample, limited to less than one gram, will be sealed at temperatures below –20 °C, heated above 200 °C, and examined with a mass spectrometer and a laser spectrometer to quantify water and determine its origin. The orbiter, lander, rover and hopper each carry scientific instruments including seismometers, cameras, spectrometers, magnetometers and a lunar penetrating radar. Katherine Joy, a professor of lunar and planetary science at the University of Manchester, said the mission is “incredibly capable and ambitious” and could produce a “huge science return” if the lander successfully touches down near Shackleton crater. She noted that the rover and hopper both carry mass spectrometers that could characterize water in both surface and subsurface settings, and that comparing Chang’e‑7 data with upcoming missions such as NASA’s VIPER rover and ESA’s PROSPECT drill would enhance understanding of lunar volatiles and future human exploration potential. China’s Chang’e program, which began in 2007, has included orbiters, landers, rovers and sample‑return missions that demonstrated surface launch and orbital docking techniques; the nation aims to land astronauts on the moon before 2030. The Chang’e‑7 spacecraft arrived at Wenchang by air in April, and the Long March 5 Y14 rocket arrived by sea in July; final functional checks, joint testing and propellant loading are scheduled before launch.
Breakthroughs from labs, observatories, and clinical trials worth your attention.
NASA Earth data is being used to feed machine‑learning river‑flow forecasts that support water, power and safety decisions in Washington state as the 2026 snow drought continues into summer. Tacoma Power, a Washington utility, operates the Cowlitz River hydroelectric project, which generates electricity for more than 151,000 homes annually. The project relies on water stored behind Mayfield and Mossyrock dams. Upstream Tech’s HydroForecast combines weather forecasts, river measurements and NASA satellite data on snow cover and vegetation to predict river flow from hours to days ahead. Updated every two hours, the forecasts are used by reservoir managers, hydropower operators, water utilities and government agencies. Erin Urquhart, manager of NASA’s Water Resources program, said NASA’s mission is to make space observations useful on the ground and that when an American company incorporates NASA’s freely available data into forecasts that help water managers prepare for floods, generate power and steward water supplies, that is practical value to the nation. Unusually warm winter 2025‑26 caused much precipitation to fall as rain rather than snow across the western United States. Snowpack on the Cowlitz River reached 20‑50% of normal levels. January, February and March recorded the lowest Western snow cover since 2001, according to NASA MODIS records. In December 2025 a strong atmospheric river delivered a large one‑day inflow surge to the Cowlitz project, the highest recorded at the facility. Subsequent rain‑dominated conditions sent water downstream quickly, reducing the snowpack that would normally melt slowly into summer. On April 8 Washington declared a drought emergency for all watersheds, including the Cowlitz. From April through June peak daily inflow was among the lowest on record, limiting water available to replenish reservoirs for summer demand, said Saul Villarreal, senior hydro operations manager at Tacoma Power. NASA derives snow cover and vegetation greenness data from the VIIRS instrument on the Suomi‑NPP satellite, providing watershed‑scale information where ground monitors are sparse. HydroForecast is trained on years of NASA products, weather forecasts and observed river flow from hundreds of watersheds, allowing the model to recognize patterns in water movement. Dr. Laura Read, director of technical and federal partnerships for HydroForecast at Upstream Tech, said including snow and vegetation observations improves forecast skill and that NASA’s data gives reliability, global coverage and consistency that are needed. She added that short‑term models run every two hours, so those inputs must be available when needed, and any interruption would be a major issue. Tacoma Power uses HydroForecast together with stream gauges, snow stations and operator judgment. During the December storm the NASA‑informed short‑term forecast helped anticipate water volumes and manage dynamic river conditions while maintaining safety. As spring approached, the utility used the seasonal model to track weak runoff risk and kept reservoirs higher than usual to preserve water for summer. The higher storage reduced capacity to absorb another large storm, so operators continued to monitor short‑term forecasts to adjust operations if needed. Tacoma Power entered summer 2026 with reservoir levels near average despite a dry spring. The stored water supports hydropower generation, maintains required river flows for fish habitat and recreation, and provides flexibility to meet electricity demand during heat waves or outages. The Cowlitz project illustrates how NASA science supports water decisions across the West. NASA also partners with the USDA Natural Resources Conservation Service to incorporate satellite snow and groundwater data into machine‑learning water‑supply forecasts. NOAA’s Colorado Basin River Forecast Center and the Bureau of Reclamation use NASA snow data for reservoir operations in California’s San Joaquin Basin, and NASA has become a formal partner in producing the U.S. Drought Monitor since August 2026.
Gen. Michael Guetlein, head of the Golden Dome program, headlined a panel at the Theodore Roosevelt Presidential Library in Washington on Aug. 20 with Sens. Kevin Cramer (R-N.D.) and John Hoeven (R-N.D.) and Sarah Mineiro, founder of Tanagra Enterprises. Cramer said he wanted Guetlein to present information about the system to the public.
The event occurred less than three months before the midterm elections and as the Pentagon and Congress confront an unresolved question over how to finance Golden Dome in fiscal 2027. Cramer argued that current U.S. missile defenses are insufficient to address the range of threats facing the homeland and said North Dakota's military infrastructure, including the Perimeter Acquisition Radar Attack Characterization System at Cavalier Space Force Station, could support the program.
Golden Dome is the administration's proposed layered missile defense system designed to protect the United States from ballistic, hypersonic and cruise missiles, drones and other aerial threats. The architecture would integrate sensors and interceptors across land, sea, air and space through a common command-and-control network.
Guetlein described the system as a system of systems, noting that initial funding of $22.5 billion provided by Congress in 2026 has been obligated to about 90 percent. He said contracts have been awarded for radars, space-based interceptors, interceptors and sites.
In a recent test conducted about three or four weeks prior to the panel, Guetlein said the system intercepted all targets in 34 minutes, demonstrating the effectiveness of hardware purchased with the initial funding. He declined to identify the specific weapons or targets used.
Guetlein also said the program gives U.S. leaders additional options beyond conventional strike or nuclear deterrence, allowing defense of U.S. territory against large conventional attacks. He rejected criticism that the program has made little progress since the January 2025 executive order, noting that the program office was created in July 2025, leaving roughly one year of activity.
Congress provided the initial $22.5 billion through budget reconciliation, but the next funding installment remains uncertain, creating pressure on advocates such as Cramer and Hoeven to make the public case for continued support.
Moog Inc. announced an expansion of its Huntsville, Alabama facility, adding a secure Hardware-in-the-Loop (HWIL) laboratory that can test hypersonic vehicle flight control systems using physical components in a multidomain environment.
The new lab, one of the few U.S. facilities capable of this testing, supports faster development cycles, risk reduction, and mission readiness for missile and hypersonic systems for U.S. defense and space customers.
The expansion was highlighted during the Space and Missile Defense Symposium, where Moog hosted an open house and ribbon-cutting ceremony. The facility includes a custom active load stand and is intended to serve as a hub for systems engineering, integration, testing, and program development, enabling closer collaboration with customers, industry partners, and government stakeholders.
Greg Semrau, Moog Space Division Technical Director, said the HWIL demonstrates Moog’s effort to validate capabilities before costly flight testing. Julia Stoll, Moog Huntsville General Manager, said the open house offered local leadership and partners a chance to see the technologies being developed and underscored Moog’s commitment to growing its presence in the region.
The facility expands Moog’s footprint in a key U.S. defense innovation center and will support ongoing development of next-generation weapon systems.
On May 1963, astronaut L. Gordon Cooper, Jr. took 29 color photographs from the Faith 7 spacecraft during the Mercury-Atlas 9 mission, orbiting 100 miles above Earth. He reported seeing vehicles on dirt roads, smoke‑emitting trains, and the tops of houses. Vision experts questioned whether astronauts with 20‑20 vision could resolve objects smaller than about 150 feet from that altitude. Cooper said he had 20/12 vision, but doubts persisted. Other Mercury astronauts also claimed detailed views of Earth’s surface. Mental health professionals raised concerns that weightlessness might cause hallucinations, a view noted in Air Force and Space Digest. Visual‑acuity experts designed two experiments for the Gemini V and Gemini VII missions. One used a binocular‑type device in which subjects identified the orientation of rectangles of varying contrast. The other placed large white rectangles, 150 to 600 feet long, on the ground at Laredo, Texas and Carnarvon, Australia, and asked astronauts to determine orientation from orbit. The charts were called “Eye‑Q” charts. Cloud cover, glare from the spacecraft window, and orbital angles sometimes limited visibility, but during several revolutions astronauts observed portions of the Laredo site. Combined results showed that astronauts could see roads and ships, and that vision remained stable during a two‑week flight. The findings contributed to NASA’s push for dedicated Earth‑observing instruments. NASA, the U.S. Geological Survey, the Office of Naval Research, and the U.S. Department of Agriculture said that orbital images could support crop inventories, geological mapping, natural‑disaster monitoring, and ocean research. The need for such capability led to the Earth Resources Technology Satellite, later named Landsat 1, launched in 1972. Its camera and multispectral scanner provided data used together with aircraft observations to track oceans, farmland, disaster sites, and more. NASA has continued Earth observation from orbit, aircraft, and ground for six decades.
Rock West Composites will present its STRATOPultrusion product line at the 2026 Small Satellite Conference in Salt Lake City, Utah, in August. The employee‑owned advanced composites manufacturer, which operates facilities in San Diego, Salt Lake City and Baja California, partnered with DPP Pultrusion to develop the line. STRATOPultrusion includes plates, sandwich panels, solar array substrates and rods and tubes for low Earth orbit, geosynchronous and deep space missions. Lead times for the rods and tubes are four to eight weeks, and orders can be placed through the company’s website. The products meet space specifications such as low outgassing, low or zero coefficient of thermal expansion, high modulus, low creep and a wide operational temperature range. Each order includes a certificate package with dimensional inspection, material certificates, traceability and a certificate of conformance, and the items are serialized and traceable. Optional testing such as resin content analysis, short beam shear and ASTM test specimen coupons is available. Jeremy Senne, vice president of the space structures business segment, said the product is intended to reduce schedule compression and program risk for challenging applications. The company noted that the line expands an existing portfolio and that additional pultruded products are under development. For more information, Rock West Composites directs inquiries to its website, while DPP Pultrusion and the conference provide separate resources.
Proteus Space announced on September 8, 2026 that it has been selected by The Charles Stark Draper Laboratory to develop an advanced on-orbit mission under a multi-year agreement.
Proteus Space, a Los Angeles‑based dual‑use aerospace company, provides rapid, end‑to‑end access to space through custom spacecraft design, assembly, integration and test, launch brokerage, and on‑orbit operations. The Charles Stark Draper Laboratory, a non‑profit research and development organization with more than 2,600 employees across 12 sites, focuses on strategic systems, space systems, electronic systems and biotechnology systems.
Under the agreement, Proteus will deliver rapid spacecraft design, AI&T, licensing, launch integration and on‑orbit commissioning and operations. The company uses its AI‑driven digital engineering platform to generate mission‑tailored spacecraft designs and digital twins, conducting AI&T in its Los Angeles facility and managing launch and mission operations from its own mission operations centers. David Kervin, founder and CEO of Proteus Space, said the selection reflects the company’s ability to meet unique payload requirements and to operate on compressed timelines without compromising engineering standards. Aaron Blow, Vice President and General Manager of Space Systems at Draper, said Draper chose Proteus because its approach addresses mission needs that cannot be met with standard bus designs and aligns with the accelerated pace of modern space missions.
The contract details, including duration and financial terms, have not been disclosed. The mission timeline is pending further design work.
SpaceNews correspondent Debra Werner moderated a panel of experts to discuss the role of ISR in space during a session recorded in May at the defense stage of Small Sat Europe in Amsterdam. The episode is part of the Space Minds podcast, a new audio and video series from SpaceNews that covers leaders, technologies and opportunities in the space sector. The podcast releases new episodes each Thursday and is available on SpaceNews.com, YouTube, Spotify and Apple Podcasts. The discussion examined how ISR capabilities may evolve and what developments are expected in upcoming missions. The program aims to provide listeners with insight into emerging space technologies and policy considerations, with future episodes continuing to explore related topics.
Earlier today, a new variation of the Monty Hall problem was introduced as part of a puzzle series, according to the puzzle creator. The standard Monty Hall problem involves three doors, one concealing a prize and two concealing goats; after a participant selects a door, the host opens another door to reveal a goat and offers the option to switch choices. The new twist modifies the rules of the classic puzzle, though the specifics were not detailed in the excerpt.
Europe saw its first unusual summer heat in May 2026 when a heat dome produced temperatures that set records in several countries.
Europe saw its first unusual summer heat in May 2026 when a heat dome produced temperatures that set records in several countries. By mid‑August, the region experienced its fifth heat wave of the season, with temperatures exceeding 40 °C (104 °F) over a broad area and remaining high overnight. Hospitals reported increased admissions for heat‑related illnesses, and heat‑related deaths were preliminarily estimated at 10,000 excess cases across the United Kingdom, France, Germany and Belgium. High temperatures caused buckling of highways and railway tracks, leading to road closures and transport disruptions, while large wildfires ignited in regions where they were previously uncommon. The heat intensified an ongoing drought, reducing river water levels and affecting water, power and agricultural supplies. The animation of daily maximum surface air temperature from May 1 to August 19, 2026, was created by NASA’s GEOS model combined with satellite observations; areas with temperatures at or above 40 °C are shown in dark red, according to the UK Met Office. Record temperatures were set at multiple locations: London reached 35.1 °C on May 26, breaking the previous May record by 2.3 °C, according to the UK Met Office; Bordeaux recorded 42.5 °C on June 24, surpassing its June record on three consecutive days, according to Météo‑France; Slovakian authorities recorded new national daytime and nighttime highs in August, according to local meteorological services. Combined June and July temperatures in Western Europe were the highest on record, according to the Copernicus climate monitoring service. European cities face heightened risk due to limited air‑conditioning penetration—about 23 % of homes have air‑conditioning compared with 90 % in the United States—and reduced green space, factors that contributed to higher heat‑related mortality, according to an analysis by the World Health Organization and researchers at New York University. Researchers have linked heat stress to the world’s leading cause of weather‑related deaths, with approximately 489,000 deaths annually, 36 % of which occur in Europe, according to WHO data. Deborah Carr, a sociologist at Boston University, noted that nighttime temperatures as low as 26.7 °C (80 °F) can be dangerous for older adults lacking air‑conditioning, and that Southern Europe, with an aging population, faces growing exposure, according to a study that used NASA demographic and climate data. In a study published in Lancet Planetary Health, researcher Qinqin Kong and colleagues modeled future heat exposure for different age groups, concluding that many regions will exceed human heat tolerance thresholds frequently, particularly affecting older adults, according to the paper. Kong, a recipient of a NASA Earth and Space Science and Technology award, said that understanding where and when heat limits are exceeded is critical for developing targeted heat action plans, emergency preparedness measures and health system responses. The findings aim to guide policymakers in designing heat mitigation strategies as extreme temperature events are expected to become more frequent.
The European Space Agency's FLEX satellite was fuelled at Europe's Spaceport in French Guiana on 20 August, ahead of its planned launch on 15 September at 03:21 CEST.
FLEX is an Earth Explorer mission that carries a Fluorescence Imaging Spectrometer to measure the faint fluorescence emitted by plants during photosynthesis. The instrument will produce global maps of vegetation fluorescence at a spatial resolution of 300 m x 300 m, enabling scientists to assess photosynthetic activity and plant health.
The satellite arrived in French Guiana in mid-July together with the Copernicus Sentinel-3C satellite after a two-week sea voyage from Nice, France. Engineers at the Spaceport completed inspections and preparations for integration with a Vega-C launch vehicle. The fuelling operation, which involved loading 30 kg of propellant, was carried out under strict safety procedures by a specialised team. Frank de Bruin, ESA's Launch Campaign Manager for FLEX, said, "Preparations to ready our satellite for launch have been going very well here at Europe's Spaceport and I thank everyone involved. For fuelling, everyone apart from the fuelling experts left the cleanroom for safety reasons. Everything went according to plan and FLEX is now fully loaded." The next steps will involve attaching FLEX to its launcher adapter and encapsulating it within the Vega-C fairing.
FLEX is scheduled to operate for a minimum of 3.5 years, observing at least three seasonal vegetation cycles in the northern and southern hemispheres. Data will be made available to researchers after commissioning.
White House released a new space transportation policy on Thursday, its first update since 2013, and set a goal of more than 1,000 launches and reentries per year by 2030. The policy replaces the 2013 version issued under President Obama and reflects the growth of the commercial space sector. It directs the Secretary of War and NASA administrator to strengthen the domestic space transportation industrial base, facilitate new launch and reentry sites, and integrate space traffic into air traffic control modernization. The policy calls for rapid launch capability within 48 hours and for an evaluation of regulatory, programmatic, operational and technological barriers to resilient access. NASA is tasked with prioritizing commercial services for lunar, robotic and human Mars missions and ensuring availability of commercial crew and cargo services. U.S. government payloads must be launched on U.S. rockets unless an exemption applies, and foreign launch requests will be reviewed case by case, considering foreign direct investment in U.S. space markets. The Secretaries of State and Commerce will update export policies to support U.S. space transportation capabilities abroad. The plan shifts the focus to commercial space as the centerpiece of national strategy, aiming for a tenfold increase over the 176 orbital launch attempts recorded in 2025.
California startup Elve has qualified its 100-watt millimeter-wave traveling wave tube amplifier family for spaceflight, a milestone achieved with U.S. Space Force Small Business Innovation Research funding. Elve, founded in 2020 by CEO Diana Gamzina, developed the amplifiers to lower system cost and increase bandwidth for satellite communications. The qualification confirms that the hardware meets the environmental conditions of space. The 100-watt traveling wave tube amplifiers operate at millimeter-wave frequencies, providing higher bandwidth and supporting high-data-rate links for satellite constellations. They also enable faster data delivery from imaging satellites to ground stations. Gamzina said the qualification applies to a family of 100-watt products and that an operational spacecraft demonstration is planned within a year. In-Q-Tel vice president of technology Abi Sivananathan said the milestone positions Elve’s amplifiers for rapid, proliferated missions critical to national security. Elve chief product officer Jennifer Salmon said the validation shows the hardware can operate in harsh space environments and supports scalable millimeter-wave power for modern architectures. Elve intends to complete an on-orbit demonstration later this year, which could expand high-capacity connectivity for space-based systems.
The European Space Agency confirmed that it is no longer considering the Ariane 6 Block 3 evolution, saying there is “no programme need or justification” for the upgrade at this time. The decision follows a study that indicated Ariane 6 Block 2 will be the rocket’s final major version, which required a rework of a planned Enceladus mission that assumed Block 3 capabilities. An ESA spokesperson said the near‑term roadmap includes the already introduced P160C boosters and a lighter Vulcain Aft Bay to increase performance and competitiveness, with the Astris orbital transfer vehicle expected around 2029. The agency also noted that the ICARUS lightweight upper stage was not approved at the November 2025 Ministerial Council (CM25), with funding for the Ariane 6 adaptation envelope falling short by €158.46 million. ESA added that Ariane 6 may continue to evolve if new mission requirements arise and that human spaceflight is being examined as part of developing a future European crewed launch capability.
SpaceX plans to deploy a constellation of about one million AI‑focused satellites in low‑Earth orbit, a scheme that would result in the loss of roughly 200,000 satellites each year, according to an FCC filing and analysis of proposed hardware. The proposal involves using satellites based on Nvidia A100 GPU racks, which have an expected operational life of five years. The plan would cause substantial material loss as satellites are either deorbited to burn up or moved to a disposal orbit. The FCC filing indicates about 40,000 satellites would reenter the atmosphere annually, while the remainder would be placed in a distant disposal orbit. Assuming each satellite contains 72 A100 GPUs, the annual export of materials would include approximately 1,000 tons of copper, 170 kilograms of gold, almost 2 tons of silver, more than 20 tons each of bismuth and titanium, over 2 tons of palladium and 76 kilograms of thallium. These figures represent about one percent of global annual palladium and thallium production. The article notes that aluminum and titanium from the satellites could be sourced from the Moon, as suggested in an SEC filing, but launching a lunar manufacturing base would add significant cost and complexity. Environmental concerns include potential ozone depletion from aluminum vaporization and the difficulty of recycling materials that are dispersed globally after reentry. The analysis also compares the mass of material lost to the size of asteroids needed to recover equivalent amounts, indicating that retrieving the copper, silver and tin would require asteroids 140–300 meters in diameter, while platinum and cobalt could be sourced from much smaller bodies. The piece raises questions about whether future space projects will undergo environmental reviews that assess the mass of materials removed from the Earth system, and whether existing legal frameworks for space mineral extraction address these concerns.
Muon Space announced Aug. 20 that it had closed a $250 million Series C round, led by Eclipse Capital, bringing its total equity funding to more than $386 million and raising its valuation to an estimated $1.5 billion.
The five‑year‑old company, based in Mountain View, California, has deployed 11 satellites to date and has more than 50 satellites in development for customers, including 13 slated for launch within the next year. It operates a manufacturing facility in San Jose that is expected to produce up to 500 satellites annually by 2027, a tenfold increase over its prior capacity.
Muon plans to launch its first 500‑kilogram MuSat XL spacecraft for the Seattle‑based Hubble Network in 2025, followed by the Condor‑Ultra platform, a Starship‑class satellite offering 20 kilowatts of power and over 18 square meters of payload area, with deployment targeted for 2028. The firm says it maintains in‑house production of 95% of spacecraft components under its Mission Foundry model, integrating design, hardware, software and operations.
The funding comes after similar rounds for fellow California satellite startups Apex Space and K2, which raised combined financing valued at $2.3 billion and $6.8 billion, respectively. Muon’s investors include Galvanize, Google, Salesforce Ventures, and other venture firms.
The company says the new capital will support vertical integration efforts, including the 2023 acquisition of propulsion startup Starlight Engines, and positions it to expand across multiple high‑performance constellations.
SpaceX announced a scrub of its planned Starlink 6‑61 mission, originally set for liftoff on Oct. 22 from Space Launch Complex 40 at Cape Canaveral Space Force Station. The Falcon 9 first‑stage booster B1078, which has completed 30 flights, is scheduled to carry 29 Starlink satellites to low Earth orbit as the 75th Starlink launch of the year. The countdown was halted about 30 seconds before the 11:38 a.m. EDT launch after an abort call, and SpaceX did not provide a reason before ending the broadcast. Weather forecasts indicated an 80 percent chance of favorable conditions at the start of the window, decreasing to 40 percent later, with isolated showers and storms possible. The booster is expected to land on the droneship A Shortfall of Gravitas roughly 8.5 minutes after liftoff, which would represent the 164th landing for the vessel and the 652nd Falcon booster landing for SpaceX. A launch attempt on Friday, Aug. 21, remains possible if weather improves; otherwise the mission date will be rescheduled.
A jacket featuring Artemis I and II mission patches and other NASA insignia hung on a chair in the Rocco A. Petrone Launch Control Center at NASA’s Kennedy Space Center on Aug. 6, 2026, during a terminal countdown simulation for the Artemis III mission. The Exploration Ground Systems team conducted the simulation, which covers the final five hours of the launch countdown and includes the terminal count, the remaining 10 minutes. Artemis III is planned to test critical systems in low Earth orbit that will support future lunar landings, with the first mission of that series scheduled for Artemis IV. The simulation is part of ongoing preparations for Artemis III, which remains scheduled for later this year pending further review.
Today's puzzle presents a new variation of the Monty Hall problem, a probability puzzle originally formulated in the 1990s. The revised version changes the number of doors or the order of events, requiring participants to choose between remaining options after an initial selection is revealed. Gemini described the puzzle as the most discussed recreational mathematics problem. The challenge invites solvers to apply probability principles to determine the best approach.
SpaceWERX, the Space Force’s innovation arm, announced on Aug. 20 that it chose 11 companies to receive Strategic Funding Increase (STRATFI) agreements aimed at moving space technologies from prototype to operational status. The agreements are expected to generate $562.5 million in total, including about $245 million in government funding.
The STRATFI program, which can award up to $60 million per company, requires contributions from private investors and other partners in addition to government funds. It targets firms that have completed Phase 2 Small Business Innovation Research or Small Business Technology Transfer projects and is intended to align startups with operational customers and external capital before the government makes larger procurement commitments.
The selected companies are Agile Space Industries, Antares Nuclear, EO Solutions, Hydrosat, Kall Morris, Method Security, Muon Space, Scout Space, Sedaro, Star Catcher Industries and ThinkOrbital. Each will work with SpaceWERX and Space Force representatives to negotiate terms, set milestones and demonstrate that their technologies meet military requirements.
“STRATFI is a critical tool for the Space Force to signal demand to industry and private investors,” SpaceWERX Director Arthur Grijalva said in a statement.
Agile Space Industries develops chemical propulsion systems and high‑thrust thrusters for satellites. Antares Nuclear is creating factory‑produced nuclear microreactors for defense and commercial use. EO Solutions builds space‑domain‑awareness sensors, directed‑energy technologies and optical systems. Hydrosat operates satellites with thermal‑infrared sensors for agriculture, water management, defense and intelligence. Kall Morris develops spacecraft and robotic systems for orbital logistics and debris removal. Method Security provides cybersecurity software for government and critical systems. Muon Space designs satellite constellations for commercial and defense customers, including environmental monitoring. Scout Space creates spacecraft‑mounted optical sensors and autonomous software for detecting and characterizing orbiting objects. Sedaro offers digital engineering and simulation tools for satellite and military system modeling. Star Catcher Industries is developing an orbital energy network that uses optical power beaming to supply additional energy to satellites. ThinkOrbital focuses on in‑orbit inspection, servicing and construction, including robotic welding and X‑ray imaging.
The agreements are not final contract awards; companies will now negotiate details and demonstrate capabilities, with the Space Force evaluating progress toward larger‑scale adoption.
The White House released a new space transportation policy on August 20 that sets a goal of supporting at least 1,000 launches and reentries per year from U.S. facilities by 2030. The National Space Transportation Policy, updated for the first time since 2013, notes that fewer than 200 launches were conducted by U.S. entities in 2025.
The policy emphasizes launch infrastructure over launch vehicles. It directs the Defense Department and NASA, which operate federal launch ranges, to regularly evaluate opportunities to improve launch and reentry infrastructure and to consider co‑development with the private sector. It also calls for the Pentagon, NASA and the Department of Transportation to work with state and local officials to identify potential sites for additional launch facilities and to improve existing infrastructure.
Within 180 days, the agencies must develop scheduling criteria for federal launch facilities to maximize use for commercial and government operations, integrate launches into the National Airspace System, and designate priority airspace for critical launch corridors. The policy also directs the Department of the Interior to identify federal lands within 90 days that could serve as an additional federal reentry site, and to develop safety criteria and a plan that allows commercial access to that site.
Other provisions include a directive for the Office of Science and Technology Policy to create a space transportation industrial base strategy within 180 days, a review of export policies and programs in 120 days and every two years thereafter, and language allowing foreign launch providers to use U.S. facilities. The policy reiterates that the U.S. government will launch its payloads on U.S. vehicles unless an international cooperative agreement provides launches on a no‑exchange‑of‑funds basis, and it encourages the use of commercial launch services.
Forward‑looking elements direct NASA to develop a lunar logistics architecture and consider commercial architectures for crewed missions to the Moon and Mars, while the Pentagon is asked to examine in‑space transportation services such as satellite servicing and to explore rapid, responsive launch architectures. The White House’s earlier executive order on commercial space had called for substantially increasing launch cadence by 2030, leading the FAA to publish a proposed rule on July 30 that would exempt launch and spaceport licensing from 13 federal environmental laws, with comments accepted through the end of August.
The policy builds on a December national space policy that also set a goal of increasing launch and reentry cadence through new or upgraded facilities and efficiency reforms.
Rocket Lab launched an Electron rocket from Launch Complex 1 in New Zealand on August 20, carrying the QPS-SAR-18 satellite for the Japanese radar‑imaging company iQPS.
The mission, named “The Lightning God Defends,” placed the satellite into an orbit of 575 kilometers altitude with a 42‑degree inclination. The launch occurred at 9:04 a.m. Eastern time. iQPS confirmed contact with the satellite about 40 minutes after separation and said the spacecraft was operating as expected. This flight marked the ninth Electron launch for iQPS and the second consecutive mission for the company, following a launch on August 6.
The payload separated from the rocket’s kick stage roughly 50 minutes after liftoff. Rocket Lab has conducted 14 Electron launches in 2024, including three suborbital HASTE flights, and has completed 93 total Electron missions. The company said it expects to surpass its previous annual record of 21 Electron and HASTE launches.
Peter Beck, chief executive of Rocket Lab, said during an August 10 earnings call that Electron and HASTE continue to lead the small‑launch market and that the company is on track to beat last year’s launch tally. CFO Adam Spice noted that average selling prices for Electron have risen significantly over time, though specific figures have not been disclosed.
iQPS plans to operate a constellation of synthetic aperture radar satellites, targeting 24 satellites by May 2028 and 26 by 2030. The repeated use of Electron for these launches reflects ongoing demand for its small‑payload capability, and the company has secured additional Electron launch contracts. The success of this mission supports Rocket Lab’s broader strategy of building experience that underpins development of its larger Neutron rocket, which has not yet flown.
NASA has selected four university teams to support aeronautics research through its University Leadership Initiative, providing about $30 million in multiyear funding. The ninth round of awards aligns with NASA's goals to advance supersonic flight, AI-enabled avionics, low-noise urban air mobility, and improved aircraft design methods. The projects are: Adaptive Supersonic Combined Cycle Engine for Next-generation Transportation, led by Terrence Meyer, will develop a fuel-flexible propulsion system capable of Mach 4+ supersonic cruise using a turbofan for subsonic phases and a ramjet for supersonic phases; Safety Across Lifecycle of Learning-enabled Avionics Systems: Safety Data Flywheel, led by Somil Bansal, will create a machine-learning-based avionics system that maintains safety throughout operation to enable AI integration in the national airspace; Noise-optimal Trajectory Planning for Urban Air Mobility Operations, Including Ambient Noise, led by Juan Alonso, will develop a high-fidelity simulation framework to design low-noise flight paths for urban aircraft; and Certification Driven Aircraft Design Under Uncertainty, led by Darshan Sarojini, will apply model-based systems engineering and uncertainty quantification to improve design efficiency and reduce costly redesigns. The initiative, part of NASA's Research and Technology Mission Directorate, aims to develop a skilled aeronautics workforce while delivering research findings that could shape future aviation technology.
Portal Space Systems has secured a Falcon 9 launch in 2028 for its Supernova spacecraft and will offer excess capacity for rideshare payloads. Portal announced on Aug. 20 that it signed a contract with SpaceX for the launch.
The mission, named Motus Via Sol, will test the Supernova spacecraft, which uses solar thermal propulsion and provides up to 6 kilometers per second of delta‑v. Portal is partnering with Maverick Space Systems, a launch aggregator, to market the rideshare capacity. The companies did not disclose the amount of available capacity. The vehicle can carry ESPA‑class satellites and larger “cake‑topper” satellites.
Some satellite operators seek rides to orbit because SpaceX may discontinue its rideshare program beyond late 2028 or early 2029. Vidur Kaushish, chief operating officer of Maverick, said the mission offers an opportunity to reduce launch costs for secondary payloads. Jeff Thornburg, chief executive of Portal, said the company was among those finding it difficult to secure launch services. He noted that launch capacity may become limited, creating a need for alternative options. Thornburg said the primary objective of the mission is to validate the Supernova spacecraft. The spacecraft’s high maneuverability will allow orbital adjustments after launch to accommodate rideshare payloads. Thornburg emphasized that the mission’s top priority remains mission success for investors and customers.
In March, Portal flew Mini‑Nova, a hosted payload on Momentus’s Vigoride‑7, testing avionics for future spacecraft. Thornburg said the Mini‑Nova tests were successful. The company may extend the tests for six additional months to collect more data. Portal’s first satellite, Starburst‑1, is scheduled for launch on SpaceX’s Bandwagon‑5 rideshare mission in October. The company raised $50 million in April and is expanding its workforce to 80–100 employees by year‑end. Thornburg said the U.S. military’s interest in sustained maneuverability in space supports the relevance of Starburst and Supernova. He added that the agreement with Maverick is intended to be long‑term, with potential rideshare opportunities on future Supernova launches. Thornburg, a former SpaceX engineer who helped develop the Raptor engine, declined to comment on the long‑term outlook for SpaceX’s rideshare program or Falcon 9. Portal plans to consider future launches on Starship powered by Raptor engines.
LatConnect 60 (LC60) has signed a commercial agreement with Transcelestial for an optical communications terminal on its SWIRSAT-1 mission and access to Transcelestial’s optical ground station network for space-to-ground data transport, the companies said on 20 August 2026 in statements released from San Francisco and Perth.
The agreement covers a terminal capable of up to 10 Gbps data rates and a ground network that currently operates two stations and plans to add five to six stations by the end of 2026, enabling the transfer of imagery from the spacecraft to LC60’s processing and delivery system after commissioning.
The deal allows satellite operators to obtain the flight terminal and connectivity as a single service rather than developing separate optical ground infrastructure. It is the second Australian mission to use Transcelestial’s optical downlink after a similar integration with Gilmour Space. A Transcelestial terminal is already in orbit on the 6G StarLab mission, and the company operates two ground stations in Singapore and Spain with additional sites planned.
Dr. Mohammad Danesh, co‑founder and CTO of Transcelestial, said the service provides a high‑capacity optical path without spectrum licensing, addressing the bottleneck of RF downlink capacity and cost per gigabyte for Earth‑observation operators. Venkat Pillay, founder and CEO of LatConnect 60, noted that the mission’s value depends on moving high‑volume short‑wave infrared imagery quickly to end users.
A typical X‑band small‑satellite link transmits about 100 Mbps, moving roughly 5 GB per seven‑minute pass, whereas the optical service can deliver 1 Gbps (about 50 GB) or 10 Gbps (about 500 GB) in the same interval. The narrow, directional optical beam is less susceptible to interception and jamming, and Transcelestial’s post‑quantum cryptographic implementation adds quantum‑resistant protection at the application layer.
Network resilience is achieved through multiple ground stations; weather‑related outages at one location can be mitigated by routing through another, and adaptive data rates with forward error correction maintain throughput as orbital geometry improves. The same ground network can support the planned 18‑satellite constellation without requiring new infrastructure.
Transcelestial designs laser communications hardware and operates a ground network that includes satellite‑to‑ground downlinks, inter‑satellite links, and terrestrial point‑to‑point links, with active stations in Singapore and Spain and production of more than 100 terminals per month. LatConnect 60 is an Australian AI and Earth‑observation company that owns its AI models and satellite technology and plans to launch two SWIRSAT satellites in the first quarter of 2027 as part of an 18‑satellite constellation by 2029, with support from the Australian Space Agency and the Government of Western Australia.
The contract represents a step toward more efficient space‑based data delivery for Earth‑observation missions, though the full constellation’s operational timeline remains to be confirmed.
NASA announced the SmallSat 2026 conference schedule, scheduled for August 24-26, 2026, in the exhibit hall at booths 635, 835, 641 and 940. The three-day program features keynote sessions, panels, and technical presentations on smallsat development, launch options, and scientific applications. On Monday, August 24, the agenda opened at 9:00 a.m. with a welcome and the "Smallsats by the Numbers: 2026" presentation, followed by sessions on supply chain observations, technology shortfall, camera and early science observations, and flight opportunities with the Hosted Orbital Ecosystem. On Tuesday, August 25, a panel on solicitations and technology transfer ran from 9:45 to 10:45 a.m., and the afternoon session from 3:15 to 4:15 p.m. covered pioneers, science as a service needs, and exploration methods. On Wednesday, August 26, the morning session from 9:45 to 10:45 a.m. included discussions on rideshare and dedicated launch options, while the afternoon highlighted biological and physical sciences payload concepts, SWIFT reboost highlights, mission highlights, and upcoming missions such as TRACERS, SunRISE, CAPSTONE 02, R5 Spacecraft Series, DiskSat, and Mission GPDM. NASA said the conference will provide participants with direct access to mission design resources and an opportunity to align smallsat projects with agency priorities.
Europe's Spaceport covers 700 km2 of terrain near the town of Kourou on the Atlantic coast of French Guiana, with launch and administrative facilities occupying less than 10 percent of the area. The site is flanked by equatorial forest on two sides. ESA uses the complex for launches of Vega‑C and Ariane 6 rockets.