#CNSA #ChinaNationalSpaceAdministration #国家航天局 |#BRI #August2024 |#时空道宇科技 #SpaceTiemDaoyuTechnology #Geely #GeeSpace CCTV’s “Dialogue” program interviewed GeeSpace CEO Wang Yang: Building a low-orbit communication constellation to expand human – A Translation…..  #ASummary 

时空道宇科技 Space Time Daoyu Technology – Zhejiang Spacetime Daoyu Technology Co., Ltd. Zhejiang Spacetime Daoyu Technology Co., Ltd. Geely GeeSpace  is Located  10th Floor, Building 1, Xinglian Technology Park, No. 1535 Hongmei Road, Xuhui District, Shanghai Ultra Mega City, China, People’s Republic of China. ..  Is a technology innovation enterprise strategically invested by Geely. Founded in 2018, it is committed to becoming a global leading AICT infrastructure and application solution provider. SpaceSpace is a technology innovation company under Geely Holding Group. It was founded in 2018 and is committed to becoming a global leading provider of aerospace information and communication infrastructure and application solutions. SpaceSpace is committed to promoting the commercialization and upgrading of China’s satellite industry chain and the commercialization and application of China’s aerospace technology.

SpaceTime Aerospace focuses on constellation business, satellite manufacturing, and satellite application fields, providing highly competitive, safe and reliable products and services. In the field of satellite manufacturing, through self-developed general-purpose satellite platforms of various scales, as well as low-cost, highly reliable satellites and supply chain products, one-stop in-orbit delivery from satellite development to satellite mass production AIT is achieved. In the field of satellite applications, SpaceTime Aerospace provides global medium- and low-speed satellite communication services, satellite-based high-precision positioning services, and satellite remote sensing AI services through future travel constellations and its own ground systems. It deeply integrates aerospace technology with automobile manufacturing, future travel, and artificial intelligence, and cooperates with ecological partners in an open manner to continuously create value for customers and build a new generation of aerospace digital economy.

Through the construction of the future travel constellation, Spacetime Daoyu will create a “future travel” ecosystem with full coverage, combining multi-dimensional carriers such as automobiles and consumer electronics products to empower smart travel, unmanned systems, smart cities and other fields, and create a future travel technology ecosystem.

On August 17, CCTV’s “Dialogue” interviewed Wang Yang, CEO of Zhongkong Daoyu. The following is the transcript of the conversation.

Host: Mr. Wang, this satellite on the screen is your target, right?

Wang Yang: Yes. What we are doing is to send satellites into space and build a global low-orbit communication constellation. We are currently launching 72 satellites into a 600-kilometer low-altitude orbit. After these 72 satellites are deployed, they can provide satellite network signal coverage anywhere in the world except the North and South Poles.

Host: What is the difference between this low-orbit satellite and an ordinary satellite?

Wang Yang: For example, the live broadcast signals of the current Paris Olympics are generally transmitted via high-orbit satellites. From the surface of the earth, there is a geosynchronous orbit about 36,000 kilometers above the earth, and three high-orbit satellites can cover the entire surface of the earth. However, with the development of technology, we have found that satellites can play a greater role in the low-orbit area of ​​300 to more than 1,000 kilometers. For example, it may take 240 milliseconds of delay to communicate with a high-orbit satellite, but it only takes 20 milliseconds to communicate with a low-orbit satellite. The overall transmission efficiency and delay of a low-orbit satellite are even better than those of ground optical fibers. At the same time, it can cover places that our ground base stations cannot cover.

Host: Mr. Wang, you just said that three high-orbit satellites can cover the world, so is it necessary for us to build 72 (low-orbit satellites)?

Wang Yang: It is precisely because the cost of high-orbit satellites is too high. We need at least 1 billion RMB to build a high-orbit satellite, and its launch cost is also very expensive. If it is a low-orbit satellite, its price will drop by one or two orders of magnitude, and it is safer. The failure of any satellite will not affect the reliability of the entire communication. The capacity of low-orbit satellites will be larger and the speed will be faster. One of the problems we often encountered before is that the human ground network is so perfect, with optical fiber, base stations, and core networks. The ground network it has established can even provide network signals at the base camp in the Himalayas. But the real situation is that 94% of the world has no signal coverage. In the world, our understanding of the blue planet is still far from enough.

Host: Is it worth it for us to spend money to provide radio signals to places where there are not many people?

Wang Yang: This should be an inevitable trend. Humans will continue to expand the boundaries of space, such as conquering uninhabited areas, and even going beyond the Earth to travel to the stars. With satellites, whether our friends are in the desert, on the island farthest from the mainland, or even traveling in the future, our mobile phones, cars, and aircraft can all be connected to data everywhere.

Host: When will we be able to achieve the goal of launching 72 satellites?

Wang Yang: We should be able to complete the deployment of 72 satellites in about 12 months. (After the deployment of the third-orbit satellite is completed) we will provide commercial services to the world. In fact, we have reached a stage where applications are being put into practice.

Host: (Compared to the long cycle of other future industries) Yours only takes one year?

Wang Yang: Actually not. We have experienced 10 years of continuous entrepreneurship, and most of our team members have accumulated nearly 20 years of experience in the entire aerospace field.

Host: Do you have any longer-term goals?

Wang Yang: In the second phase, we will focus on the establishment of a low-orbit communication constellation of 300 satellites. The low-orbit space is already very crowded, with more than 6,000 Starlink satellites operating at 300 to 500 kilometers, so it is urgent to occupy the frequency and orbit positions in the entire space.

Host: We have the impression that artificial satellite technology is relatively mature. Are there any scientific shortcomings in your field that need to be addressed?

Wang Yang: In fact, aerospace itself is a system engineering, not a theoretical study. For example, the theoretical system of all the aircraft designs we are involved in now was very complete 100 years ago, and the current engineering cycle is just different.

Host: If you want to widen the gap with your peers, do you need to build a moat in certain areas?

Wang Yang: This is indeed necessary. We have established our own moat in the layout of the industrial chain of commercial aerospace and the commercialization of the landing. The landing of large-scale commercial applications has always been a difficulty in the development of commercial aerospace companies. We have taken the lead in achieving breakthroughs in this regard. I brought a self-developed satellite communication chip, which uses the industry-leading 22nm process. This chip is actually used in our current mobile phones. We have launched a constellation of low-orbit communication satellites for satellite communications. How do we use it on the ground and how do we demodulate our signals? We will implant this 4mm chip into existing mobile phones, and use the mobile phone antenna to transmit satellite data.

Host: It sounds like our goals are very ambitious. Can other industries or other supporting facilities keep up? Are they too advanced?

Wang Yang: I think what we are doing now is actually achievable based on China’s entire industrial foundation. Our team used to have many people from the national team, as well as some experts from the Chinese Academy of Sciences. At the beginning of the business, we repeatedly reminded ourselves that the probability of scientists dying in entrepreneurship is extremely high, and it may even be a disaster to some extent. Therefore, when we consider the entire business rhythm, it must be consistent with the underlying logic of commercialization.

Back to the information and communication industry, it is actually very clear. Since the beginning of 2000, the 3G era has come, and at that time we had mobile Internet. In the last decade, the 4G era came, and we have the current digital economy era. So what is this decade? We see China’s 5G and the United States’ Starlink. The information and communication industry will definitely be able to achieve full coverage from 5G to 6G, meeting all our human travel requirements from the surface to low altitude and then to space. Of course, I think 8G should be the era of interstellar immigration. We will have network signals all the way from here to Mars, and it will become a reality.

Moderator: Capital participation requires a valuation and calculation. Can you give us a calculation for the field you are engaged in? How much money do you think it will cost based on the future development potential and the technology we have invested in?

Wang Yang: We have invested billions in research and development in the past six years. In our industry, whether it is a rocket company, a satellite company, or now a more advanced constellation networking company, its valuation will definitely exceed 10 billion.

Host: Regarding policies, what kind of policy soil is needed to plan for future industries?

Wang Yang: Considering the characteristics of low-orbit communication constellations in commercial aerospace, I think we should encourage the globalization of China’s commercial aerospace in the foreign trade sector, that is, the “going global” of the entire technology products and services. We look forward to the introduction of some national standards in this regard. We used to study some Western industry-university-research behaviors. In China’s system, from districts, cities, provinces to the country, the entire industrial policy support and innovation encouragement for each industry are very complete, but in fact, the real technology will eventually fall on commercial realization. This should be the government holding the baton, and then through the market economy, that is, the role of leading enterprises, to drive the innovation of engineering and original technology. This is actually a logical cycle. If we only mention one end, this matter will definitely be biased.

Host: What will our lives be like when this field develops to a mature stage?

Wang Yang: Let me make a creative summary. I believe that humans will always have the need to communicate with the outside world in the social system, so the implementation of all technologies and engineering around human communication will continue to develop iteratively. Like what we are doing in aerospace now, no matter where humans are now or where humans will explore in the future, we will ensure that there is network connection and communication methods. This is my wish.

Images and visuals are from their Respectives

#MadeInChina #中國製造| #中科宇航 #ZhongkeAerospace #ChinaAcademyOfScience #CASSPace #August2024 | #CarrierRocket #ReusableCarrierRocket #MannedReusableCarrierRocket #CarrierRocket Series The three-core parallel Lijian-2 has entered the engineering development stage, and its first flight will be equipped with a cargo spacecraft!

Beijing Zhongke Aerospace Exploration Technology Co., Ltd. is the first domestic aerospace enterprise with mixed ownership, and it is also the target enterprise that Oriental Aerospace Port focuses on introducing. Relying on the scientific research strength and resource advantages of the Institute of Mechanics of the Chinese Academy of Sciences and the Aerospace Flight Technology Center of the Chinese Academy of Sciences, China Aerospace Science and Technology has been committed to the research and development and integration of space technology and aerospace vehicles as a platform for the transformation of major national scientific research projects, as well as the transformation and provision of technological achievements. Aerospace launch service. The Lijian-1 rocket project also adds a brand-new name card to the Oriental Space Port, which will surely promote the construction of the Oriental Space Port to take a solid step forward.

Static test of composite cabin of “Lijian-2” liquid launch vehicle

Before July 29, 2024, the static test of the composite cabin of the “Lijian-2” liquid launch vehicle was successful. This test mainly verifies whether the structural scheme meets the design requirements under the maximum design load and assesses the feasibility of the composite scheme. Since the beginning of this year, the development of the “Lijian-2” rocket has been rapidly advanced and is steadily moving towards its first flight.

Three cores in parallel, bundled recycling

“Lijian-2” is a medium-sized cryogenic liquid carrier rocket developed by the China Aerospace Science and Technology Corporation (CAS Space). It adopts a two-and-a-half-stage configuration. The take-off stage adopts a CBC configuration, in which the core first stage and two core first stage module boosters are bundled side by side, and the core second stage is connected in series on the core first stage.

The first stage of the rocket core is equipped with three YF-102 liquid oxygen-kerosene engines, adopting an open gas generator cycle and a pump-front swing design, supporting double swing of ±6°, a single sea level thrust of approximately 85 tons (835 kN), a sea level specific impulse of 275.5 seconds, and a thrust-to-weight ratio of not less than 130; the two boosters are configured basically the same as the first stage of the core; the second stage of the core is equipped with a YF-102V liquid oxygen-kerosene engine with a thrust of approximately 72 tons (710 kN), which can achieve 55%~100% variable thrust, a vacuum specific impulse of 320 seconds (throttling)~330 seconds, and support repeated starts for no less than 2 times.

Schematic diagram of the Force Arrow II

The entire rocket of “Force-2” is 52 meters high. The diameters of the core stage, core stage and booster are all 3.35 meters. It is equipped with a fairing with a diameter of 4.2 meters. The take-off mass is 625 tons and the take-off thrust is 766 tons. Its low-Earth orbit (LEO) carrying capacity is 12 tons and its 500-kilometer sun-synchronous orbit (SSO) carrying capacity is 8 tons.

The ultimate goal of “Force Arrow II” is to become a reusable launch vehicle, realize multiple recovery and reuse of the core stage and boosters, and support reuse more than 20 times. The three-core parallel launch stage of the arrow will implement cluster separation and cluster recovery. The convenience lies in that it only needs to be equipped with a flight control system and a recovery and landing system, the latter includes a set of sang rudders and a set of landing legs. Two of the four sang rudders are distributed in the core stage, and the other two are distributed in the boosters. Two of the four landing legs are distributed in the core stage, and the other two are distributed in the boosters. According to the plan, “Force Arrow II” will realize the recovery of the core stage and booster modules in 2028.

The first flight is to launch a cargo spacecraft

Since the proposal, the “Lijian-2” has undergone major changes in the plan. The current design is very different from the previous single-stage plan, and the first flight has been postponed for several years. According to the plan, in August 2025, the “Lijian-2” will make its first flight at the No. 2 station of the Wenchang Commercial Space Launch Site, and the takeoff stage will not be recovered.

The first flight mission of “Lijian-2” carried a heavy-duty cargo spacecraft. The cargo spacecraft was developed by the Microsatellite Innovation Institute of the Chinese Academy of Sciences. In the bidding for the overall plan of the low-cost cargo transportation system for the Chinese space station released by the China Manned Space Engineering Office in May 2023, the Chinese Academy of Sciences and the Satellite Innovation Institute jointly carried out ship-rocket joint demonstration and key technology research, and carried out the “ship-rocket-cargo” integrated space-to-earth transportation system plan design. With the ship-rocket collaborative solution of the low-cost cargo spacecraft and the “Lijian-2” rocket, it was successfully shortlisted in the bidding and entered the detailed design stage of the plan.

The launch mission of the low-cost cargo spacecraft to be carried out by the Lijian-2 rocket is the first time that a Chinese commercial aerospace enterprise has participated in the development and launch of a low-cost cargo transportation project for the Chinese space station. If it is finally selected, the Lijian-2 will become China’s first commercial rocket to carry out manned space missions, which will also be a recognition of the reliability of the Lijian-2.

Build your own advantages by networking for the constellation!

As a commercial aerospace enterprise, China Aerospace Science and Technology is targeting the vast commercial space launch market, especially the low-orbit satellite constellation launch service market. my country’s currently planned low-orbit constellation contains tens of thousands of satellites, which require launch vehicles to provide large-capacity, high-frequency, low-cost, and high-reliability launch services. Compared with China’s liquid commercial rockets of the same level, the “Lijian-2” rocket does not have an advantage in capacity, but it can work hard on high frequency, low cost, and high reliability.

Create high-frequency launches. At the Hainan Commercial Space Launch Center in China, two launch stations have been built. Both stations have a designed launch capacity of 16 times per year. Station 2 is a general-purpose station that needs to support the launch of more than a dozen types of rockets, which is far from enough for high-frequency launches. In addition to using Hainan Commercial Launch Station 2, China Science and Technology Aerospace is building a dedicated technical preparation plant at the Jiuquan Satellite Launch Center and is about to build a dedicated launch station for the “Lijian-2” rocket. Based on self-built stations, China Science and Technology Aerospace will be able to achieve dozens of launch frequencies per year.

The core secondary box section of “Lijian-2”

Achieve low cost. “Lijian-2” uses a lot of mature technologies. The main power is all YF-102 series engines. All stages use mainstream tank modules with a diameter of 3.35 meters. It uses the same avionics system as “Lijian-1”. The application of mature and common technologies means that costs can be greatly reduced. At the same time, simplifying the design is another important way to control costs. For example, the core second-stage box section takes into account the functions of the traditional liquid rocket instrument cabin and cancels the core second-stage instrument cabin, which simplifies the cabin structure and saves materials.

Achieve high reliability. While applying mature and general technologies, the power system and avionics system adopt redundant design, and the separation scheme is simple, making the rocket highly reliable. For example, the launch stage of the rocket is equipped with 9 YF-102 engines, with a single sea level thrust of about 85 tons, a total rocket takeoff thrust of 766 tons, a takeoff mass of 625 tons, and a thrust-to-weight ratio of 1.23, achieving a large power redundancy, and can complete the launch mission in the event of one engine failure.

Schematic diagram of the heavy-duty “Force Arrow II”

Building a stronger model

After my country’s low-orbit constellation enters the large-scale networking period, the intensive networking and launch of tens of thousands of satellites requires a large-scale reusable launch vehicle, but the current “Lijian-2” has obviously insufficient capacity.

Based on the Lijian-2, China Aerospace Science and Technology will develop a more powerful “Lijian-2” heavy-lift launch vehicle (called “heavy”, but actually large). The latter is based on the former and adds two core-stage module boosters to achieve five cores in parallel (5CBC). The “Lijian-2” heavy-lift rocket is 56 meters high, with optional fairings of 4.2 meters and 5 meters in diameter, a takeoff mass of 913 tons, a low-Earth orbit (LEO) capacity of 22 tons, and a 500-kilometer sun-synchronous orbit (SSO) capacity of 15 tons. The core stage and booster can be reused more than 20 times.

In general, the “Force-2” will be a high-quality rocket that can meet market demand to a large extent. Facing the needs of constellation network launches, with its advantages of high frequency, low cost and high reliability, the “Force-2” is bound to become one of the main near-Earth “flights”.

Images and visuals are from their respectives

#MadeInChina #中國製造 |#深蓝航天 #LANDSPACE #DeepBlueLimitedCompany #August2024| Deep Blue Aerospace #ReusableCarrierRocket #星云-1 #Nebula1 #ReusableCarrierRocket preparations for  flight testing  stage one vertical take-off and landing recovery test Reusable Carrier Rocket 100 Kilometer testing …

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…..

[The first stage of the Deep Blue Aerospace Nebula-1 rocket is scheduled to conduct a high-altitude vertical recovery flight test in August and a 100-kilometer-level VTVL vertical recovery flight test at an appropriate time]

Recently, Deep Blue Aerospace successfully completed the B2 round of financing, fully accelerating the technological innovation of recyclable rockets and the commercialization of the recyclable and reusable rocket Nebula-1 (hereinafter referred to as “Nebula-1”). Wuxi High-tech Zone Investment and Control Group led this round of financing and became a cornerstone investor in multiple rounds, completing and locking in nearly 1 billion yuan in funds, injecting strong development momentum into the research and development and production of Deep Blue Aerospace, and jointly promoting the rapid development of China’s aerospace in the era of great aerospace

.

This round of funds will be mainly used to strengthen technology research and development, expand production scale, optimize supply chain management, and accelerate market promotion. It is worth noting that the Deep Blue Aerospace Rocket Intelligent Manufacturing and Assembly Base of more than 20,000 square meters has landed in Wuxi High-tech Zone. With the Beijing-Hangzhou Grand Canal as the background, it will accelerate the expansion of the rocket industry cluster along the canal. The Deep Blue Aerospace Rocket Canal Factory will become a demonstration base for high-end manufacturing and commercial rocket industries in Wuxi High-tech Zone. The

Canal Factory will be mainly used for the mass production of Nebula-1 and Nebula-2 rockets. As a representative of China’s recyclable rockets, the Nebula-1 rocket will significantly reduce launch costs and increase launch frequency, and will be of milestone significance for promoting the sustainable development of China’s commercial aerospace industry. At present, preparations for the first launch of the Nebula-1 rocket are in full swing. The Nebula-2 rocket, which is scheduled to make its maiden flight at the end of 2025, will have a takeoff scale of 1,000 tons and will also be recyclable and reusable. On

July 21, the Nebula-1 rocket completed a series of tests of the first-stage three-machine parallel full-time power system at the Deep Blue Jigang Test Base in Jinan City, simulating the full working conditions of high-altitude recovery flight and a large range of engine variable thrust tests, and achieved complete success. In August, the rocket body will go to the test site to prepare for the upcoming high-altitude vertical recovery flight test of the first stage of the Nebula-1 rocket, and will choose an opportunity to conduct a 100-kilometer-level rocket vertical recovery flight test. Each test of the rocket will accumulate valuable test data for the first flight of the Nebula-1 orbital rocket, ensuring that the Nebula-1 reusable rocket “goes into space without any problems” and that the first flight of the Nebula-1 rocket into orbit and recovery will be completed smoothly by the end of the year. Deep Blue Aerospace will continue to increase its R&D investment in the field of reusable rocket technology, and is committed to exploring more efficient, economical and environmentally friendly space launch solutions to promote the innovative development of China’s commercial space industry. (Deep Blue Aerospace )

Images and visuals are from their Respectives.

#MadeInChina #中國製造 #中國 | #星河动力空间科技有限公司#GalacticEnergy #July 2024|#CarrierRocketShopping Progress of#智神星一号 #Pallas1 #CarrierRocket  successfully completed a series of fairing tests.  

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.

[The Pallas-1 launch vehicle successfully completed a series of fairing tests]

On the 25th July 2024 The latest news from Galaxy Power; Recently, the company completed a series of static, modal, and separation tests on the Pallas-1 launch vehicle fairing, all of which were successful. The Pallas-1 series of launch vehicles are compatible with fairings with diameters of 3.35m, 4.2m, and 5.2m to meet the needs of different satellite customers. The fairing used in this test is one of the series of fairing products independently developed and designed by Galaxy Power, and is consistent with the status of the Pallas-1 Yao-1 flight test product.

The Pallas- 1 has a maximum low-orbit carrying capacity of 8 tons, with seven 50-ton liquid oxygen-kerosene engines in parallel in the first stage. It is scheduled to make its maiden flight at the end of this year….

Recently , Galaxy Aerospace completed a series of static, modal and separation tests on the fairing of the Pallas-1 launch vehicle, and all the tests were a complete success!

 The Pallas-1 series of launch vehicles are compatible with fairings with diameters of 3.35m, 4.2m, and 5.2m to meet the needs of different satellite customers. The fairing used in this test is one of the series of fairing products independently developed and designed by Galaxy Power, and is consistent with the Pallas-1 Yao-1 flight test product. The fairing adopts a von Karman shape, which has the advantages of low flight aerodynamic resistance, light structural mass and easy operation.

The fairing end cap is made of high-strength ablation-resistant composite material, a large area of ​​honeycomb sandwich composite material structure, and a metal frame structure at the rear. The fairing separation system adopts a “hinge-spring” half-cover rotation separation scheme, and the lateral and longitudinal separation unlocking devices both use point-type explosive bolts, which have small impact during the separation process and high separation reliability.

The static test of the fairing assessed the fairing’s ability to resist external loads and verified the structural strength. The test achieved the intended purpose and obtained relevant data. The modal test obtained the fairing’s modal parameters, providing a basis for structural dynamics model modification and fairing separation calculation.
 

The fairing separation test fully verified the correctness of the fairing separation system design, obtained the collision boundary data between the fairing separation body and the payload, assessed the adaptability of the structural system to the separation concentrated force load and the impact load of pyrotechnics, and obtained important mechanical environment parameters.

The complete success of the fairing series tests indicates that Galaxy Aerospace has the ability to quickly design, analyze and test large liquid rocket fairings, laying a solid foundation for the company’s subsequent model development.

Imagines and Visuals are from their respectives..

#CNSA #ChinaNationalSpaceAdministration #国家航天局 |#BRI July2024 |#长征十号#ChangZheng10 #CZ10 #LongMarch10 the Next Generation Manned #LunarCarrierRocket successfully completed the test of the  3D Printed Three #YK100K  first-stage rocket power engine system…

On the week of 23rd July  2024  CNSA _China National Space Administration -China – People’s Republic of China at a China Academy Of Launch Vehicle Technology  Engine Testing complex.. of the China Aerospace Science and Technology Corporation Sixth Academy…. China’s new generation of manned carrier rocket three-stage liquid hydrogen and liquid oxygen engine long-range high-model test was a complete success … for the长征十号 Chang Zheng- Long March

Recently, the new generation of manned carrier rocket three-stage liquid hydrogen and liquid oxygen engine completed a long-range test in a high-altitude simulated environment on China’s newly built vertical high-altitude simulation test bench, verifying the feasibility of long-range operation of China’s largest nozzle area ratio liquid hydrogen and liquid oxygen engine. The test was a complete success.

The success of this long-range high-model test indicates that China’s liquid hydrogen and liquid oxygen engine high-altitude simulation test capability has reached the level of thousands of seconds, which has greatly improved China’s liquid rocket engine high-model test capability and will strongly support the smooth implementation of China’s manned lunar exploration project. (China Aerospace Science and Technology Corporation Sixth Academy…

Long March 10 rocket is a three-and-a-half-stage rocket developed for the manned lunar exploration project. The total length of the rocket is 92.5 meters, the takeoff weight is about 2,189 tons, the takeoff thrust is about 2,678 tons, and the Earth-Moon transfer orbit carrying capacity is not less than 27 tons. In the future, it will be used to launch a new generation of manned spacecraft and lunar landers. In addition, the Long March 10 has also designed another booster-free configuration that can perform space station Takionaut and cargo transportation tasks….

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