Taiwan's PARUS-T2 CubeSat launched by SpaceX rocket [Jun 24]QuoteThe name PARUS was inspired by the chestnut-bellied tit (Sittiparus castaneoventris), a bird native to Taiwan. The agency said the name reflects the spirit of Taiwan-built CubeSats carrying local innovation into space.TASA added that the next CubeSat in the series, PARUS-6U1, is set to launch aboard SpaceX’s Transporter-15 mission in October. The mission’s primary payload will be FS-8A, the first satellite of the Formosat-8 series.FORMOSAT-8AQuoteLaunch Date: October 2025
The name PARUS was inspired by the chestnut-bellied tit (Sittiparus castaneoventris), a bird native to Taiwan. The agency said the name reflects the spirit of Taiwan-built CubeSats carrying local innovation into space.TASA added that the next CubeSat in the series, PARUS-6U1, is set to launch aboard SpaceX’s Transporter-15 mission in October. The mission’s primary payload will be FS-8A, the first satellite of the Formosat-8 series.
Launch Date: October 2025
Transporter-15 cake topper?Quote from: StraumliBlight on 06/24/2025 11:59 amFORMOSAT-8A
FORMOSAT-8A
It is worth noting that the remaining six Greek IOD CubeSat missions, which include ten more CubeSats, have begun assembly and testing and are scheduled to be launched in October 2025 and February 2026 with the Transporter 15 and 16 missions. The program, which is funded by the Recovery Fund, is a project under the auspices of the Ministry of Digital Governance with the support of the General Secretariat of Telecommunications and Posts and is closely monitored by the Hellenic Space Center.
Set to launch in 2025, these seven missions encompass a variety of services crucial for modern space applications: • PHASMA: Led by the Libre Space Foundation, two 3U CubeSats focusing on radio frequency signal detection and monitoring for space situational awareness. • OptiSat: Led by Planetek Hellas, a 6U CubeSat for secure optical communication and space-based data processing, including automated cloud coverage assessment. • PeakSat: Led by Aristotle University of Thessaloniki, a 3U CubeSat demonstrating laser-optical links with ground stations in Greece. • MICE-1: Led by Prisma Electronics SA, a 3U CubeSat enhancing maritime tracking in the Mediterranean Sea through Automatic Identification System (AIS) signal reception and IoT communication. • ERMIS: Led by the National and Kapodistrian University of Athens, a constellation of three CubeSats (two 6U and one 8U) for IoT applications, inter-satellite communications, hyperspectral imaging for precision agriculture and optical communications. • Hellenic Space Dawn: Led by EM Tech, two 8U CubeSats, Helios and Selene, supporting the validation of in-space data processing hardware, Earth observation and demonstrating inter-satellite links and secure optical communications.
As part of the project, there are a further six Greek IOD/IOV projects, culminating in ten more CubeSats that are scheduled to launch in October 2025 and February 2026 via the SpaceX Transporter 15 and Transporter 16 rideshare missions.
Yesterday, we had the pleasure of transporting a distinguished and unique “passenger”, the nanosatellite, MICE-1. Its journey began in Alexandroupolis, where it was created by Prisma Electronics, landed in Athens and departed for Berlin, from where it will travel with its final destination in America to be launched into space in mid-October.
SPiN announces the successful integration of SPiN-2, an In-Orbit Demonstration (IOD) mission featuring a 3U CubeSat scheduled for launch no earlier than October 2025 aboard SpaceX's Transporter 15.The SPiN-2 mission represents a significant milestone in demonstrating the capabilities of SPiN's innovative MA61C CubeSat plug-and-play solution, which will integrate without user intervention cutting-edge components such as Arca Dynamics's Space Situational Awareness (SSA) payload and List's directly printed sensors into a generic satellite platform.Mission OverviewThe SPiN-2 mission consists of a 3U CubeSat platform developed by German Orbital Systems (GOS) that will accommodate an advanced optical payload developed by ARCA Dynamics. List’s directly printed sensors, along with SPiN's proprietary hardware and software universal adapter, will serve as the critical interface between the platform and optical systems.The satellite will operate in a circular Sun-Synchronous Orbit (SSO) at an altitude between 500-600 kilometres, with a nominal mission duration of up to six months and the possibility of extension for an additional year."The SPiN-2 mission demonstrates our commitment to revolutionising access to space through innovative, modular solutions," said Ran Qedar, CEO at SPiN. "Our MA61C platform represents true cost-effective manufacturing in the aerospace industry, and this mission will validate its capabilities in the demanding space environment."Advanced Payload TechnologyThe mission's primary payload is ARCA Dynamics' SMART (Space Monitoring and Reconnaissance Technology) system, featuring two optical sensors and a dedicated processing unit designed to acquire and process images of space objects during specific orbital segments before transmitting data to ground stations.Additionally, the mission will carry a secondary payload from LIST (Luxembourg Institute of Science and Technology), featuring innovative flexible thermal strain gauges produced through additive manufacturing technology. These directly printed sensors will demonstrate advanced temperature and health monitoring capabilities for satellite components.Strategic PartnershipsThe SPiN-2 mission brings together a consortium of leading European space technology companies: • ARCA Dynamics: Providing the innovative SMART optical payload system • LIST: Contributing advanced additive manufacturing sensor technology • German Orbital Systems (GOS): Responsible for mission design, system engineering, spacecraft manufacturing, and operations • Exolaunch GmbH: Supplying launch services and deployment through their EXOpod Nova deployer systemMission TimelineThe SPiN-2 mission has achieved several key milestones since its kickoff in June 2024: • Preliminary Design Review: Completed November 2024 • Critical Design Review: Completed January 2025 • Test Readiness Review: Completed May 2025 • Launch Readiness Review: Completed June 2025 • Launcher Integration: Scheduled September 2025 • Launch: October 2025 • Mission Operations: Through February 2026
We’re pleased to share a few photos of the successful integration of SPiN-2, a satellite resulting from the close collaboration between 🇮🇹 SPiN - Space Products and Innovation, 🇮🇹 ARCA Dynamics and 🇩🇪 German Orbital Systems GmbH. Developed under the European Space Agency - ESA ScaleUp INVEST Element programme, this satellite will be deployed by Exolaunch aboard SpaceX’s #Transporter15 mission 🚀
In-Space Missions is working with BAE Systems to design and build three Azalea Cluster 1 satellites to deliver high-quality information and intelligence in real time to our customers.
BAE Systems plans to launch its Azalea low-Earth-orbit satellite cluster in 2025 after the system passes its critical design review (CDR). The launch is slated to take place on a SpaceX Falcon 9X in October 2025, BAE Systems’ Director of Space Doug Liddle says.
Mission lifeRF 5 years, SAR 3 yearsOrbit typeSun-synchronous orbit (SSO)Orbit altitude500-600kmInclination~97.5°LTAN1030hrsOrbit Period~95 minutesLaunch Vehicle Falcon 9 Transporter Rideshare
🚀 Having designed, built, and put our Azalea spacecraft through a rigorous testing programme, we are pleased to share that they are now safely boxed up and starting their journey to the launch site. With each spacecraft weighing around 150 kilos and with the payload deck measuring in at around 800mm sq of machined aluminium, not to mention the kilometres of wire inside, these spacecraft are designed to have a first-in-class capability which is aims to bring timely, actionable intelligence to crucial defence missions.
🇬🇧 Exolaunch is proud to announce its first-time collaboration with BAE Systems Digital Intelligence in delivering three Azalea™ radio frequency (RF) LEO satellites, designed and built in Britain by BAE Systems, safely to orbit aboard SpaceX’s Transporter-15 mission 🛰️ The launch of the Azalea™ satellites will mark a key step in advancing sovereign space capabilities for the UK.The satellites will fly in formation collecting RF data, which will be analysed by machine learning in space to deliver intelligence securely to decision-makers on Earth – ultimately enhancing the UK’s ability to monitor threats from the vantage of space.Exolaunch provides comprehensive launch mission management, flight-proven #CarboNIX separation systems, as well as satellite integration and logistics support to ensure the reliable deployment of the #Azalea™ satellites into orbit.Currently, the Exolaunch and BAE Systems teams are completing satellite integration at #Vandenberg Space Force Base. Next stop: Launch Pad and Lift-Off! 🚀
In preparation for vibration testing, the SPARCS spacecraft was integrated into a Maverick Dispenser.[...]SPARCS Mission TimelineThe SPARCS team completed the payload and spacecraft bus integration and testing in March 2025, and is now awaiting launch in late 2025 via SpaceX’s Transporter rideshare program. Post-launch commissioning will take one month, followed by eleven months of primary science operations.Although SPARCS is designed to operate for at least one year, the absence of consumables on board means that the mission could be extended if the spacecraft remains operational. An extended mission would allow SPARCS to observe additional stars and potentially capture even rarer, higher-energy flare events. All data collected by SPARCS will be made publicly available through MAST, enabling further analysis by the scientific community.
SPARCS is now ready for launch. It is manifest on a SpaceX rocket headed to a Sun-synchronous low-Earth orbit by the end 2025.
Launch: 2025Platform: ~300 kgPayload: ~90 kgFlight altitude: Low Earth Orbit (LEO) ~500-600 km above the Earth’s surface
OUR SPACE MISSIONS (2025) • Athene-1 on SpaceX Transporter-15 (December)
The first project that the #unibwm and the German Aerospace Center are implementing under their new framework agreement is a contribution from the German Space Operations Center (GSOC) to the SeRANIS Mission project. SeRANIS focuses on the research, implementation, and evaluation of advanced #space technology in Earth orbit. In the long term, a technology supply chain will be established that will ensure Germany's technological sovereignty – in space and here on Earth. GSOC will assume flight operations for the SeRANIS satellite "Athene 1" and also contribute its own payload experiments. Our goal is also the cost-effective and efficient operation of future missions – as an opportunity for the public sector to define and operate autonomous space systems.
Among other payloads, this satellite is equipped with an optical laser terminal for high-speed data up- and downlinks. The ground segment will comprise an optical ground station (OGS) at the campus of the UniBw M in Neubiberg, Germany.
On the SeRANIS satellite ATHENE1, more than ten innovative and complex experiments are being carried out simultaneously with key and future technologies. These technologies include fifth- (5G) and sixth-generation (6G) mobile communications systems, laser communication, and Internet of Things (IoT) technology. ATHENE1 provides a complete and modular satellite platform and payload capable of hosting experiments for advanced 5G/B5G/6G techniques and technologies.
One more customer satellite is on its way to the launch site for our 15th Transporter mission. Stay tuned for updates and see the comments to learn how our smallsat buses, proven 50+ times in orbit, can support your next mission..
Taiwan's first domestically produced optical remote sensing satellite constellation—Formosat-8's first satellite (FS-8A)—has undergone a series of rocket and space environment tests. Today (July 24th), it was announced that the Full Functional testing has been completed, signifying the satellite's validation and readiness for launch. After passing the Pre-Shipment Review (PSR) in early August, it will be transported to Vandenberg Space Force Base in California, USA, for launch in October aboard SpaceX's Falcon 9 rocket Transporter 15 mission.The National Space Organization (TASA) stated that the Formosat-8 program is the first pilot high-resolution optical remote sensing satellite program planned and executed under the "Third Phase National Space Science and Technology Development Long-Term Plan." The plan involves developing 6 satellites with a native resolution of 1 meter, which can achieve sub-meter resolution through TDI processing, and developing another 2 optical remote sensing satellites with a native resolution of sub-meter. These satellites will be launched annually starting this year, forming a constellation in a 561 km Sun-Synchronous orbit.TASA Director General Wu Jong-shinn stated that the Formosat-8 program experienced delays due to the pandemic and configuration modifications. Problems also surfaced during environmental testing, which the Formosat-8 team patiently resolved. Compared to Formosat-5, Formosat-8 can achieve sub-meter resolution. If it can successfully perform its mission, it will represent another advancement in Taiwan's space technology. After the Formosat-8 constellation is completed, it can provide satellite images with multiple revisits per day and global coverage to meet national security, disaster prevention, and other needs.Formosat-8 Program Manager Liu Hsiao-ching explained that before the satellite leaves the factory, it must pass rocket and space environment tests to ensure it can withstand the harsh conditions of the rocket launch process and subsequent operation in space, such as vacuum and extreme temperature differences. These environmental tests mainly include electromagnetic compatibility testing, vibration testing, acoustic testing, thermal vacuum testing, and separation shock testing. After completing each environmental test, the program team conducts full functional testing to ensure that the satellite system and subsystem functions operate normally.The testing scope also includes FS-8A's scientific payload—the "Dual-band All-sky Imager of Atmosphere Transient (DIAT) and the electron density and temperature Probe (TeNeP)" developed by the National Cheng Kung University team, which can investigate the origin and triggering mechanism of terrestrial gamma-ray flashes (TGF) and perform ionospheric observations.Liu Hsiao-ching said that since satellites cannot be repaired after launch, it is necessary to identify and eliminate all possible problems during the ground testing phase. Therefore, discovering errors is a good thing for the team. During the full functional testing of FS-8A, it was discovered that the final version of the flight software removed the debugging mode, causing the command transmission to the propulsion subsystem to be less than expected. Fortunately, with the team's efforts, the issue was identified and successfully resolved in just three days.Yeh Chia-ching, the person in charge of the Formosat-8 integration and testing sub-project, said that the total assembly and testing time of FS-8A exceeded one year, with "thermal vacuum testing" being the most critical and challenging, potentially causing serious damage to the satellite and being considered the satellite's "final boss." However, the team promptly identified and resolved problems during test preparation, test operation, functional verification, and data analysis, shortening the originally estimated one-month thermal vacuum test to two weeks, which is commendable and indicates that TASA's satellite technology is gradually maturing.TASA stated that in early August, internal and external committee members will be invited to conduct a pre-shipment review (PSR) for FS-8A to confirm that the satellite status and the rocket interface of the SpaceX Transporter 15 mission are fully prepared. It is expected to be shipped at the end of August and launched in October. FS-8A is the first satellite of the Formosat-8 constellation, and subsequent satellites will be launched annually, with the complete constellation expected to be completed by 2031.
The first satellite (FS-8A) in the National Space Agency (TASA)'s (Tasat) Formosat-8 program, the nation's first domestically-built optical telemetry satellite constellation, passed its Pre-Shipment Review (PSR) on the 6th of this month, confirming that the satellite's status, transportation plan, and launch site operations plan are all complete and ready for transport to the launch site. FS-8A will launch aboard SpaceX's Transporter 15 flight.[...]TASA held a two-day PSR meeting starting on August 5th, the final "big test" before the satellite's launch. Ten members from relevant departments and academic circles were invited to review the meeting. The purpose was to confirm whether the modifications made during the satellite's design, assembly, and environmental testing processes met the mission requirements. The meeting also reviewed the satellite's transportation and testing plans at the launch site. After two days of reviewing, confirming, and clarifying the preparations for Formosat-8, the members agreed that all pre-launch preparations and subsequent operational preparations for FS-8A were complete and ready for launch.Liu Xiaojing, the project leader of Formosat-8, said that Formosat-8 was formerly known as the "Microsatellite Project". In response to the Executive Yuan's approval of the "Third National Space Science and Technology Development Long-Term Plan" in 2019, it was transferred to the Formosat-8 Project and adopted higher-performance TDI CMOS photosensitive elements. The corresponding components were also modified accordingly. Subsequently, it also experienced the epidemic and configuration modifications. It was not easy to go through many major changes along the way. Now that it can smoothly carry out the pre-shipment review, it is like celebrating a wedding.[...]"This is the first leg of FS-8A's journey into space," said TASA Director Wu Zongxin. Satellites are extremely complex systems engineering projects. The entire development process of FS-8A, from design, modification, assembly, to testing, has accumulated over 3,000 documents. He thanked his colleagues for their tireless efforts and years of patiently honing their skills, turning a dream into reality and taking Taiwan's ability to manufacture optical payloads a major step forward.TASA stated that the Formosat-8 constellation of six satellites plus two others will be launched annually starting this year, establishing a Taiwan-built optical telemetry system capable of observing Taiwan. Upon completion of the system in 2031, it is expected to provide satellite imagery that will revisit Taiwan multiple times daily and provide global coverage, with applications in diverse areas such as public welfare needs, international cooperation, national security, and disaster prevention and relief.[...]FS-8A is expected to be launched from California, USA on a SpaceX Falcon 9 rocket. Taiwan satellites on the same flight (Transporter 15) also include TASA's new star-chasing project cubic satellites "Bellbird 1", "Black Kite 1", and "Albatross 1", as well as Lilium-2 and Lilium-3 jointly developed by National Cheng Kung University, National Taiwan University, National Taiwan University of Science and Technology, and Tamkang University.
Formosat-8 is Taiwan's first self-produced satellite constellation, with a total of 8 optical telemetry satellites. The first one (FS-8A) was shipped today (7th) from the National Space Center (TASA) in Hsinchu, ready to be flown to the United States for launch in the fourth quarter of this year. [...]In addition to its primary mission of remote sensing and imaging, the Zeppelin satellite also carries the Dual-Band Atmospheric Transient Imager (DIAT) and Electron Temperature Density Instrument (TeNeP), developed by Professor Bing-Chih Chen of the Department of Physics at National Cheng Kung University. These instruments are used for lightning and ionosphere research, observing the ionosphere and studying the origin and triggering mechanisms of terrestrial gamma-ray flashes (TGFs). Zeppelin will be deployed in a sun-synchronous orbit 561 kilometers above Earth's surface. Through ground-based image post-processing (Super Resolution), the satellite will achieve an ultra-high resolution of less than one meter. Once the constellation is complete, it will provide multiple daily revisits and global satellite imagery, meeting real-time satellite resource needs.
We’re honored to partner with our long-standing 🇸🇬 Singapore based customer SATORO Space to deploy 🇹🇼 National Cheng Kung University’s satellites LILIUM-2 and LILIUM-3 safely into orbit aboard SpaceX’s #Transporter15 mission 🚀LILIUM-2 and LILIUM-3 carry multiple IOD/IOV missions including remote sensing with AI functions, electrical propulsion system, satellite to satellite communication and passive satellite reentry mechanism. Exolaunch provides launch capacity procurement, technical and contractual launch mission management, our flight-proven EXOpod #Nova deployer and end-to-end logistics services to Satoro aboard Transporter-15. Both LILIUM-2 and LILIUM-3 satellites have been successfully integrated by our teams into the deployer at our Berlin Headquarters as well as with Falcon 9 at Vandenberg Space Force Base.
SAT-LOA-20241205-00275Vindlér 2.1, 2.2, and 2.3 (built and operated by Muon Space for Sierra Nevada Corp)Three RF sensing sats, 128kg each
Dhruva Space’s LEAP-1 mission on the indigenously-developed P-30 satellite platform will fly two distinct missions: • Akula Tech’s Nexus-01 mission comprising an advanced Artificial Intelligence (AI) module, and • Akula Tech's Esperesso hyperspectral imager developed by Esper Satellites for OTR-2The LEAP-1 mission is officially slated to launch aboard SpaceX’s Falcon 9 in Q3 2025, marking not just a significant Indo-Australian collaboration, but also growing support from the United States in Dhruva Space’s global commercial journey.
Launch site: Vandenberg Space Force Base
The European Space Agency’s (ESA’s) HydroGNSS mission, which will investigate hydrological climate variables from space, has passed a set of tests that mean it is a step nearer to launch. The satellite’s Flight Acceptance Review is now complete, marking a milestone in the preparations of the spacecraft before it is transported to the launch site in the US. The review is the final step in confirming that the satellite meets all mission and safety requirements, marking a significant achievement for the project team.Here, the HydroGNSS team gather for a group picture.The mission will provide measurements on water-related indicators such as soil moisture, freeze–thaw state over permafrost, inundation and wetlands, and above-ground biomass, using a technique called Global Navigation Satellite System (GNSS) reflectometry.The mission consists of two microsatellites, both of which carry a GNSS reflectometry instrument in an orbit of 500-600 km, 180 degrees apart.HydroGNSS has been developed by Surrey Satellite Technology Ltd (SSTL) for ESA’s Scout framework, part of the agency’s FutureEO programme. This new family of small ‘Scout’ satellites are developed within short timeframes and deliver science data, either by miniaturising existing space technologies or by demonstrating new observing techniques.Launch is expected later this year on a Falcon 9 rocket.
SSTL is building HydroGNSS, a 55kg small satellite to measure climate change variables. HydroGNSS will take measurements of key hydrological climate variables, including soil moisture, freeze thaw state over permafrost, inundation and wetlands, and above ground biomass, using a technique called GNSS Reflectometry which exploits existing signals from Global Navigation Satellites, such as GPS and Galileo, as radar signal sources. These signals are reflected off the land, ice and ocean and can be collected by a low power receiver on a small satellite in low Earth orbit, and used to yield important geophysical measurements.
HydroGNSS will consist of two satellites, which will carry a GNSS Reflectometry instrument at a nominal orbit of 500-600 km and at an inclination of 98°, phased apart by 180 degrees.
Orbiting Earth 180 degrees apart, the Scout mission uses a technique called Global Navigation Satellite System (GNSS) reflectometry to measure important climate variables such as soil moisture, freeze–thaw state over permafrost, inundation and biomass – all of which are linked to Earth’s water cycle. The mission comprises two identical satellites orbiting 180 degrees apart.
Launch is expected in Q4 this year on a Falcon 9 rocket.
We said goodbye (for now!) to our two HydroGNSS satellites this week, as they left Guildford on their journey to the US launch site.Built here at SSTL for the European Space Agency - ESA, HydroGNSS-1 and HydroGNSS-2 are part of ESA’s Scout programme – delivering rapid, low-cost Earth observation missions. Once in orbit, the pair will track climate variables like soil moisture and flooding, using signals from existing GNSS satellites in innovative new ways.We’re proud to see them safely packed and on their way, and we’ll be following every step as they head towards launch later this year.
The European Space Agency’s (ESA’s) HydroGNSS mission, which will investigate the Earth’s water cycle, has landed in California and is ready to start preparations for launch.
The satellites have been successfully integrated with Falcon 9 by our teams at #Vandenberg Space Force Base.
Media representatives are cordially invited to join an online media briefing on Monday 3 November at 09:00 GMT/10:00 CET ahead of the launch of the European Space Agency's HydroGNSS mission.Journalists will hear from: • Simonetta Cheli, ESA Director of Earth Observation Programmes • Andrew Cawthorne, Managing Director at Surrey Satellite Technologies Limited (SSTL) • Jean-Pascal Lejault, ESA Scout Programme Manager • Martin Unwin, SSTL GNSS Science LeadThey will then be able to pose questions to the speakers, who will be joined by: • Massimiliano Pastena, ESA Scout System Manager • Peter Garner, SSTL HydroGNSS Project Manager • Dirk Bernaerts, ESA Earth Explorer Missions Programme Manager • Maria Paola Clarizia, ESA scientist for HydroGNSS
Both SSTL-built HydroGNSS satellites are now fully integrated onto the launch plate that will attach to the SpaceX launch vehicle at Vandenberg Space Force Base, marking a major milestone for the mission.
The identical microsatellites will launch aboard a SpaceX Falcon 9 rocket from Vandenberg Space Force Base, sharing their Transporter-15 ride into orbit with several other small satellites.Since their arrival, the HydroGNSS satellites have undergone a series of final checks – including testing, propellant loading, battery charging and integration with their launch adapter.Both satellites are now ready for the next milestone: closing of the rocket fairing.
"We will have almost six months of checkout activities between the platform and the instrument and we will be ready to deliver the science around May 2026."
The first satellite of Taiwan's Formosat-8 (FS-8A), the first optical telemetry satellite constellation built by the National Space Administration (TASA), will be launched in October. Passengers on the same flight also includes three 8U cubic satellites from TASA's innovative star-chasing project, namely "Bellbird 1", "Black Kite 1" and "Albatross 1". If successfully verified, they can be used in broadband communications, satellite Internet of Things, offshore fisheries and other fields in the future, increasing the opportunities for Taiwanese manufacturers to enter the international satellite industry chain.With support from the National Science Council, TASA launched the "Startup Star Chasing Program" in 2022 to cultivate domestic companies' capabilities in satellite system integration and on-orbit operations. The first phase of the program commissioned Ray Ocean Technology and Fangxing Technology to build the 3U cubic satellites "Nighthawk" and "Albatross," respectively. These satellites were launched in 2024 and have achieved initial verification results. The second phase added Chuang Future Technology. The three companies will each build four 8U cubic satellites, slated for launch this year and next year (2026), forming three constellations."Bellbird-1," built by Chuangwei Technology, is a broadband communications satellite designed to demonstrate Ka-band technology, high-speed ground communications, and satellite handover technology. The bellbird is named after the bird with the world's highest decibel call, symbolizing excellent communication quality.Black Kite 1, developed by Ray Ocean Technology, is part of the Nighthawk, the first-generation 3U cubesat satellite. It will demonstrate IoT communication technologies, including high-speed communications and multi-connectivity IoT data collection. The name comes from the Black Kite, commonly known as the eagle. In addition to its loud voice, high speed, and strong adaptability, it represents an upgraded version of the 3U satellite. Launched last year, the Nighthawk has established two-way communication with a ground station and stably received signals from its proprietary Ku-band communications payload, successfully verifying some of its functions.Developed by Fangxing Technology, the Albatross-1 is intended to conduct ocean color remote sensing and related communication applications. Albatrosses are crucial indicators for pelagic fisheries; wherever they are found, there are fish. Because it falls within the same mission series, it has been named Albatross-1, inheriting the name of the first-generation 3U.Chen Jiarui, director of TASA's new StarChasing CubeSat program, stated that TASA selects missions with the highest potential for commercial applications, increasing Taiwanese companies' opportunities to enter the international satellite industry chain. For example, Zhongque-1 is conducting payload verification in the high-speed Ka-band frequency band and simultaneously conducting ground user terminal verification, embracing a wide range of applications. The satellite Internet of Things (IoT) system, which Black Kite-1 aims to demonstrate, is suitable for environmental monitoring applications such as aquaculture and forest conservation. Albatross-1 uses telemetry to identify water color and explore fishing grounds, potentially enabling applications in deep-sea fishing.TASA added that cubic satellites, with each unit measuring 10*10*10 centimeters, are small in size and light in weight. They can be used as experimental satellites to verify whether the satellite's various designs can operate normally in the space environment. In recent years, they have also become an entry-level satellite model in the commercial sector.The three CubeSats for the new StarChaser mission will be aboard a rideshare rocket, SpaceX's Transporter 15. The primary payload is the first satellite of TASA's domestically developed optical telemetry satellite Formosat-8 (FS-8A), along with Lilium-2 and Lilium-3, jointly developed by National Cheng Kung University, National Taiwan University of Science and Technology, and Tamkang University.
The first satellite of the FORMOSAT-8 constellation, "Chi Po-lin"(FS-8A), is set to launch aboard SpaceX's Transporter-15 mission. We're excited to see it take flight!🛰️🚀Launch Window • November 26, 2025 | 10:18–11:15 PT • November 27, 2025 | 02:18–03:15 UTC+8 The FORMOSAT-8 mission consists of eight high-resolution optical remote sensing satellites, developed sequentially and launched at a pace of one per year, with full deployment expected by 2031.
ESA Green Light – WISDOM Ready to Fly ✅ Today we officially wrapped up the Test Review Board (TRB) together with the European Space Agency (ESA) for the WISDOM satellites. ESA representative visited us in person to inspect the satellites following the successful completion of all major tests – including vibration, thermal vacuum (TVAC), EMC, and software validation. 🚀 With the review closed and the WISDOM satellites are fully qualified, they are now ready for delivery to launch site, where they will be integrated with the launch vehicle. 📅 Launch is scheduled for October! This project is developed by the ESA ESA NAVISP program.
The entire testing process will be completed by the end of July, preparing for the US integration of the satellites scheduled for August 2025.
Aurora has completed the delivery of the first Plasma Brake Flight Model unit to the WISDOM satellite by C3S. The unit was successfully integrated to the satellite and is undergoing flight qualification and preparations for launch in October 2025.
3UCubed is the Student Collaboration (StC) for the Interstellar Mapping and Acceleration Probe (IMAP) mission [...]3UCubed is manifested to launch on SpaceX’s Transporter-15 in Q4 2025 in a polar Sun Synchronous orbit (SSO) ~500 km altitude and LTDN of 10:00.
University of New Hampshire's 3UCubed-A cubesat is on this launch (0789-EX-CN-2025) [Jul 16]QuoteThe overall goal of the 3UCubed-A mission is to contribute to an understanding of how Earth’s polar upper atmosphere (‘the thermosphere’ in the auroral and cusp regions) respond to particle precipitation and varying conditions associated with solar wind forcing and internal magnetospheric processes.The satellite will be launched as a secondary payload aboard SpaceX Transporter 16, from Vandenberg Space Force Base, NET October 1, 2025. It will be inserted into a circular SSO orbit at 510 km, on an inclination from the equator of 97.4 degrees. Transmission will begin 30 minutes after deployment and cease 2 years after deployment. Atmospheric friction will slow the satellite and reduce the altitude of the orbit, until de-orbiting occurs 6.6 years after launch. See the Orbital Debris Assessment Report for details.The spacecraft is a single unit with the dimensions of three stacked 10 cm X 10 cm X 11.5 cm CubeSat modules (giving an overall dimension of 10 cm X 10 cm X 34.5 cm.) The total mass is about 3.6 kg.3UCubed: The IMAP Student Collaboration CubeSat Project [Nov 28, 2022]QuoteThe 3UCubed project is a 3U CubeSat being jointly developed by the University of New Hampshire, Sonoma State University, and Howard University as a part of the NASA Interstellar Mapping and Acceleration Probe (IMAP) student collaboration. This project consists of a multidisciplinary team of undergraduate students from all three universities. The mission goal of the 3UCubed is to understand how Earth's polar upper atmosphere (‘the thermosphere’ in Earth’s auroral regions) responds to particle precipitation and solar wind forcing and internal magnetospheric processes.3UCubed includes two instruments with rocket heritage to achieve the science mission: an ultraviolet photomultiplier tube (UV-PMT) and electron retarding potential analyzer (ERPA). The spacecraft bus consists of the following subsystems–Attitude Determination and Control, Command and Data Handling, Power, Communication, Structural, and Thermal.[...]Our mother mission– IMAP is also projected to launch in 2025, which will let us jointly analyze the science data of the main mission, providing the solar wind measurements and inputs to the magnetosphere with that of 3UCubed, providing the response of Earth’s cusp to these inputs.
The overall goal of the 3UCubed-A mission is to contribute to an understanding of how Earth’s polar upper atmosphere (‘the thermosphere’ in the auroral and cusp regions) respond to particle precipitation and varying conditions associated with solar wind forcing and internal magnetospheric processes.The satellite will be launched as a secondary payload aboard SpaceX Transporter 16, from Vandenberg Space Force Base, NET October 1, 2025. It will be inserted into a circular SSO orbit at 510 km, on an inclination from the equator of 97.4 degrees. Transmission will begin 30 minutes after deployment and cease 2 years after deployment. Atmospheric friction will slow the satellite and reduce the altitude of the orbit, until de-orbiting occurs 6.6 years after launch. See the Orbital Debris Assessment Report for details.The spacecraft is a single unit with the dimensions of three stacked 10 cm X 10 cm X 11.5 cm CubeSat modules (giving an overall dimension of 10 cm X 10 cm X 34.5 cm.) The total mass is about 3.6 kg.
The 3UCubed project is a 3U CubeSat being jointly developed by the University of New Hampshire, Sonoma State University, and Howard University as a part of the NASA Interstellar Mapping and Acceleration Probe (IMAP) student collaboration. This project consists of a multidisciplinary team of undergraduate students from all three universities. The mission goal of the 3UCubed is to understand how Earth's polar upper atmosphere (‘the thermosphere’ in Earth’s auroral regions) responds to particle precipitation and solar wind forcing and internal magnetospheric processes.3UCubed includes two instruments with rocket heritage to achieve the science mission: an ultraviolet photomultiplier tube (UV-PMT) and electron retarding potential analyzer (ERPA). The spacecraft bus consists of the following subsystems–Attitude Determination and Control, Command and Data Handling, Power, Communication, Structural, and Thermal.[...]Our mother mission– IMAP is also projected to launch in 2025, which will let us jointly analyze the science data of the main mission, providing the solar wind measurements and inputs to the magnetosphere with that of 3UCubed, providing the response of Earth’s cusp to these inputs.
Leaf Space and FOSSA Systems today announced a strategic partnership to support new IoT satellites as part of FOSSA’s growing satellite constellation, leveraging Leaf Space’s global Leaf Line network.FOSSA Systems is developing a Low Earth Orbit constellation to provide secure IoT connectivity globally, targeting industries such as energy, agriculture, logistics, infrastructure, and defense, particularly in remote and underserved areas, using nano and microsatellites designed for a lifespan of 7 years. FOSSA will leverage Leaf Space’s automated scheduling, a global ground station network, and secure, reliable transmission for both telemetry, tracking, and command (TT&C) and IoT payload data.“We’re proud to support FOSSA Systems, a European company integrating the full vertical chain from design to production to operations of IoT satellites,” said Cristina Zanchi, CEO of Leaf Space. “Leaf Space will provide the ground segment, enabling FOSSA to focus on innovation and delivering cutting-edge IoT services to its customers.”“FOSSA will complement our existing network of ground stations with LeafSpace’s network to accelerate our global footprint as we begin commercial expansion.” said Julián Fernández, CEO of Fossa Systems.
Exolaunch, a global leader in launch mission management, satellite integration and deployment services, will deploy 59 customer satellites on the upcoming Transporter-15 rideshare mission with SpaceX aboard a Falcon 9 rocket scheduled for no earlier than November 2025. This mission, Exolaunch's largest to date, supports more than 30 customers across 16 countries, and reaffirms Exolaunch's position as the premier partner for satellite launches and demonstrates unmatched reliability, technical expertise and continuously validated flight heritage.Transporter-15 marks a continued trajectory of growth for Exolaunch, enabling launch access for over 30 commercial, institutional, and government customers from 16 countries: the United States, the United Kingdom, Germany, France, Finland, Lithuania, Belgium, Italy, Spain, Greece, Poland, South Korea, Taiwan, Turkey, Bulgaria, and the United Arab Emirates.Exolaunch will also utilize its latest, stiffer CarboNIX NEO separation system to deploy a customer satellite. NEO is designed and built on the basis of the flight-proven CarboNIX and is an off-the-shelf separation system available in 8", 15", and 24", 31.6" and 38.81" sizes. It is scalable to any custom diameter for satellites upwards of 1,000 kg. While NEO uses the same lock mechanism and pusher arm subsystems as CarboNIX, NEO employs a new clamp ring system which is stronger, stiffer, can withstand higher loads and launch heavier spacecraft than any other separation system on the market.With this launch, Exolaunch continues to expand the adoption of its deployment solutions, now considered among the most reliable and user-friendly in the industry. Exolaunch remains the only launch integrator with payloads manifested on every Transporter mission with SpaceX since their Rideshare Program began in 2020. This mission will significantly expand Exolaunch's flight heritage and unlock new commercial programs with the leading satellite constellations, building on the deployment of more than 580 satellites across 39 previous missions aboard multiple global launch vehicles.
Our first 8U CubeSat Black Kite-1 is on its way to Exolaunch in Germany! 🛰️It will soon begin a space journey, testing the stability and communication of the low-Earth orbit IoT satellite system. Thanks to our team for their hard work 💪– another milestone for Rapidtek! We can’t wait to see Black Kite-1 in action, helping expand global IoT communications!
Date: Nov 2025Size: 8UOrbit: SSO
Today we finally integrated Lilium-2 and Lilium-3 to the deployer that will help us deliver them to #Space later this year 🚀🚀🚀
🇹🇼 Direct from Taiwan! The Rapidtek Technologies Inc. and Taiwan Space Agency-TASA co-developed Black Kite-1 satellite has been successfully integrated by our teams at Exolaunch Berlin HQ in preparation for launch 🚀Next stop: #Vandenberg Space Force Base, where the satellite will embark on its journey to orbit aboard SpaceX’s #Transporter15 mission.We’re proud to partner once again with Rapidtek, supporting the launch of their 8U Black Kite-1 satellite, jointly developed with TASA, designed to test the stability and communications of a LEO IoT satellite system, advancing the expansion of global IoT connectivity 🛰️
#Transporter15: the countdown is on! 🇸🇬🇩🇪 We’re honored to partner with our long-standing Singapore based customer SATORO Space to deploy their satellites LILIUM-2 and LILIUM-3 safely into orbit aboard SpaceX’s Falcon 9 🚀 LILIUM-2 and LILIUM-3 have multiple IOD/IOV missions including remote sensing, electrical propulsion system and satellite to satellite communication via S-Band. Exolaunch provides launch capacity procurement, technical and contractual launch mission management, our flight-proven EXOpod #Nova deployer and end-to-end logistics services to Satoro Space aboard Transporter-15. Both LILIUM-2 and LILIUM-3 satellites have been successfully integrated by our teams into the deployer at our Berlin Headquarters as well as with Falcon 9 at Vandenberg Space Force Base.
Rapidtek Technologies Linkedin [Aug 21]QuoteOur first 8U CubeSat Black Kite-1 is on its way to Exolaunch in Germany! 🛰️It will soon begin a space journey, testing the stability and communication of the low-Earth orbit IoT satellite system. Thanks to our team for their hard work 💪– another milestone for Rapidtek! We can’t wait to see Black Kite-1 in action, helping expand global IoT communications!
