Korea AeroSpace Administration Administrator Oh Tae-seok speaks during a briefing by the National Space Council, chaired by President Lee Jae Myung, in Jinju on Friday. Pool Photo by Yonhap
South Korea aims to establish a low-Earth orbit satellite communications network composed of hundreds of satellites by 2035 and accelerate the country’s first lunar landing to 2030, the state-run space agency said Friday.
The Korea AeroSpace Administration (KASA) unveiled the plan during a public briefing on advanced industry development held in the southeastern city of Jinju. The strategy was approved earlier in the day by the National Space Council, chaired by President Lee Jae Myung.
KASA said building the network will help strengthen South Korea’s domestic satellite and launch vehicle development and manufacturing ecosystem as the country pushes to build its own version of SpaceX‘s Starlink network.
“Leading space nations are making all-out efforts to build low-Earth orbit satellite communications networks, which are critical infrastructure for safeguarding national security and communications sovereignty, as well as a strategic foundation for the 6G era,” KASA Administrator Oh Tae-seok said.
The agency said it plans to launch between 128 and 512 satellites, which cost at least 4 trillion won (US$2.62 billion) and up to 13.2 trillion won every five years.
The government also said it plans to set up a special purpose company (SPC) along with private firms for the sale of information amassed through satellites.
The SPC, to be more than 70 percent owned by private firms, is expected to generate over $1.7 billion in sales by 2034, the agency said.
KASA also aims to bring forward South Korea’s first lunar landing to 2030, two years ahead of schedule.
Instead of waiting for the next-generation launch vehicle, which is scheduled to debut in 2032, the government plans to send a privately developed small lunar lander aboard the three-stage Nuri rocket in 2030.
Oh also said South Korea plans to launch a lunar communications orbiter in 2029 and an Earth-moon scientific exploration probe in 2031 to lay the groundwork for an expanded lunar exploration program.
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The U.S. Space Force has awarded SpaceX a $4.16B deal to help accelerate work on what could be a game-changing space-based air moving-target indicator (AMTI) sensor network. The service says it now hopes to have an “early capability” in orbit by 2028, years ahead of the timelines officials have put forward in the past.
Aircraft like the E-7 Wedgetail seen here have historically been critical providers of AMTI capability. Australian Department of Defense
“The long-standing method of military airborne platforms to track moving targets faces continued challenges as adversaries develop increasingly sophisticated anti-access/area-denial (A2/AD) systems,” the Space Force said in its press release about the new deal with SpaceX today. “To compliment [sic; complement] traditional airborne sensing, the requirement for a layered, highly resilient tracking architecture is evident. SB-AMTI aims to enhance the Space Force’s capabilities to the Joint Force through the establishment of a persistent, global capability to sense and track airborne targets from space.”
The Space Force has described the $4.16 billion deal with SpaceX for the Space-Based Airborne Moving Target Indicator (SB-AMTI) program as a “competitive Other Transaction Authority (OTA) agreement,” rather than a traditional contract. The agreement came via the office of the Portfolio Acquisition Executive for Space-Based Sensing & Targeting (PAE SBST).
“This initial award is projected to field a constellation of satellites by 2028, providing the Joint Force with an early capability to eliminate operational blind spots,” according to the Space Force release.
DARPA
In the past, U.S. officials have generally talked about space-based AMTI becoming a reality sometime in the 2030s. Work is underway to push ground moving-target indicator (GMTI) tasks into orbit, as well.
Some degree of on-orbit prototype AMTI sensor testing has already been ongoing for at least a year, if not much longer, but this work has been heavily classified. In addition to the U.S. Air Force and Space Force, both of which fall under the Department of the Air Force, the National Reconnaissance Office (NRO). The NRO, the activities of which are shrouded in heavy secrecy, is a U.S. military organization that serves as America’s main remote sensing intelligence arm.
“The capabilities that are happening in space are far exceeding our expectations,” then-Air Force Maj. Gen. Christopher Niemi said at a hearing earlier this year as part of a response to a question about plans for the E-7. He declined to offer more details publicly. Niemi, who has since been promoted to lieutenant general, is currently Deputy Chief of Staff of the Air Force for Force Modernization, and the service’s Chief Modernization Officer
SpaceX has already reportedly been deeply involved in this work, too, as you can read about more in this past TWZ feature. This underscores the company’s ever-growing dominance globally in all aspects of the space industry, which we will come back to later on.
As mentioned, a functional, persistent, and distributed AMTI (and GMTI) sensor network in orbit has the potential to be game-changing. As TWZ wrote back in 2024, talking primarily about the future of space-based GMTI capabilities:
“A larger, distributed constellation would have the ability to monitor huge swathes of the Earth simultaneously, and depending on the size of the constellation, at least far more persistently to seamlessly. This could make it difficult, if not impossible, for an opponent to hide activities of interest. A very low revisit rate, or even eliminating revisit rate altogether, could even open up the possibility of continuous ‘streaming’ coverage of a location from low Earth orbit. This would also be essential for persistent GMTI coverage that tracks ground movements in real time that will actually be high enough in fidelity to guide weapons onto those tracks. It’s possible that aerial tracking could also be a function, as well, even to a more limited degree. The E-3 Sentry Airborne Warning and Control System (AWACS) will also be replaced at least partially by space-based capabilities, along with the E-7 Wedgetail.”
A US Air Force E-3 Sentry AWACS jet. USAF
“There is also a fair chance that this is another type of system, perhaps to execute broad area optical/infrared imaging with some exotic capabilities to provide tracking. We just don’t know.”
“Regardless, yes, we are talking about the possibility of panoptic or near panoptic targeting and surveillance from space.”
“Greater collaborative capabilities, especially ones enabled by the use of machine learning and artificial intelligence (AI) technologies, could help to find targets of interest and anomalies far faster than ever before. This could also open a door to more autonomous collection, tasking/retasking, and other capabilities, as well. Areas of interest that need seamless coverage could have extra satellites retasked to the necessary orbit in order to do so automatically, without the need for human deconfliction and even direct operator direction.”
It is not hard to imagine how the satellite constellation being described here would fundamentally change the U.S. military’s ability to not just spot and track targets globally, but also close the kill chains to engage them, even at very long ranges. This has massive implications for future net-centric warfare where all sorts of tangential capabilities will increasingly be networked together. It might impact how tactical aircraft are equipped in the future, including the need for their own radars. There could at least be a reduced need for them to use their own radars to guide missiles, even when no supporting sensor network within the Earth’s atmosphere has relevant data to provide.
Unlike having to rely on a single plane in a single surveillance place, a space-based sensor network made up of a very large number of individual satellites would also be highly resilient to attacks, as well as other attrition just due to technical breakdowns or other factors.
All this being said, U.S. officials have been open about potential challenges when it comes to making space-based AMTI capabilities a reality, even just compared to establishing GMTI networks in orbit.
L3Harris
“So GMTI [ground moving-target indicator capability] and AMTI [air moving-target indicator capability] sound like they’re really close, just because one little letter that is all you changed, [but it] turns out they’re pretty different,” Chief of Space Operations Gen. Chance Saltzman, U.S. Space Force’s top officer, said during a press briefing on the sidelines of a conference in December 2025, according to Breaking Defense. “What it takes to accomplish AMTI is different than what it takes to accomplish GMTI.”
“Things on the ground move slower than things on [sic] the air, so [they] require different levels of fidelity tracks,” he added.
“The [AMTI] data the Intelligence Community and warfighter need presents a multi-phenomenology challenge that requires automated orchestration of the NRO’s collectors, low-latency data transport, and rapid data fusion by the NRO’s unmatched space communications and ground architecture capabilities,” a spokesperson for NRO also told Breaking Defense earlier this year.
It’s worth noting here that satellites with sensors are only one component of the total equation. Robust, resilient, and secure communications networks will be vital to getting the data collected where it needs to go. This is a separate area where SpaceX is already playing an increasingly central role with its Starlink and Starshield networks, as you can read more about here. Laser-based communications relays are set to be another key supporting capability.
Watch SpaceX deploy Starlink satellites into space
In its announcement today, the Space Force did explicitly stress that SpaceX will not be the only company supporting the SB-AMTI effort going forward, and that it has established a larger “vendor pool.”
“By utilizing this multi-vendor framework, we are capitalizing on established industry capacity and continuously evaluating and onboarding the best tech to field this essential capability at speed and scale,” Space Force Col. Ryan Frazier, the acting PAE SBST, said in a statement. “We will not leverage any one single provider; instead, we are partnering with a highly diversified pool of traditional and non-traditional vendors, each bringing various capabilities to support the SB-AMTI architecture, ensuring the Joint Force has access to a strong, competitive industrial base well into the future.”
At the same time, as TWZ has noted in the past, SpaceX’s dominance in the market gives the company a clear advantage for securing further deals. This extends to the additional demands to put all this architecture in space. At least currently, no other company has the same capacity to provide the U.S. military with the kind of reliable access to space at the required cadence, and within budget constraints. SB-AMTI is already a major budget priority, with the Space Force asking for more than $7 billion in additional funds to procure additional elements of the system in its 2027 Fiscal Year budget request.
That being said, the new $4.16 billion agreement with SpaceX makes clear that the Space Force is pressing ahead with its plans for a space-based AMTI sensor network with hopes that at least an early operational capability could be in place within the next two years.
April 19 (UPI) —Blue Origin successfully launched its New Glenn rocket and landed its booster stage, but it delivered a communications satellite into an orbit too low to be useful.
New Glenn-3, the third launch of the company’s rocket, cleared the tower just before 7:30 a.m. EDT on Sunday morning and roughly six minutes later its first stage touched down on the “Jacklyn” drone ship in the Atlantic Ocean.
The fully reusable booster, called “Never Tell Me The Odds,” was making its second landing as the mission hit its second stage engine cutoff, entered orbit and released AST SpaceMobile’s BlueBird 7 satellite successfully.
The release was successful and the satellite powered up properly, but had been placed into “an off-nominal orbit,” Blue Origin said in a post on X.
“During the New Glenn 3 mission, BlueBird 7 was placed into a lower than planned orbit by the upper stage of the launch vehicle,” AST said in a press release.
“While the satellite separated from the launch vehicle and powered on, the altitude is too low to sustain operations with its on-board thruster technology and will de-orbited,” the company said. “The cost of the satellite is expected to be recovered under the company’s insurance policy.”
AST’s BlueBird 7 satellite is part of a space-based cellular broadband network the company is building that will be accessible using normal smartphones.
The satellite would have been the eighth the company has put in orbit for the network, has satellites number through 32 in production and expects BlueBird 8, BlueBird 9 and BlueBird 10 to be completed in the next month.
AST said that it plans to continue launching satellites roughly every other month for the rest 2026 using “multiple launch providers,” with a goal of 45 satellites in orbit by the end of the year.
Blue Origin, in addition to launching satellites for commercial and government entities, is also building a prototype MK1 “Endurance” lander as a test vehicle in an uncrewed moon landing later this year, Space.com reported.
The prototype is a test run for its MK2 lunar lander that will be used in NASA’s Artemis program to explore the moon and establish a permanent human presence there.
NASA’s Orion spacecraft, with the four-member Artemis II crew aboard, is seen under parachutes as it lands in the Pacific Ocean off the coast of California on Friday after its nearly 10-day journey around the Moon and back. NASA Photo by Bill Ingalls/UPI | License Photo