#MadeInChina #中國製造 |#深蓝航天 #LANDSPACE #DeepBlueLimitedCompany #September2024| Deep Blue Aerospace #ReusableCarrierRocket #Suzaku3 The 10-kilometer-class vertical take-off and landing flight test mission  reusable rocket was a complete success! #JiuquanSatelliteLaunchCenter

深蓝航  Deep Blue Limited – Deep Blue Aerospace  Landspace One of sixty Chinese private space Carrier Rocket Companies in China-People’s Republic of China…  As many of sixty plus Private Rocket Deep Blue Aerospace Co., Ltd. was established in 2017. The company is mainly a high-tech aerospace enterprise that focuses on the direction of liquid recovery and reusable launch vehicles and provides users with commercial launch services. Deep Blue Aerospace Co., Ltd. is headquartered in Nantong City, Jiangsu Province. At the same time, the company has rocket general and liquid engine R&D centers in Yizhuang, Beijing and Xi’an, Shaanxi, respectively, and a rocket power system test base in Tongchuan, Shaanxi…..

At 12:00 on September 11, 2024 Beijing Time Jiuquan Satellite launch Center, Inner Mongolia, China, People’s Republic of China , the Suzaku-3 VTVL-1 reusable vertical take-off and landing recovery test rocket independently developed by Blue Arrow Space Technology Co., Ltd. successfully completed a ten-kilometer-level vertical take-off and landing return flight test at the Blue Arrow liquid oxygen and methane rocket launch station at the Jiuquan Satellite Launch Center in China .This mission is the first time in China to achieve secondary ignition of a vertical take-off and landing return rocket in the air, joint guidance and control of the “grid rudder-cold air attitude control-engine” in a transonic high dynamic pressure environment, and engineering application of real-time wind repair technology for high-altitude winds. It marks a major breakthrough in China’s commercial aerospace industry in reusable launch vehicle technology, and is a crucial step towards the realization of large-capacity, low-cost, high-frequency, reusable space launches in the future!

In this test, the total air flight time of the Suzaku-3 VTVL-1 test rocket was 200.7s, and it went through the process of “ascent – engine shutdown – unpowered gliding – engine secondary start in the air – soft landing”. Among them, the engine was shut down for the first time about 113 seconds after takeoff. After shutdown, the rocket continued to rely on inertia to fly to the highest point of 10002m above the ground. In order to offset the high-altitude crosswind interference of 36m/s, the rocket relied on high-altitude wind correction, grid rudder and cold air attitude control to stabilize the flight attitude; after about 40s of unpowered gliding, when the rocket altitude dropped to 4.64km and the speed reached 0.8Ma, the engine was ignited again in the air at 100% working conditions, and the rocket entered the landing deceleration section, and through the online guidance control algorithm, the engine thrust and flight state were adjusted to guide the rocket body to achieve a soft landing on the recovery field about 3.2km away from the launch station; the center of the landing position was 1.7m away from the center of the recovery field, the landing vertical speed was -1.65m/s, and the landing attitude angle deviation was 0.3°. All indicators met the expected design and reached the domestic leading level.

This mission is an advanced verification of various key technologies for vertical take-off, landing and recovery of large liquid oxygen-methane reusable rockets, following the successful execution of the 100-meter-class flight test mission in January 2024. The test rocket is a single-stage liquid oxygen-methane rocket with a body diameter of 3.35m, a length of 18.3m, a take-off mass of approximately 68t, a take-off thrust of 800 kilonewtons, and is equipped with 3 sets of landing cushion legs and a new 4-piece grid rudder system. It uses a high-strength stainless steel body structure consistent with the Suzaku-3 rocket; it is equipped with an 80-ton Tianque-12 (TQ-12) improved liquid oxygen-methane engine of the same type as the Suzaku-3 rocket, which has achieved continuous orbital flight verification, and has orthogonal double pendulum, 45%~111% variable thrust adjustment and multiple ignition capabilities. The verification results achieved in this mission are as follows:

The Suzaku-3 VTVL-1 test rocket is an engineering prototype built with a full-size engine, and is an important part of the development of the Blue Arrow Aerospace reusable rocket project. This test strictly followed the company’s quality management system and test safety management requirements , carried out comprehensive risk identification and control , organized special review and recalculation and process review , and formulated and improved mission operating procedures and emergency response plans to ensure the success of the test. Through two vertical take-off and landing recovery tests, the model team successfully verified a number of key technologies for reusable rockets, laying a solid foundation for the future first flight and recovery of the Suzaku-3.

Since October 2022, Blue Arrow Aerospace has been fully committed to promoting the demonstration and development of large liquid oxygen and methane reusable rockets, and has clarified the development route of the next-generation reusable rocket Suzaku-3. At the beginning of this year, Suzaku-3 has completed the transition from the scheme stage to the prototype stage, and has fully carried out the development of various system products in the prototype stage. It is planned to carry out its first flight in 2025 and realize the recovery and reuse of the first stage in 2026, striving to help China’s commercial aerospace achieve a fundamental breakthrough in large-capacity, low-cost, and reusable launch vehicle technology in the next three years!

There are ways to pursue dreams, and Suzaku will fly again. Landspace will continue to focus on core technology research and substantial capacity improvement, build advanced rocket manufacturing systems, and ensure the efficient independent research and development and batch production capabilities of the “Suzaku” series rockets and “Tianque” series engine products , injecting strong momentum into the rapid progress of China’s aerospace technology, stimulating new quality productivity, and leading the vigorous development of future industries !

We would like to thank the Jiuquan Satellite Launch Center of China for its strong guidance and assistance to Blue Arrow Aerospace!

We would like to thank Beijing City, Beijing Economic and Technological Development Zone, Shanghai City, Zhejiang Province, Jiaxing City, Huzhou City and other party and government agencies and departments at all levels for their deep support and care for Blue Arrow Aerospace!

Thank you satellite customers for your firm trust and valuable support to Landspace!

We would like to thank all shareholders for their strong support and for working side by side with Blue Arrow Aerospace to achieve great success!

We would like to thank our partner China Merchants Bank for its sincere trust in Landspace!

We would like to thank all media platforms for their continued attention and coverage, and for supporting Blue Arrow Aerospace’s mission!

Thank you to every Blue Arrow employee, and salute every bit of effort and sweat you have put into Blue Arrow! Deeply thank all Blue Arrow family members for their silent dedication and tolerance and understanding!

Thank you to all the friends who pay attention to and support China’s space industry. Your enthusiasm and expectations are the driving force for us to keep moving forward!

Zhuque-3 (model code: ZQ-3) is the next-generation reusable liquid oxygen-methane carrier rocket of Landspace, China’s first stainless steel liquid carrier rocket, with a body diameter of 4.5m, a fairing diameter of 5.2m, a total length of 76.6m, a takeoff mass of approximately 660t, and a takeoff thrust of approximately 900t. The power system uses the Tianque series liquid oxygen-methane engine independently developed by Landspace.

The first stage of ZQ-3 is designed to be reused no less than 20 times. Its low-orbit carrying capacity for a one-time use mission can reach 21.3 tons, and its area recovery mission is 18.3 tons. It can strongly support the high-density launch of my country’s satellite Internet network, the GTO orbit launch of large communication satellites, and the launch of various types of spacecraft, and comprehensively promote China’s commercial space industry to enter the era of high-capacity, repeatable and low-cost satellite Internet!

Images and visuals are from their Respectives.

#CNSA #ChinaNationalSpaceAdministration #国家航天局 |#BRI #June2024 | #嫦娥六号#Change6 South Pole-Aitken successfully Basin #LunarSampleReturnMission #DarksideOfTheMoon Chang’e 6  Finally returns home.. 

嫦娥六号  Change’ Six  CNSA China National Space Administration….  China’s Lunar Sample Lunar Return Mission  successfully returned home! ……At 14:07 Beijing Time  on June 25, 2024, the Chang’e 6 returner landed accurately in the designated area of ​​Siziwang Banner, Inner Mongolia, China, People’s Republic of China.  and worked normally, marking the complete success of the Chang’e 6 lunar exploration mission and the world’s first return of samples from the back of the moon

Returning to Earth today! 嫦娥六号 Completed orbital return unlocking and separation] At about 13:22, the Beijing Aerospace Flight Control Center injected high-precision navigation parameters into the Chang’e 6 orbiter and returner combination through the ground tracking and control station. After that, the orbiter and returner were normally unlocked and separated at an altitude of about 5,000 kilometers above the South Atlantic sea level, and the orbiter completed the orbital avoidance manoeuvre as planned….

嫦娥六号  successfully returned home! …….Today, the Chang’e 6 returner landed accurately in the designated area of ​​Siziwang Banner, Inner Mongolia, and worked normally, marking the complete success of the Chang’e 6 lunar exploration mission and the world’s first return of samples from the back of the moon…

At 17:27 on May 3rd Friday 2024  Beijing time CNSA –China National Space Administration, the Chang’e-6 probe was successfully launched by the Long March 5 Yao-8 carrier rocket from the Wenchang Space Launch Site in Hainan Province,  China, People’s Republic of China., and accurately entered the Earth-moon transfer orbit. The launch mission was a complete success. The Chang’e-6 probe has embarked on the world’s first return journey for sampling from the far side of the moon. The pre-selected landing and sampling area is the South Pole-Aitken Basin on the far side of the moon.

[ Chang’e 6 completes sampling and ascender takes off from the far side of the moon and enters the scheduled lunar orbit]

According to the National Space Administration, at  4th June 2024 7:38 Beijing time today, the Chang’e 6 ascender carrying lunar samples took off from the far side of the moon. After the 3000N engine worked for about 6 minutes, it successfully sent the ascender into the scheduled lunar orbit. From


[Xi Jinping sent a message on behalf of the CPC Central Committee, the State Council and the Central Military Commission to congratulate the successful completion of the Chang’e-6 lunar exploration mission]

Xinhua News Agency, Beijing, June 25 (Xinhua) Xi Jinping, General Secretary of the CPC Central Committee, President of the State and Chairman of the Central Military Commission, sent a message on behalf of the CPC Central Committee, the State Council and the Central Military Commission to congratulate the successful completion of the Chang’e-6 lunar exploration mission. The full text of the congratulatory message is as follows:

All comrades in the Chang’e-6 lunar exploration mission command and participating in the mission:

I am glad to hear that the Chang’e-6 lunar exploration mission has achieved a complete success. On behalf of the CPC Central Committee, the State Council and the Central Military Commission, I extend my warm congratulations and sincere greetings to you!

Chang’e-6 achieved the first return of samples from the back of the moon in human history, which is another landmark achievement in China’s construction of a space power and a science and technology power. Over the past 20 years, all comrades involved in the development and construction of the lunar exploration project have carried forward the spirit of lunar exploration, bravely climbed the peak of science and technology, achieved major achievements that have attracted worldwide attention, and embarked on a high-quality and high-efficiency lunar exploration path. The outstanding contributions you have made will be remembered forever by the motherland and the people!

I hope you will seize the opportunity, carefully carry out scientific research on lunar samples, continue to implement major aerospace projects such as deep space exploration, strengthen international exchanges and cooperation, and move forward courageously towards the goal of becoming a space power. Make new contributions to exploring the mysteries of the universe and enhancing human well-being, and make new contributions to comprehensively promoting the construction of a powerful country and the great cause of national rejuvenation with Chinese-style modernization!

Xi Jinping

June 25, 2024

At 14:07 on June 25, 2024, the Chang’e-6 returner accurately landed in the predetermined area of ​​Siziwang Banner in Inner Mongolia and worked normally, marking the complete success of the Chang’e-6 mission of the lunar exploration project and achieving the world’s first return of samples from the back of the moon. At about 13:20, the Beijing Aerospace Flight Control Center injected high-precision navigation parameters into the Chang’e-6 orbiter and returner combination through the ground measurement and control station. After that, the orbiter and returner unlocked and separated normally at about 5,000 kilometers above sea level in the South Atlantic Ocean, and the orbiter completed the orbit avoidance manoeuvre as planned. At about 13:41, the Chang’e-6 returner entered the Earth’s atmosphere for the first time over the Atlantic Ocean at a height of about 120 kilometers above the ground at a high speed close to the second cosmic speed (about 11.2 kilometers/second), and implemented its first aerodynamic deceleration. .

After descending to a predetermined altitude, the returner jumped upwards out of the atmosphere over the Indian Ocean, and began to glide down after reaching the highest point. After that, the returner re-enters the atmosphere and implements secondary aerodynamic deceleration. When it drops to an altitude of about 20 kilometers above the ground, the returner switches to the parachute opening attitude. At an altitude of about 10 kilometers, the return vehicle opened its parachute, completed the final deceleration and maintained a stable attitude, and then landed smoothly in the predetermined area. The launch site and recovery system technicians responsible for the search and recovery mission conduct returner searches based on the location information and action paths reported by the Beijing Center, discover the target in a timely manner, confirm that the returner status is normal, and carry out recovery work in an orderly manner as planned. After the final Chang’e-6 returner completes necessary ground processing, it will be airlifted to Beijing to open the cabin and remove the sample container and cargo. The National Space Administration will choose an opportunity to hold a handover ceremony to formally hand over lunar samples to the ground application system, and will subsequently carry out work related to sample storage, analysis and research. The Chang’e-6 probe was launched from the Wenchang Space Launch Site in China on May 3 and entered the Earth-moon transfer orbit. After orbit correction and near-lunar braking, the probe successfully entered a lunar orbit. After that, the probe experienced the separation of the lander and ascender assembly, and the orbiter and returner assembly. With the support of the Queqiao-2 relay satellite, the lander and ascender assembly carried out orbital descent and powered descent around the moon.

 On June 2, it accurately landed in the pre-selected area of ​​the South Pole-Aitken Basin on the far side of the moon and carried out sampling work. On June 4, the ascender was ignited for takeoff and accurately entered orbit. On June 6, it completed the rendezvous and docking with the orbiter and returner assembly and sample transfer. After that, it separated from the orbiter and returner assembly as planned and was controlled. The moon falls. After that, the orbiter and returner combination experienced 13 days of waiting around the moon. After completing two lunar-Earth transfer incidences and one orbit correction, the returner separated from the orbiter on June 25 and carried heavy samples from the back of the moon. Return to Earth. After the Queqiao-2 relay satellite successfully completes the Chang’e-6 mission, it will choose an opportunity to carry out scientific detection missions. The extreme ultraviolet camera, array neutral atom imager and Earth-Moon Very Long Baseline Interferometry (VLBI) test system it carries will Collecting scientific data from the moon and deep space…

Images and visuals are from their Respectives CMS China Manned SpaceCNSA-China National Space Administration

#CNSA #ChinaNationalSpaceAdministration #国家航天局 |#BRI #June2024| #酒泉卫星发射中心 #JiuquanSatelliteLaunchCenter – #中国航天科技集团#ChinaAerospaceScienceAndTechnologyCorporation  – China’s first 10-kilometer-class vertical take-off and landing flight test of a #ReusableCarrierRocket was a complete success…

[China’s first 10-kilometer-class vertical take-off and landing flight test of a reusable carrier rocket was a complete success]

On June 23rd 2024, China’s first 10-kilometer-class vertical take-off and landing flight test of a reusable carrier rocket was a complete success. The rocket was developed by the Eighth Academy of China Aerospace Science and Technology Corporation.

 At about 1300 hours Beijing Time, at the Jiuquan Satellite Launch Center, Inner Mongolia, China, People’s Republic of China , a 3.8-meter-diameter reusable carrier rocket new technology verification arrow was erected on the launch pad. Three variable thrust liquid oxygen-methane engines were ignited, spewing blue tail flames. The rocket body rose to an altitude of about 12 kilometers. The central engine adjusted the thrust, and the rocket descended in a controlled manner. At 50 meters from the ground, the four landing legs unfolded, and then the rocket slowly descended, approaching zero altitude, and landed steadily on the recovery field, achieving a fixed-point vertical soft landing.


This test is currently the largest-scale vertical take-off and landing flight test of a reusable carrier rocket in China, and it is also the first application of the domestically developed deep variable thrust liquid oxygen-methane engine in a 10-kilometer-class return flight.
The entire test took about 6 minutes. The rocket went through five stages: accelerated ascent, decelerated ascent, accelerated descent, decelerated descent, and slow descent, achieving “take-off, accurate control, unfolding, and stable landing”.

[Take off, control accurately, deploy, and land steadily! China’s first 10-kilometer-level vertical take-off and landing flight test of a reusable carrier rocket was a complete success]

Three variable thrust liquid oxygen-methane engines were ignited, spewing blue tail flames. The rocket body rose to an altitude of about 12 kilometers. The central engine adjusted the thrust, and the rocket descended in a controlled manner. At 50 meters from the ground, the four landing legs unfolded, and then the rocket slowly descended, the altitude approached zero, and landed steadily on the recovery field, achieving a fixed-point vertical soft landing.



The entire test took about 6 minutes. The rocket went through five stages: accelerated ascent, decelerated ascent, accelerated descent, decelerated descent, and slow descent, achieving “take off, control accurately, deploy, and land steadily.”

The test fully verified the 3.8-meter diameter rocket body structure, large load landing cushioning technology, high-thrust strong variable thrust reusable engine technology, dual cryogenic pressurization delivery technology, high-precision navigation guidance control technology for return and landing, and health monitoring technology, laying a technical foundation for the first flight of a 4-meter-class reusable carrier rocket as scheduled in 2025. This test is currently the largest-scale vertical take-off and landing flight test of a reusable carrier rocket in China, and it is also the first application of the domestically developed deep variable thrust liquid oxygen-methane engine in a ten-Kilometer-class return..


The test fully verified the 3.8-meter-diameter rocket body structure, large-load landing buffer technology, large-thrust strong variable thrust reusable engine technology, dual low-temperature pressurization delivery technology, high-precision navigation guidance control technology for return and landing, and health monitoring technology, laying a technical foundation for the first flight of a 4-meter-class reusable carrier rocket as scheduled in 2025.


The apex of the flight profile of this test is the stratosphere at an altitude of about 12 kilometers. Subsequently, the research and development team will carry out a 70-kilometer-level vertical take-off and landing test of a reusable carrier rocket, which will basically cover the flight profile of the first stage of the rocket, and take another big step towards the goal of the first flight of a reusable carrier rocket.

Images and visuals are from their Respectives CMS China Manned SpaceCNSA-China National Space Administration

#MadeInChina #中國製造 #中國 | #星河动力空间科 #GalacticEnergy #June2024| #CarrierRocketShopping #谷神星一号遥 #Ceres1  Yao 13 Launched Successfully three #LoveOnTop  #Satellites   including the #TEE-01B (Earth Eye 1 Satellite) #Nanostar-3A and B satellites were successfully launched … 

星河动力空间科技有限公司 Galactic Energy-  Galaxy Power (Beijing) Space Technology Co., Ltd.Located in Block D, Aviation Technology Plaza, E-Town, and Beijing – Beijing – China – People’s Republic of China ….Galaxy Aerospace is the first private aerospace company in China to achieve successful continuous launches, the first to send commercial networked satellites into a 500km sun-synchronous orbit, and the first to master the ability to launch multiple satellites with one carrier rocket

At 6th June 2024-  1300 Hong Kong SAR- Beijing Time today, China. People’s Republic of China successfully TEE-01B (Earth Eye 1 Satellite), Nanostar-3A and B, a total of 3 satellites using the Ceres-1 commercial carrier rocket at the Jiuquan Satellite Launch Center Inner Mongolia. …. The satellites successfully entered the predetermined orbit and the launch mission was a complete success.

The first flight of the Eros orbit retention stage! The Ceres-1 launch vehicle achieved three successes in ten days!



At 13:00 Beijing time on June 6, 2024, the Galaxy Power Aerospace Company successfully launched the Ceres-1 (Yao 13) launch vehicle (mission code: Love On Top) at the Jiuquan Satellite Launch Center, successfully sending TEE-01B (Earth Eye 1 Satellite), Nanostar-3A and B, a total of 3 satellites and the Eros orbit retention test platform into a sun-synchronous orbit with an instantaneous orbital altitude of 545km. This is the third successful launch of the Ceres-1 launch vehicle in ten days!

The TEE-01B satellite (Earth Eye 1 satellite) has an orbital altitude of 545km and can obtain remote sensing images with a ground pixel resolution of 0.52m and a width better than 14.8km at the sub satellite point. It is used to provide remote sensing data services for China’s land and resources monitoring, mineral resources development, smart city construction, forestry resources census, ecological environment monitoring, public emergency health and other fields.

Nanostar-3A and Nanostar-3B are two remote sensing technology verification satellites jointly developed by Tsinghua University and Beijing Tianlian Measurement and Control Technology Co., Ltd. They are mainly used for ground remote sensing imaging and ground optical beacon navigation verification.

The Eros Orbital Test Platform is the first commercial rocket final stage orbital test platform in China. It was independently developed by Galaxy Power Aerospace Company. The test platform is based on the final stage of Ceres-1 launch vehicle. It has achieved on-orbit operation capability through upgrading. It can provide a low-cost and convenient verification platform for on-orbit testing of new technologies, new devices and new products. The service modes mainly include the following:

Mode 1: On-orbit verification of new devices and new products. It can conduct on-orbit verification of new or self-developed components, new materials and new products, provide verification support for the on-orbit application of new devices or new products, and reduce the direct application risk of new materials or new products in aerospace models.

Mode 2: It can conduct on-orbit verification of various aerospace new technologies such as on-orbit manufacturing, on-orbit maintenance, space control, and aircraft life extension, and realize on-orbit verification and on-orbit iteration of new technologies.


Mode 3: Space biological experiments. It can be used to study the biological effects of space gravity, the growth of biological macromolecule crystals in space, space cell and tissue engineering, space protective drugs and equipment, and synthetic materials for weightless environments.



The Eros orbital test platform is equipped with a millinewton-level electric propulsion payload developed by Beijing Star Space Technology Co., Ltd., which will be verified in orbit.

Subsequently, Galaxy Power Aerospace Company will continue to expand new boundaries of space business through extensive and in-depth technological innovation, and contribute its own strength to the innovative development of China’s commercial aerospace industry.

So far, Galaxy Power Aerospace has successfully launched 48 commercial satellites of different types for 20 satellite customers…

Images and visuals are from their respectives also Galactic Energy is located in Block D, Aviation Technology Plaza, E-Town, Beijing- China – People’s Republic of China  

#MadeInChina #中國製造 #中國 | #星河动力空间科 #GalacticEnergy #May2024| #CarrierRocketShopping #谷神星一号遥 #Ceres1  Yao 13 Launched Successfully five  #Satellites   including the #Aurora #ConstellaitonSatellites 01, 02 and other 5 satellites were successfully launched …  

星河动力空间科技有限公司 Galactic Energy-  Galaxy Power (Beijing) Space Technology Co., Ltd.Located in Block D, Aviation Technology Plaza, E-Town, and Beijing – Beijing – China – People’s Republic of China ….Galaxy Aerospace is the first private aerospace company in China to achieve successful continuous launches, the first to send commercial networked satellites into a 500km sun-synchronous orbit, and the first to master the ability to launch multiple satellites with one carrier rocket

At 7:39 am Hong Kong SAR- Beijing Time today, China. People’s Republic of China successfully launched Aurora Constellation 01 and 02 satellites using the Ceres-1 commercial carrier rocket at the Jiuquan Satellite Launch Center inner Mogolia. The satellites successfully entered the predetermined orbit and the launch mission was a complete success. The mission also carried and launched the Zhangjiang Hi-Tech Satellite, Yunyao-1 26 Satellite and Hebei Linxi-1 Satellite

Just two days after a successful sea launch, Chinese commercial space company Galactic Energy launched another rocket on Friday (May 31). The CERES-1 Y12 carrier rocket delivered five satellites into the planned twilight orbit. The company has set a record for the shortest……..Only one day later! The launch of Ceres-1 was a complete success again! At…….7:39 am on May 31, 2024, Beijing time, the Galaxy Power Aerospace Company successfully launched Ceres-1 (Yao 12) Jiangnan Central Area Code Launch Vehicle (mission code: Heroes) at the Jiuquan Satellite Launch Center, successfully sending Aurora Constellation 01 (Fudan Information Satellite), 02 (Shanghai Institute of Electric Power No. 1), Hebei Linxi No. 1 Satellite, Zhangjiang Hi-Tech Satellite, and Nishuihan No. 2 Satellite into a 535km dawn-dusk orbit.



Aurora Constellation 01 (Fudan Information Satellite) and 02 (Shanghai Institute of Electric Power No. 1) were jointly developed by Beijing Aurora Starcom Technology Co., Ltd., China Aerospace Science and Technology Corporation, Shanghai AES Aerospace, Galaxy Power Aerospace Company, Beijing Tianlian Measurement and Control, Fuchang Space, Xuntian Aerospace, the 29th Institute of China Electronics Technology Group Corporation, School of Information Science and Engineering of Fudan University, Shanghai Institute of Electric Power and other units. They will carry out long-term communication verification between satellites and between satellites and the ground in orbit, build an “on-orbit laser communication experimental platform”, which can respond to business scenario requirements of different rates, different systems, and different orbital spacings in orbit, fully explore the impact factors of key industry concerns such as space environment, hot and cold alternation, platform attitude disturbance, orbit control maneuvering on long-term link establishment communication, further optimize the ATP tracking algorithm, explore the feasibility and robustness of low-level components in commercial aerospace, carry out on-orbit verification in advance for the feasibility of laser communication application in my country’s low-orbit satellite Internet giant constellation, accumulate on-orbit data, and share the experimental data with users and industry experts, laying the foundation for accelerating the construction of my country’s giant constellation.



Hebei Linxi-1 satellite was jointly developed by Tianjin Yunyao Aerospace Technology Co., Ltd. and Beijing Juntian Aerospace Technology Co., Ltd. The satellite is a meteorological remote sensing satellite equipped with GNSS occultation atmospheric detection payload, which can obtain information such as atmospheric temperature, humidity, air pressure and ionosphere electron density, making up for the shortcomings of traditional meteorological observation methods. The satellite adopts the Juntian-1 satellite platform, which fully reflects the modular, integrated and low-cost design concept. The platform uses the intelligent on-orbit management system independently developed by Juntian Aerospace, which greatly improves the satellite’s autonomous control capability and comprehensive use benefits.



Zhangjiang Hi-Tech Satellite and Nishuihan-2 Satellite fully inherit the mature products and development technology solutions of infrared remote sensing satellites, and have the characteristics of high integration, light weight, small size and high cost performance. The satellite is equipped with GNSS occultation and long-wave infrared camera payloads. The atmospheric temperature, humidity, pressure and ionosphere electron density can be obtained by inverting GNSS occultation data. The target information is obtained through the long-wave infrared camera, and the atmospheric and hot spot targets are detected. It has broad application prospects and application value in the field of meteorological observation.

As the test payload, the perovskite components of Photon Technology were sent into space along with the rocket to collect and analyze data such as the operating tolerance and efficiency of perovskite solar cells in the extreme environment of space.

Thanks to Jiangnan Concentration Zone and NetEase Game “Nishuihan” for their strong support for this launch!

This launch mission is the launch mission that Galaxy Dynamics Aerospace Company completed consecutively just one day after completing the Ceres-1 sea-launched (Yao-2) mission on the 29th of this month. It is the two shortest launch time intervals between private commercial rocket companies. Commercial launch delivery demonstrates the huge potential and broad prospects of China’s commercial aerospace market. Galaxy Power Company is helping China’s commercial aerospace industry continue to grow and develop with broader technological innovation and more efficient commercial operations.

Up to now, Galaxy Power Space Company has served nearly 20 commercial satellite customers and successfully launched 44 commercial satellites of different types.

Images and visuals are from their respectives also Galactic Energy is located in Block D, Aviation Technology Plaza, E-Town, Beijing- China – People’s Republic of China