The space program of the People's Republic of China is about the activities in outer space conducted and directed by the People's Republic of China. The roots of the Chinese space program trace back to the 1950s, when, with the help of the newly allied Soviet Union, China began development of its first ballistic missile and rocket programs in response to the perceived American (and, later, Soviet) threats. Driven by the successes of Soviet Sputnik 1 and American Explorer 1 satellite launches in 1957 and 1958 respectively, China would launch its first satellite, Dong Fang Hong 1 in April 1970 aboard a Long March 1 rocket, making it the fifth nation to place a satellite in orbit.

China has one of the most active space programs in the world. With space launch capability provided by the Long March rocket family and four spaceports (Jiuquan, Taiyuan, Xichang, Wenchang) within its border, China conducts either the highest or the second highest number of orbital launches each year. It operates a satellite fleet consisting of a large number of communications, navigation, remote sensing and scientific research satellites. The scope of its activities has expanded from low Earth orbit to the Moon and Mars. China is one of the three countries, alongside the United States and Russia, with independent human spaceflight capability.

Currently, most of the space activities carried out by China are managed by the China National Space Administration (CNSA) and the People's Liberation Army Strategic Support Force, which directs the astronaut corps and the Chinese Deep Space Network. Major programs include China Manned Space Program, BeiDou Navigation Satellite System, Chinese Lunar Exploration Program, Gaofen Observation and Planetary Exploration of China. In recent years, China has conducted several missions, including Chang'e-3, Chang'e-4, Chang'e-5, Tianwen-1 and Tiangong space station.

History

Early years (1950s to mid-1970s)

The Chinese space program began in the form of missile research in the 1950s. After its birth in 1949, the newly founded People's Republic of China was in pursuit of missile technology to build up the nation's defense for the Cold War. In 1955, Qian Xuesen (), the world-class rocketry scientist, returned to China from the United States. In 1956, Qian submitted a proposal for the development of China's missile program, which was approved in just a few months. On October 8, China's first missile research institute, the Fifth Research Academy under the Ministry of National Defense, was established with less than 200 staff, most of which were recruited by Qian. The event was later recognized as the birth of China's space program.

To fully utilize all available resources, China kick-started its missile development by manufacturing a licensed copy of two Soviet R-2 missiles, which were secretly shipped to China in December 1957 as part of the cooperative technology transfer program between the Soviet Union and China. The Chinese version of the missile was given the code name "1059" with the expectation of being launched in 1959. But the target date was soon postponed due to various difficulties arising from the sudden withdrawal of Soviet technical assistance due to the Sino-Soviet split. Meanwhile, China started constructing its first missile test site in the Gobi desert of Inner Mongolia, which later became the famous Jiuquan Satellite Launch Center (), China's first spaceport.

After the launch of mankind's first artificial satellite, Sputnik 1, by the Soviet Union on October 4, 1957, Mao Zedong decided during the National Congress of the Chinese Communist Party on May 17, 1958, to make China an equal of the superpowers (), by adopting Project 581 with the objective of placing a satellite in orbit by 1959 to celebrate the 10th anniversary of the PRC's founding. This goal was soon proven unrealistic, and it was decided to focus on the development of sounding rockets first.

The first achievement of the program was the launch of T-7M, a sounding rocket that eventually reached the height of 8 km on February 19, 1960. It was the first rocket developed by Chinese engineers. The success was praised by Mao Zedong as a good beginning of an indigenous Chinese rocket development. However, all Soviet technological assistance was abruptly withdrawn after the 1960 Sino-Soviet split, and Chinese scientists continued on the program with extremely limited resources and knowledge. It was under these harsh conditions that China successfully launched the first "missile 1059", fueled by alcohol and liquid oxygen, on December 5, 1960, marking a successful imitation of Soviet missile. The missile 1059 was later renamed as Dongfeng-1 (DF-1, ).

While the imitation of Soviet missile was still in progress, the Fifth Academy led by Qian had begun the development of Dongfeng-2 (DF-2), the first missile to be designed and built completely by the Chinese. After a failed attempt in March 1962, multiple improvements, and hundreds of engine firing tests, DF-2 achieved its first successful launch on its second attempt on Jun 29, 1964 in Jiuquan. It was considered as a major milestone in China's indigenous missile development history.

In the next few years, Dongfeng-2 conducted seven more launches, all ended in success. On October 27, 1966, as part of the "Two Bombs, One Satellite" project, Dongfeng-2A, an improved version of DF-2, successfully launched and detonated a nuclear warhead at its target. As China's missile industry matures, a new plan of developing carrier rockets and launching satellites was proposed and approved in 1965 with the name Project 581 changed to Project 651. On January 30, 1970, China successfully tested the newly developed two-stage Dongfeng-4 (DF-4) missile, which demonstrated critical technologies like rocket staging, engine in-flight ignition, attitude control. The DF-4 was used to develop the Long March 1 (LM-1 or CZ-1, ), with a newly designed spin-up orbital insertion solid-propellant rocket motor third stage added to the two existing Nitric acid/UDMH liquid propellant stages.

China's space program benefited from the Third Front campaign to develop basic industry and national defense industry in China's rugged interior in preparation for potential invasion by the Soviet Union or the United States. Almost all of China's new aerospace work units in the late 1960s and early 1970s were established as part of the Third Front and Third Front projects included expansion of Jiuquan Satellite Launch Center, building Xichang Satellite Launch Center, and building Taiyuan Satellite Launch Center.

On April 24, 1970, China successfully launched the 173 kg Dong Fang Hong I (, meaning The East Is Red I) atop a Long March 1 (CZ-1, ) rocket from Jiuquan Satellite Launch Center. It was the heaviest first satellite placed into orbit by a nation. The third stage of the Long March 1 was specially equipped with a 40 m2 solar reflector () deployed by the centrifugal force developed by the spin-up orbital insertion solid propellant stage. China's second satellite was launched with the last Long March 1 on March 3, 1971. The 221 kg ShiJian-1 (SJ-1, ) was equipped with a magnetometer and cosmic-ray/x-ray detectors.

In addition to the satellite launch, China also made small progress in human spaceflight. The first successful launch and recovery of a T-7A(S1) sounding rocket carrying a biological experiment (it carried eight white mice) was on July 19, 1964, from Base 603 (). As the space race between the two superpowers reached its climax with the conquest of the Moon, Mao and Zhou Enlai decided on July 14, 1967, that China should not be left behind, and started China's own crewed space program. China's first spacecraft designed for human occupancy was named Shuguang-1 () in January 1968. China's Space Medical Institute () was founded on April 1, 1968, and the Central Military Commission issued the order to start the selection of astronauts. The first crewed space program, known as Project 714, was officially adopted in April 1971 with the goal of sending two astronauts into space by 1973 aboard the Shuguang spacecraft. The first screening process for astronauts had already ended on March 15, 1971, with 19 astronauts chosen. But the program was soon canceled in the same year due to political turmoil, ending China's first human spaceflight attempt.

While CZ-1 was being developed, the development of China's first long-range intercontinental ballistic missile, namely Dongfeng-5 (DF-5), has started since 1965. The first test flight of DF-5 was conducted in 1971. After that, its technology was adopted by two different models of Chinese medium-lift launch vehicles being developed. One of the two was Feng Bao 1 (FB-1, ) developed by Shanghai's 2nd Bureau of Mechanic-Electrical Industry, the predecessor of Shanghai Academy of Spaceflight Technology (SAST). The other parallel medium-lift LV program, also based on the same DF-5 ICBM and known as Long March 2 (CZ-2, ), was started in Beijing by the First Research Academy of the Seventh Ministry of Machine Building, which later became China Academy of Launch Vehicle Technology (CALT). Both FB-1 and CZ-2 were fueled by N2O4 and UDMH, the same propellant used by DF-5.

On July 26, 1975, FB-1 made its first successful flight, placing the 1107-kilogram Changkong-1 () satellite into orbit. It was the first time that China launched a payload heavier than 1 metric ton. Four months later, on November 26, CZ-2 successfully launched the FSW-0 No.1 () recoverable satellite into orbit. The satellite returned to earth and was successfully recovered three days later, making China the third country capable of recovering a satellite, after the Soviet Union and the United States. FB-1 and CZ-2, which were developed by two different institutes, were later evolved into two different branches of the classic Long March rocket family: Long March 4 and Long March 2.

As part of the Third Front effort to relocate critical defense infrastructure to the relatively remote interior (away from the Soviet border), it was decided to construct a new space center in the mountainous region of Xichang in the Sichuan province, code-named Base 27. After expansion, the Northern Missile Test Site was upgraded as a test base in January 1976 to become the Northern Missile Test Base () known as Base 25.

New era (late 1970s to 1980s)
After Mao died on September 9, 1976, his rival, Deng Xiaoping, denounced during the Cultural Revolution as reactionary and therefore forced to retire from all his offices, slowly re-emerged as China's new leader in 1978. At first, the new development was slowed. Then, several key projects deemed unnecessary were simply cancelled—the Fanji ABM system, the Xianfeng Anti-Missile Super Gun, the ICBM Early Warning Network 7010 Tracking Radar and the land-based high-power anti-missile laser program. Nevertheless, some development did proceed. The first Yuanwang-class space tracking ship was commissioned in 1979. The first full-range test of the DF-5 ICBM was conducted on May 18, 1980. The payload reached its target located 9300 km away in the South Pacific ()  and retrieved five minutes later by helicopter. In 1982, Long March 2C (CZ-2C, ), an upgraded version of Long March 2 based on DF-5 with 2500 kg low Earth orbit (LEO) payload capacity, completed its maiden flight. Long March 2C, along with many of its derived models, eventually became the backbone of Chinese space program in the following decades.

As China changing its direction from political activities to economy development since late 1970s, the demand for communications satellites surged. As a result, the Chinese communications satellite program, code name Project 331, was started on March 31, 1975. The first generation of China's own communication satellites was named Dong Fang Hong 2 (DFH-2, ), whose development was led by the famous satellite expert Sun Jiadong. Since communications satellites works in the geostationary orbit much higher than what the existing carrier rockets could reach, the launching of communications satellites became the next big challenge for the Chinese space program.

The task was assigned to Long March 3 (CZ-3, ), the most advanced Chinese launch vehicle in the 1980s. Long March 3 was a derivative of Long March 2C with an additional third stage, designed to send payloads to geosynchronous transfer orbit (GTO). When the development of Long March 3 began in the early 1970s, the engineers had to make a choice between the two options for the third stage engine: either the traditional engine fueled by the same hypergolic fuels used by the first two stages, or the advanced cryogenic engine fueled by liquid hydrogen and liquid oxygen. Although the cryogenic engine plan was much more challenging than the other one, it was eventually chosen by Chief Designer Ren Xinmin (), who had foreseen the great potential of its use for the Chinese space program in the coming future. The development of cryogenic engine with in-flight re-ignition capability began in 1976 and wasn't completed until 1983. At the same time, Xichang Satellite Launch Center () was chosen as the launch site of Long March 3 due to its low latitude, which provides better GTO launch capability.

On January 29, 1984, Long March 3 performed its maiden flight from Xichang, carrying the first experimental DFH-2 satellite. Unfortunately, because of the cryogenic third-stage engine failed to re-ignite during flight, the satellite was placed into a 400 km LEO instead of its intended GTO. Despite the rocket failure, the engineers managed to send the satellite into an elliptic orbit with an apoapsis of 6480 km using the satellite's own propulsion system. A series of tests were then conducted to verify the performance the satellite. Thanks to the hard work by the engineers, the cause of the cryogenic engine failure was located quickly, followed by improvements applied on the second rocket awaiting launch.

On April 8, 1984, less than 70 days after the first failure, Long March 3 launched again from Xichang. It successfully inserted the second experimental DFH-2 satellite into target GTO on its second attempt. The satellite reached the final orbit location on April 16 and was handed over to the user on May 14, becoming China's first geostationary communications satellite. The success made China the fifth country in the world with independent geostationary satellite development and launch capability. Less than two years later, on February 1, 1986, the first practical DFH-2 communications satellite was launched into orbit atop a Long March 3 rocket, ending China's reliance on foreign communications satellite.

During the 1980s, human spaceflights in the world became significantly more active than before as the American Space Shuttle and Soviet space stations were put in service respectively. It was in the same period that the previously canceled Chinese human spaceflight program was quietly revived again. In March 1986, Project 863 () was proposed by four scientists Wang Daheng, Wang Ganchang, Yang Jiachi, and Chen Fangyun. The goal of the project was to stimulate the development of advanced technologies, including human spaceflight. Followed by the approval of Project 863, the early study of Chinese human spaceflight program in the new era had begun.

The rise and fall of commercial launches (1990s)

After the initial success of Long March 3, further development of the Long March rocket series allowed China to announce a commercial launch program for international customers in 1985, which opened up a decade of commercial launches by Chinese launch vehicles in the 1990s. The launch service was provided by China Great Wall Industry Corporation (CGWIC) with support from CALT, SAST and China Satellite Launch and Tracking Control General (CLTC). The first contract was signed with AsiaSat in January 1989 to launch AsiaSat 1, a communications satellite manufactured by Hughes. It was previously a satellite owned by Westar but placed into a wrong orbit due to kick motor malfunction before being recovered in the STS-51-A mission in 1984.

On April 7, 1990, a Long March 3 rocket successfully launched AsiaSat 1 into target geosynchronous transfer orbit with high precision, fulfilling the contract. As its very first commercial launch ended in full success, the Chinese commercial launch program was introduced to the world with a good opening.

Although Long March 3 completed its first commercial mission as expected, its 1,500 kg payload capability was not capable of placing the new generation of communication satellites, which were usually over 2,500 kg, into geostationary transfer orbit. To deal with the problem, China introduced Long March 2E (CZ-2E, ), the first Chinese rocket with strap-on boosters that can place up to 3,000 kg payload into GTO. The development of Long March 2E began in November 1988 when CGWIC was awarded the contract of launching two Optus satellites by Hughes mostly due to its low price. At that time, neither the rocket nor the launch facility was anything more than concepts on paper. Yet the engineers of CALT eventually built all the hardware from scratch in a record-breaking period of 18 months, which impressed the American experts. On September 16, 1990, Long March 2E, carrying an Optus mass simulator, conducted its test flight and reached intended orbit as designed. The success of the test flight was a huge inspiration for all parties involved and brought optimism about the coming launch of actual Optus satellites.

However, an accident occurred during this highly anticipated launch on March 22, 1992, at Xichang Satellite Launch Center. After initial ignition, all engines shut down unexpectedly. The rocket was unable to lift off, resulting in a launch abort while being live-streamed to the world. The post-launch investigation revealed that some minor aluminum scraps caused a shortage in the control circuit, triggering an emergency shutdown of all engines. Although the huge vibration brought by the short-lived ignition had led to a rotation of the whole rocket by 1.5 degree clockwise and partial displacement of the supporting blocks, the rocket filled with propellant was still standing on the launch pad when the dust settled. After a rescue mission that lasted for 39 hours, the payload, rocket, and launch facilities were all preserved intact, avoiding huge losses. Less than five months later, on August 14, a new Long March 2E rocket successfully lifted off from Xichang, sending the Optus satellite into orbit.

In June 1993, the China Aerospace Corporation was founded in Beijing. It was also granted the title of China National Space Administration (CNSA). A improved version of Long March 3, namely Long March 3A (CZ-3A, ) with 2,600 kg payload capacity to GTO, was put into service in 1994. However, on February 15, 1996, during the first flight of the further improved Long March 3B (CZ-3B, ) rocket carrying Intelsat 708, the rocket veered off course immediately after clearing the launch platform, crashing 22 seconds later. The crash killed 6 people and injured 57, making it the most disastrous event in the history of Chinese space program. Although the Long March 3 rocket successfully launched APStar 1A communication satellites on July 3, it came across a third stage re-ignition malfunction during the launch of ChinaSat 7 on August 18, resulting in another launch failure.

The two launch failures within a few months dealt a severe blow to the reputation of the Long March rockets. As a consequence, the Chinese commercial launch service was facing canceled orders, refusal of insurance, or greatly increased insurance premium. Under such a harsh circumstance, the Chinese space industry initiated full-scale quality improving activities. A closed-loop quality management system was established to fix quality issues in both the technical and administrative aspects. The strict quality management system remarkably increased the success rate ever since. Within the next 15 years, from October 20, 1996, up until August 16, 2011, China had achieved 102 consecutive successful space launches. On August 20, 1997, Long March 3B accomplished its first successful flight on its second attempt, placing the 3,770 kg Agila-2 communications satellite into orbit. It offered a GTO payload capacity as high as 5,000 kg capable of putting different kinds of heavy satellites available on the international market into orbit. Ever since then, Long March 3B had become the backbone of China's mid to high Earth orbit launches and been granted the title of most powerful rocket by China for nearly 20 years. In 1998, the administrative branch of China Aerospace Corporation was split and then merged into the newly founded Commission for Science, Technology and Industry for National Defense while retaining the title of CNSA. The remaining part was split again into China Aerospace Science and Technology Corporation (CASC) and China Aerospace Science and Industry Corporation (CASIC) in 1999.

While the Long March rockets were trying to take back the commercial launch market it lost, the political suppression from the United States approached. In 1998, the United States accused Hughes and Loral of exporting technologies that inadvertently helped China's ballistic missile program while resolving issues that caused the Long March rocket launch failures. The accusation ultimately led to the release of Cox Report, which further accused China of stealing sensitive technologies. In the next year, the U.S. Congress passed the act that put commercial satellites into the list restricted by International Traffic in Arms Regulations (ITAR) and prohibited launches of satellites containing U.S. made components onboard Chinese rockets. The regulation abruptly killed the commercial cooperation between China and the United States. The two Iridum satellites launched by Long March 2C on June 12, 1999, became the last batch of American satellites launched by Chinese rocket. Furthermore, due to the strict regulation applied and the U.S. dominance in space industry, the Long March rockets had been de facto excluded from the international commercial launch market, causing a stagnation of the Chinese commercial launch program in the next few years.

Despite the turmoil of commercial launches, the Chinese space program still made a huge breakthrough near the end of the decade. At 6:30 (China Standard Time) on November 20, 1999, Shenzhou-1 (), the first uncrewed Shenzhou spacecraft () designed for human spaceflight, was successfully launched atop a Long March 2F (CZ-2F, ) rocket from Jiuquan Satellite Launch Center. The spacecraft was inserted into low earth orbit 10 minutes after lift off. After orbiting the Earth for 14 rounds, the spacecraft initiated the return procedure as planned and landed safely in Inner Mongolia at 03:41 on November 21, marking the full success of China's first Shenzhou test flight. Following the announcement of the success of the mission, the previously secretive Chinese human spaceflight program, namely the China Manned Space Program (CMS,  ), was formally made public. CMS, which was formally approved on September 21, 1992, by the Politburo Standing Committee of the Chinese Communist Party as Project 921, has been the most ambitious space program of China since its birth. Its goals can be described as "Three Steps": Crewed spacecraft launch and return; Space laboratory for short-term missions; Long-term modular space station. Due to its complex nature, a series of advanced projects were introduced by the program, including Shenzhou spacecraft, Long March 2F rocket, human spaceflight launch site in Jiuquan, Beijing Aerospace Flight Control Center, and Astronaut Center of China in Beijing. In terms of astronauts, fourteen candidates were selected to form the People's Liberation Army Astronaut Corps and started accepting spaceflight training.

Breakthroughs by Shenzhou and Chang'e (2000s)
Since the beginning of 21st century, China has been experiencing rapid economic growth, which led to higher investment into space programs and multiple major achievements in the following decades. In November 2000, the Chinese government released its first white paper entitled China's Space Activities, which described its goals in the next decade as:
 To build up an earth observation system for long-term stable operation.
 To set up an independently operated satellite broadcasting and telecommunications system.
 To establish an independent satellite navigation and positioning system.
 To upgrade the overall level and capacity of China's launch vehicles.
 To realize manned spaceflight and establish an initially complete R&D and testing system for manned space projects.
 To establish a coordinated and complete national satellite remote-sensing application system.
 To develop space science and explore outer space.

The independent satellite navigation and positioning system mentioned by the white paper was Beidou (). The development of Beidou dates back to 1983 when academician of the Chinese Academy of Sciences Chen Fangyun designed a primitive satellite navigation systems consisting of two satellites in the geostationary orbit. Sun Jiadong, the famous satellite expert of China, later proposed a "three-step" strategy to develop China's own satellite navigation system, whose service coverage expands from China to Asia then the globe. The two satellites of the "first step", namely BeiDou-1, were launched in October and December 2000. As an experimental system, Beidou-1 offered basic positioning, navigation and timing services to limited areas in and around China. After a few years of experiment, China started the construction of BeiDou-2, a more advanced system to serve the Asia-Pacific region by launching the first two satellites in 2007 and 2009 respectively.

Another major goal specified by the white paper was to realize manned spaceflight. The China Manned Space Program continued its steady evolvement in the 21st century after its initial success. From January 2001 to January 2003, China conducted three uncrewed Shenzhou spacecraft test flights, validating all systems required by human spaceflight. Among these missions, the Shenzhou-4 launched on December 30, 2002, was the last uncrewed rehearsal of Shenzhou. It flew for 6 days and 18 hours and orbited around the Earth for 108 circles before returning on January 5, 2003. The success of Shenzhou 4 cleared all obstacles to the realization of human spaceflight as China's first crewed spaceflight mission became imminent.

On October 15, 2003, the first Chinese astronaut Yang Liwei () was launched aboard Shenzhou-5 () spacecraft atop a Long March 2F rocket from Jiuquan Satellite Launch Center. The spacecraft was inserted into orbit ten minutes after launch, making Yang the first Chinese in space. After a flight of more than 21 hours and 14 orbits around the Earth, the spacecraft returned and landed safely in Inner Mongolia in the next morning, followed by Yang's walking out of the return capsule by himself. The complete success of Shenzhou 5 mission was widely celebrated in China and received worldwide endorsements from different people and parties, including UN Secretary General Kofi Annan. The mission, officially recognized by China as the second milestone of its space program after the launch of Dongfanghong-1, marked China's standing as the third country capable of completing independent human spaceflight, ending the over 40-year long duopoly by the Soviet Union/Russia and the United States.

The China Manned Space Program did not stop its footsteps after its historic first crewed spaceflight. In 2005, two Chinese astronauts, Fei Junlong () and Nie Haisheng (), safely completed China's first "multi-person and multi-day" spaceflight mission aboard Shenzhou-6 () between October 12 and 17. On 25 September 2008, Shenzhou-7 () was launched into space with three astronauts, Zhai Zhigang (), Liu Boming () and Jing Haipeng (). During the flight, Zhai and Liu conducted China's first spacewalk in orbit. With the success of Shenzhou-7 mission, China Manned Space Program had entered the "Second Step", where more complex technologies were to be verified in the next decade.

Around the same time, China began preparation for extraterrestrial exploration, starting with the Moon. The early research of Moon exploration of China dates back to 1994 when its necessity and feasibility were studied and discussed among Chinese scientists. As a result, the white paper of 2000 enlisted the Moon as the primary target of China's deep space exploration within the decade. In January 2004, the year after China's first human spaceflight mission, the Chinese Moon orbiting program was formally approved and was later transformed into Chinese Lunar Exploration Program (CLEP,  ). Just like several other space programs of China, CLEP was divided into three phases, which were simplified as "Orbiting, Landing, Returning"  (), all to be executed by robotic probes at the time of planning.

On October 24, 2007, the first lunar orbiter Chang'e-1 () was successfully launched by a Long March 3A rocket, and was inserted into Moon orbit on November 7, becoming China's first artificial satellite of the Moon. It then performed a series of surveys and produced China's first lunar map. On March 1, 2009, Chang'e-1, which had been operating longer than its designed life span, performed a controlled hard landing on lunar surface, concluding the Chang'e-1 mission. Being China's first deep space exploration mission, Chang'e-1 was recognized by China as the third milestone of the Chinese space program and the admission ticket to the world club of deep space explorations.

In others areas, despite the harsh sanction imposed by the United States since 1999, China still made some progress in terms of commercial launches within the first decade of the 21st century. In April 2005, China successfully conducted its first commercial launch since 1999 by launching the APStar 6 communications satellite manufactured by French company Alcatel atop a Long March 3B rocket. In May 2007, China launched NigComSat-1 satellite developed by China Academy of Space Technology. This was the first time China provided the full service from satellite manufacture to launch for international customers.

Expansion and revolution (2010s)

From 2000 to 2010, China had quadrupled its GDP and became the second largest economy in the world. Due to the rapid development of economy activities across the nation, the demand for high-resolution Earth observation systems increased in a remarkable manner. To end the reliance on foreign high-resolution remote sensing data, China initiated the China High-resolution Earth Observation System program (), most commonly known as Gaofen (), in May 2010. Its purpose is to establish an all-day, all-weather coverage Earth observation system for satisfying the requirements of social development as part of the Chinese space infrastructures. The first Gaofen satellite, Gaofen 1, was launched into orbit on April 26, 2013, followed by more satellites being launched into different orbits in the next few years to cover different spectra. As of today, more than 30 Gaofen satellites are being operated by China as the completion of the space-based section of Gaofen was announced in late 2022.

The Beidou Navigation Satellite System proceeded in extraordinary speed after the launch of first Beidou-2 satellite in 2007. As many as five Beidou-2 navigation satellites were launched in 2010 alone. In late 2012, the Beidou-2 navigation system consisting of 14 satellites was completed and started providing service to Asia-Pacific region. The construction of more advanced Beidou-3 started since November 2017. Its buildup speed was even more astonishing than before as China launched 24 satellites into medium Earth orbit, 3 into inclined geosynchronous orbit, and 3 into geostationary orbit within just three years. The final satellite of Beidou-3 was successfully launched by a Long March 3B rocket on June 23, 2020. On July 31, 2020, Chinese president Xi Jinping made the announcement on the Beidou-3 completion ceremony, declaring the commission of Beidou-3 system across the globe. The completed Beidou-3 navigation system integrates navigation and communication function, and possesses multiple service capabilities, including positioning, navigation and timing, short message communication, international search and rescue, satellite-based augmentation, ground augmentation and precise point positioning. It is now one of the four core system providers designated by the International Committee on Global Navigation Satellite Systems of the United Nations.

The China Manned Space Program continued to make breakthroughs in human spaceflight technologies in 2010s. In the early 2000s, the Chinese crewed space program continued to engage with Russia in technological exchanges regarding the development of a docking mechanism used for space stations. Deputy Chief Designer, Huang Weifen, stated that near the end of 2009, the China Manned Space Agency began to train astronauts on how to dock spacecraft. In order to practice space rendezvous and docking, China launched an  target vehicle, Tiangong-1 (), in 2011, followed by the uncrewed Shenzhou 8 (). The two spacecraft performed China's first automatic rendezvous and docking on 3 November 2011, which verified the performance of docking procedures and mechanisms. About 9 months later, in June 2012, Tiangong 1 completed the first manual rendezvous and docking with Shenzhou 9 (), a crewed spacecraft carrying Jing Haipeng, Liu Wang () and China's first female astronaut Liu Yang (). The successes of Shenzhou 8 and 9 missions, especially the automatic and manual docking experiments, marked China's advancement in space rendezvous and docking. Tiangong 1 was later docked with crewed spacecraft Shenzhou 10 () carrying astronauts Nie Haisheng, Zhang Xiaoguang () and Wang Yaping (), who conducted multiple scientific experiments, gave lectures to over 60 million students in China, and performed more docking tests before returning to the Earth safely after 15 days in space. The completion of missions from Shenzhou 7 to 10 demonstrated China's mastery of all basic human spaceflight technologies, ending phase 1 of "Second Step".

Although Tiangong 1 was considered as a space station prototype, its functionality was still remarkably weaker than decent space laboratories. Tiangong-2 (), the first real space laboratory of China, was launched into orbit on September 15, 2016. It was visited by Shenzhou 11 crew a month later. Two astronauts, Jing Haipeng and Chen Dong () entered Tiangong 2 and were stationed for about 30 days, breaking China's record for the longest human spaceflight mission while carrying out different types of human-attended experiments. In April 2017, China's first cargo spacecraft, Tianzhou-1 (), docked with Tiangong 2 and completed multiple in-orbit propellant refueling tests. The space laboratory missions verified China's capability of medium-term life support and resource resupply in space. The successful completion of the series of missions concluded the "Second Step" of China Manned Space Program and paved the way for the "Third Step", namely the construction of China Space Station, in the coming decade.

In terms of deep space explorations, after completing the objective of "Orbiting" in 2007, the Chinese Lunar Exploration Program started preparing for the "Landing" phase. China's second lunar probe, Chang'e-2 (), was launched on October 1, 2010. It used trans-lunar injection orbit to reach the Moon for the first time and imaged the Sinus Iridum region where future landing missions were expected to occur. On December 2, 2013, a Long March 3B rocket launched Chang'e-3 (), China's first lunar lander, to the Moon. On December 14, Chang'e 3 successfully landed on the Sinus Iridum region, making China the third country that made soft-landing on an extraterrestrial body. A day later, the Yutu rover () was deployed to the lunar surface and started its survey, achieving the goal of "landing and roving" for the second phase of CLEP.

In addition to lunar exploration, it is worth noting that China made its first attempt of interplanetary exploration during the same period. Yinghuo-1 (), China's first Mars orbiter, was launched on board the Russian Fobos-Grunt spacecraft as an additional payload in November 2011. Yinghuo-1 was a mission in cooperation with Russian Space Agency. It was a relatively small project initiated by National Space Science Center of Chinese Academy of Sciences instead of a major space program managed by the state space agency. The Yinghuo-1 orbiter weighed about 100 kg and was carried by the Fobos-Grunt probe. It was expected to detach from the Fobos-Grunt probe and injected into Mars orbit after reaching Mars. However, due to an error of the onboard computer, the Fobos-Grunt probe failed to start its main engine and was stranded in the low Earth orbit after launch. Two months later, Fobos-Grunt, along with the Yinghuo-1 orbiter, re-entered and eventually burned up in the Earth atmosphere, resulting in a mission failure. Although the Yinghuo-1 mission did not achieve its original goal due to factors not controlled by China, it led to the dawn of the Chinese interplanetary explorations by gathering a group of talents dedicated to interplanetary research for the first time. On December 13, 2012, the Chinese lunar probe Chang'e 2, which was in an extended mission after the conclusion of its primary tasks in lunar orbit, made a flyby of asteroid Toutatis with closest approach being 3.2 kilometers, making it China's first interplanetary probe. In 2016, the first Chinese independent Mars mission was formally approved and listed as one of the major tasks in "White Paper on China's Space Activities in 2016". The mission, which was planned in an unprecedented manner, aimed to achieve Mars orbiting, landing and roving in one single attempt in 2020.

While China was making remarkable progress in all areas above, the Long March rockets, the absolute foundation of Chinese space program, were also experiencing a crucial revolution. Ever since 1970s, the Long March rocket family had been using dinitrogen tetroxide and UDMH as propellant for liquid engines. Although this hypergolic propellant is simple, cheap and reliable, its disadvantages, including toxicity, environmental damages, and low specific impulse, hindered Chinese carrier rockets from being competitive against other space powers since the mid-1980s. To get rid of such unsatisfying situation, China commenced the study of new propellant selection since the introduction of Project 863 in 1986. After an early study that lasted for over a decade, the development of a 120-ton rocket engine burning LOX and kerosene in staged combustion cycle were formally approved in 2000. Despite setbacks like engine explosions during initial firing tests, the development team still made breakthroughs in key technologies like superalloy production and engine ignition and completed its first long duration firing test in 2006. The engine, which was named YF-100, was eventually certified in 2012, and the first engine for actual flight was ready in 2014. On September 20, 215,  the Long March 6 (), a small rocket using one YF-100 engine on its first stage, successfully conducted its maiden flight. On June 25, 2016, the medium-lift Long March 7 (), which was equipped with six YF-100 engines, completed its maiden flight in full success, increasing the maximum LEO payload capacity by Chinese rockets to 13.5 tons. The successes of Long March 6 and 7 signified the introduction of the "new generation of Long March rockets" powered by clean and more efficient engines.

The maiden launch of Long March 7 was also the very first launch from Wenchang Space Launch Site () located in Wenchang, Hainan Province. It marked the inauguration of Wenchang on the world stage of space activities. Compared with the old Jiuquan, Taiyuan, and Xichang, the Wenchang Space Launch Site, whose construction began in September 2009, is China's latest and most advanced spaceport. Rockets launched from Wenchang can send ten to fifteen percent more payloads in mass to orbit thanks to its low latitude. Additionally, due to its geographic location, the drop zones of rocket debris produced by rocket launches are in the ocean, eliminating threats posed to people and facilities on the ground. Wenchang's coastal location also allows larger rockets to be delivered to launch site by sea, which is difficult, if not impossible, for inland launch sites due to the size limits of tunnels needed to be passed through during transportations. The unique advantages made Wenchang the launch site of many major space missions of China in the following years, drawing attention of the world.

The biggest breakthrough within the decade, if not decades, were brought by Long March 5 (), the leading role of the new generation of Long March rockets and China's first heavy-lift launch vehicle. The early study of Long March 5 can be traced back to 1986, and the project was formally approved in mid-2000s. It applied 247 new technologies during its development while over 90% of its components were newly developed and applied for the first time. Instead of using the classic 3.35-meter-diameter core stage and 2.25-meter-diameter side boosters, the 57-meter tall Long March 5 consists of one 5-meter-diameter core stage burning LH2/LOX and four 3.35-meter-diameter side boosters burning kerosene/LOX. With a launch mass as high as 869 metric tons and 10,573 kN lift-off thrust, the Long March 5, being China's most powerful rocket, is capable of lifting up to 25 tons of payload to LEO and 14 tons to GTO, making it more than 2.5 times as much as the previous record holder (Long March 3B) and nearly as equal as the most powerful rocket in the world at that time (Delta IV Heavy). Due to its unprecedented capability, the Long March 5 was expected as the keystone for the Chinese space program in the early 21st century. However, after a successful maiden flight in late 2016, the second launch of the Long March 5 on July 2, 2017, suffered a failure, which was considered as the biggest setback for Chinese space program in nearly two decades. Because of the failure, the Long March 5 was grounded indefinitely until the problem was located and resolved, and multiple planned major space missions were either postponed or facing the risk of being postponed in the next few years.

Despite the uncertain future of Long March 5, China managed to make history in space explorations with existing hardware in the next two years. Due to tidal locking, the Moon has been orbiting the Earth as the only natural satellite by facing it with the same side. Humans had never seen the far side of the Moon until the Space Age. Although humans have already got quite an amount of knowledge about the overall condition of the far side of the Moon in early 21st century with the help of numerous visits by lunar orbiters since the 1960s, no country had ever explored the area in close distance due to lack of communications on the far side. This missing piece was eventually filled by China's Chang'e-4 () mission in 2019. To solve the communications problem, China launched Queqiao (), a relay satellite orbiting around the Earth–Moon L2 Lagrangian point, in May 2018 to enable communications between the far side of the Moon and the Earth. On December 8, 2018, the Chang'e 4, which was originally built as the backup of Chang'e 3, was launched by a Long March 3B rocket from Xichang and entered lunar orbit on December 12. On January 3, 2019, Chang'e 4 successfully soft-landed at the Von Kármán (lunar crater) on the far side of the Moon, and returned the first close-up image of the lunar surface on the far side. A rover named Yutu-2 () was deployed onto the lunar surface a few hours later, leaving the first trial on the far side. The accomplishment of a series of tasks by Chang'e-4 made China the first country to successfully achieved soft-landing and roving on the far side of the Moon. Because of its great success, the project team received IAF World Space Award of 2020. It was the first time that a Chinese team be awarded with this honor.

Aside from Chang'e 4, there were some other events worth noting during this period. In August 2016, China launched world's first quantum communications satellite Mozi (). In June 2017, the first Chinese X-ray astronomy satellite named Huiyan () was launched into space. In August of the same year, the Astronaut Center of China organized a joint training in which sixteen Chinese and two ESA astronauts participated. It was the first time that foreign astronauts took part in astronaut training organized by China. In 2018, China performed more orbital launches than any other countries on the planet for the first time in history. On June 5, 2019, China conducted its first Sea Launch with Long March 11 () in the Yellow Sea. On July 25, Chinese company i-Space became the first Chinese private company to successfully conduct an orbital launch with its Hyperbola-1 small solid rocket.

As 2010s coming to an end, the Chinese space program was poised to conclude the decade with an inspiring event. On December 27, 2019, after a grounding and fixture that lasted for 908 days, the Long March 5 rocket conducted a highly anticipated return-to-flight mission from Wenchang. The mission ended in full success by placing Shijian-20, the heaviest satellite China had ever built, into the intended supersynchronous orbit. The flawless return of Long March 5 swept away all the depressions brought by its last failure since 2017. With its great power, the Long March 5 cleared the paths to multiple world-class space projects, allowing China to make great strides toward its ambitions in the coming 2020s.

2020-present

Being the product of latest technology and engineering by Chinese space industry in the early 21st century, the flight-proven Long March 5 unleashed the potential of Chinese space program to a great extent. Various projects previously restricted by the mass and size limits of the payloads were now offered a chance of realization. Ever since 2020, with the help of Long March 5, the Chinese space program has made tremendous progress in multiple areas by completing some of the most challenging missions ever conducted in history of space explorations, impressing the world like never before.

The "Third Step" of China Manned Space Program kicked off in 2020. Long March 5B, a variant of Long March 5, conducted its maiden flight successfully on May 5, 2020. Its high payload capacity and large payload fairing space enabled the delivery of Chinese space station modules to low Earth orbit. On April 29, 2021, Tianhe core module (), the 22-tonne core module of the space station, was successfully launched into Low Earth orbit by a Long March 5B rocket, marking the beginning of the construction of the China Space Station, also known as Tiangong (), followed by unprecedented high frequency of human spaceflight missions. A month later, China launched Tianzhou-2, the first cargo mission to the space station. On June 17, Shenzhou-12, the first crewed mission to the Chinese Space Station consisting of Nie Haisheng, Liu Boming and Tang Hongbo, was launched from Jiuquan. The crew docked with Tianhe and entered the core module about 9 hours after launch, becoming the first residents of the station. The crew lived and worked on the space station for three months, conducted two spacewalks, and returned to Earth safely on September 17, 2021., breaking the record of longest Chinese human spaceflight mission (33 days) previously made by Shenzhou-11. Roughly a month later, the Shenzhou-13 crewed was launched to the station. Astronaut Zhai Zhigang, Wang Yaping and Ye Guangfu completed the first long-duration spaceflight mission of China that lasted for over 180 days before returning to Earth safely on April 16, 2022. Astronaut Wang Yaping became the first Chinese female to perform a spacewalk during the mission.

Starting from May 2022, the China Manned Space Program had entered the space station assembly and construction phase. On June 5, 2022, Shenzhou-13 was launched and docked to Tianhe core module. The crew, including Chen Dong, Liu Yang and Cai Xuzhe, were expected to welcome the arrival of two space station modules during the six-month mission. On July 24, the third Long March 5B rocket lifted off from Wenchang, carrying the 23.2 t Wentian laboratory module (), the largest and heaviest spacecraft ever built and launched by China, into orbit. The module docked with the space station less than 20 hours later, adding the second module and the first laboratory module to it. On September 30, the new Wentian module was rotated from the forward docking port to starboard parking port. On October 31, the Mengtian laboratory module (), the third and final module of China Space Station, was launched by another Long March 5B rocket into orbit and docked with the space station in less than 13 hours later. On November 3, the 'T-shape' China Space Station was completed after the successful transposition of the Mengtian module. On November 29, Shenzhou-15 was launched and later docked with China Space Station. Astronauts Fei Junlong, Deng Qingming, and Zhang Lu were welcomed by the Shenzhou-14 crew on board the station, completing the first crew gathering and handover in space by Chinese astronauts and starting the era of continuous Chinese astronaut presence in space.

The third phase of Chinese Lunar Exploration Program was also allowed to proceed in 2020. As preparation, China conducted Chang'e 5-T1 mission back in 2014. By completing its main task on November 1, 2014, China had demonstrated the capability of returning a spacecraft from the lunar orbit back to Earth safely, paving the way for the lunar sample return mission to be conducted in 2017. However, the failure of the second Long March 5 mission disrupted the original plan. Despite the readiness of the spacecraft, the mission had to be postponed due to the unavailability of its launch vehicle, until the successful return-to-flight of Long March 5 in late 2019. On November 24, 2020, the sample return mission, entitled Chang'e-5 (), kicked off as the Long March 5 rocket launched the 8.2 t spacecraft stack into space. The spacecraft entered lunar orbit on November 28, followed by a separation of the stack into two parts. The lander landed near Mons Rümker in Oceanus Procellarum on December 1 and started the sample collection process the next day. Two days after the landing, on December 3, the ascent vehicle attached to the lander took off from lunar surface and entered lunar orbit, carrying the container with collected samples. This was the first time that China launched a spacecraft from an extraterrestrial body. On December 6, the ascent vehicle successfully docked with the orbiter in lunar orbit and transferred the sample container to the return capsule, accomplishing the first robotic rendezvous and docking in lunar orbit in history. On December 13, the orbiter, along with the return module, entered the orbit back to Earth after main engine burns. The return capsule eventually landed intact in Inner Mongolia on December 17, sealing the perfect completion of the mission.

On December 19, 2020, CNSA hosted the Chang'e-5 lunar sample handover ceremony in Beijing. By weighing the sample container taken out from the return capsule, CNSA announced that Chang'e-5 retrieved 1,731 grams of samples from the Moon. Being the most complex mission completed by China at the time, the Chang'e-5 mission achieved multiple remarkable milestones, including China's first lunar sampling, first liftoff from an extraterrestrial body, first automated rendezvous and docking in lunar orbit (by any nation) and the first spacecraft carrying samples to re-enter Earth's atmosphere at high speed. Its success also marked the completion of the goal of "Orbiting, Landing, Returning" planned by CLEP since 2004.

Prior to the launch of Chang'e-5, which targeted the Moon 380,000 km away from the Earth, China's first Mars probe had departed, heading to the Mars 400 million kilometers away. Ever since the approval of the Mars mission in 2016, China had developed required various technologies required, including deep space network, atmospheric entry, lander hovering and obstacle avoidance. Long March 5, the only launch vehicle capable of delivering the spacecraft, was back to service after its critical return-to-flight in December 2019. As a result, all things were ready when the launch windows of July 2020 arrived. On April 24, 2020, CNSA officially announced the program of Planetary Exploration of China and named China's first independent Mars mission as Tianwen-1 (). On July 23, 2020, Tianwen-1 was successfully launched atop a Long March 5 rocket into Trans-Mars injection orbit. The spacecraft, consisting of an orbiter, a lander, and a rover, aimed to achieve the goals of orbiting, landing, and roving on Mars in one single mission on the nation's first attempt. Due to its highly complex and risky nature, the mission was widely described as "ambitious" by international observers.

After a seven-month journey, on February 10, 2021, Tianwen-1 entered Mar orbit and became China's first operational Mars probe. The payloads on the orbiter were subsequently activated and started surveying Mars in preparation for the landing. In the following few months, CNSA released a series of images captured by the orbiter. On April 24, CNSA announced that the first Chinese Mars rover carried by Tianwen-1 probe had been named Zhurong, the god of fire in ancient Chinese mythology.

On May 15, 2020, around 1 am (Beijing time), Tianwen-1 initiated its landing process by igniting its main engines and lowering its orbit, followed by the separation of landing module at 4 am. The orbiter then returned to the parking orbit while the lander moved toward Mars atmosphere. Three hours later, the landing experienced the most dangerous atmospheric entry process that lasted for nine minutes. At 7:18 am, the lander successfully landed on the preselected southern Utopia Planitia. On May 25, the Zhurong rover drove onto the Martian surface from the lander. On June 11, CNSA released the first batch of high-resolution images of landing sites captured by Zhurong rovers, marking the success of the Mars landing mission. Being China's first independent Mars mission, Tianwen-1 completed the daunting process involving the orbiting, landing, and roving in highly sophisticated manner on one single attempt, making China the second nation to land and drive a Mars rover on Martian surface after the United States. It drew attention of the world as another example of China's rapidly expanding presence in outer space. Because of its huge difficulty and inspiring success, the Tianwen-1 development team received IAF World Space Award of 2022. It was the second time that a Chinese team awarded with this honor after the Chang'e-4 mission in 2019.

Near future development

According to a 2022 government white paper, China will conduct more human spaceflight, lunar and planetary exploration missions, including:
 Xuntian Space Telescope launch.
 Chang'e-6 mission to collect lunar sample from the far side of the Moon.
 Chang'e-7 mission to perform a precise landing in the moon's polar regions and a hopping detection in lunar shadowed area.
 Tianwen-2 mission to sample near-earth asteroids and probe main-belt comets.

In addition to these, China has also initiated the Moon landing phase of China's crewed lunar exploration program, which aims to land Chinese astronauts on the Moon by 2030. The development of new manned carrier rocket (Long March 10), new generation crew spacecraft, lunar lander, Moon suit and other related products is in progress.

Chinese space program and the international community

Belt and Road Initiative
One of China's priorities in its Belt and Road Initiative is to improve satellite information pathways.

Bilateral space cooperation
China is an attractive partner for space cooperation for other developing countries because it launches their satellites at a reduced cost and often provides financing in the form of policy loans.

With respect to the African countries, the 2022-2024 action plan for the Forum on China-Africa Cooperation commits China to using space technology to enhance cooperation with African countries and to create centers for Africa-China cooperation on satellite remote sensing application. African countries are increasingly cooperating with China on satellite launches and specialized training. As of 2022, China has launched two satellites for Ethiopia, two for Nigeria, one for Algeria, one for Sudan, and one for Egypt.

China and Namibia jointly operate the China Telemetry, Tracking, and Command Station which was established in 2001 in Swakopmund, Namibia. This station tracks Chinese satellites and space missions.

China and Brazil have successfully cooperated in the field of space. Among the most successful space cooperation projects were the development and launch of earth monitoring satellites. As of 2023, the two countries have jointly developed six China-Brazil Earth Resource Satellites. These projects have helped both Brazil and China develop their access to satellite imagery and promoted remote sending research. Brazil and China's cooperation is a unique example of South-South cooperation between two developing countries in the field of space.

Dual-use technologies and outer space
The PRC is a member of the United Nations Committee on the Peaceful Uses of Outer Space and a signatory to all United Nations treaties and conventions on space, with the exception of the 1979 Moon Treaty. The United States government has long been resistant to the use of PRC launch services by American industry due to concerns over alleged civilian technology transfer that could have dual-use military applications to countries such as North Korea, Iran or Syria. Thus, financial retaliatory measures have been taken on many occasions against several Chinese space companies.

NASA's policy excluding Chinese state affiliates

Due to security concerns, all researchers from the U.S. National Aeronautics and Space Administration (NASA) are prohibited from working with Chinese citizens affiliated with a Chinese state enterprise or entity. In April 2011, the 112th United States Congress banned NASA from using its funds to host Chinese visitors at NASA facilities. In March 2013, the U.S. Congress passed legislation barring Chinese nationals from entering NASA facilities without a waiver from NASA.

The history of the U.S. exclusion policy can be traced back to allegations by a 1998 U.S. Congressional Commission that the technical information that American companies provided China for its commercial satellite ended up improving Chinese intercontinental ballistic missile technology. This was further aggravated in 2007 when China blew up a defunct meteorological satellite in low Earth orbit to test a ground-based anti-satellite (ASAT) missile. The debris created by the explosion contributed to the space junk that litter Earth's orbit, exposing other nations' space assets to the risk of accidental collision. The United States also fears the Chinese application of dual-use space technology for nefarious purposes.

The Chinese response to the exclusion policy involved its own space policy of opening up its space station to the outside world, welcoming scientists coming from all countries. American scientists have also boycotted NASA conferences due to its rejection of Chinese nationals in these events.

Organization
Initially, the space program of the PRC was organized under the People's Liberation Army, particularly the Second Artillery Corps (now the PLA Rocket Force, PLARF). In the 1990s, the PRC reorganized the space program as part of a general reorganization of the defense industry to make it resemble Western defense procurement.

The China National Space Administration, an agency within the Commission of Science, Technology and Industry for National Defense currently headed by Zhang Kejian, is now responsible for launches. The Long March rocket is produced by the China Academy of Launch Vehicle Technology, and satellites are produced by the China Aerospace Science and Technology Corporation. The latter organizations are state-owned enterprises; however, it is the intent of the PRC government that they should not be actively state-managed and that they should behave as independent design bureaus.

Universities and institutes
The space program also has close links with:
 College of Aerospace Science and Engineering, National University of Defense Technology
 School of Astronautics, Beihang University
 School of Aerospace, Tsinghua University
 School of Astronautics, Northwestern Polytechnical University
 School of Aeronautics and Astronautics, Zhejiang University
 Institute of Aerospace Science and Technology, Shanghai Jiaotong University
 College of Aeronautics, Harbin Institute of Technology
 School of Automation Science and Electrical Engineering, Beihang University

Space cities
Dongfeng Space City (), also known as Base 20 () or Dongfeng base ()
Beijing Space City ()
Wenchang Space City ()
Shanghai Space City ()
Yantai Space City ()
Guizhou Aerospace Industrial Park (), also known as Base 061 (), founded in 2002 after approval of Project 863 for industrialization of aerospace research centers ().

Suborbital launch sites
Nanhui () First successful launch of a T-7M sounding rocket on February 19, 1960.
Base 603 () Also known as Guangde Launch Site (). The first successful flight of a biological experimental sounding rocket transporting eight white mice was launched and recovered on July 19, 1964.

Satellite launch centers
The PRC operates 4 satellite launch centers/sites:
 Jiuquan Satellite Launch Center (JSLC)
 Taiyuan Satellite Launch Center (TSLC)
 Xichang Satellite Launch Center (XSLC)
 Wenchang Spacecraft Launch Site (administered by Xichang SLC)

Monitoring and control centers
Beijing Aerospace Command and Control Center (BACCC)
Xi'an Satellite Control Center (XSCC) also known as Base 26()
Fleet of six Yuanwang-class space tracking ships.
Data relay satellite () Tianlian I (), specially developed to decrease the communication time between the Shenzhou 7 spaceship and the ground; it will also improve the amount of data that can be transferred. The current orbit coverage of 12 percent will thus be increased to a total of about 60 percent.
Deep Space Tracking Network composed with radio antennas in Beijing, Shanghai, Kunming and Ürümqi, forming a 3000 km VLBI ().

Domestic tracking stations
New integrated land-based space monitoring and control network stations, forming a large triangle with Kashi in the north-west of China, Jiamusi in the north-east and Sanya in the south.
Weinan Station
Changchun Station
Qingdao Station
Zhanyi Station
Nanhai Station
Tianshan Station
Xiamen Station
Lushan Station
Jiamusi Station
Dongfeng Station
Hetian Station

Overseas tracking stations
 Tarawa Station, Kiribati
 Malindi Station, Kenya
 Swakopmund tracking station, Namibia
 China Satellite Launch and Tracking Control General tracking hub at Espacio Lejano Station in Neuquén Province, Argentina.

Plus shared space tracking facilities with France, Brazil, Sweden, and Australia.

Crewed landing sites
Siziwang Banner

Notable spaceflight programs

Project 714

As the Space Race between the two superpowers reached its climax with humans landing on the Moon, Mao Zedong and Zhou Enlai decided on July 14, 1967, that the PRC should not be left behind, and therefore initiated China's own crewed space program. The top-secret Project 714 aimed to put two people into space by 1973 with the Shuguang spacecraft. Nineteen PLAAF pilots were selected for this goal in March 1971. The Shuguang-1 spacecraft to be launched with the CZ-2A rocket was designed to carry a crew of two. The program was officially cancelled on May 13, 1972, for economic reasons, though the internal politics of the Cultural Revolution likely motivated the closure.

The short-lived second crewed program was based on the successful implementation of landing technology (third in the World after USSR and United States) by FSW satellites. It was announced a few times in 1978 with the open publishing of some details including photos, but then was abruptly canceled in 1980. It has been argued that the second crewed program was created solely for propaganda purposes, and was never intended to produce results.

Project 863
A new crewed space program was proposed by the Chinese Academy of Sciences in March 1986, as Astronautics plan 863-2. This consisted of a crewed spacecraft (Project 863–204) used to ferry astronaut crews to a space station (Project 863–205). In September of that year, astronauts in training were presented by the Chinese media. The various proposed crewed spacecraft were mostly spaceplanes. Project 863 ultimately evolved into the 1992 Project 921.

China Manned Space Program (Project 921)

Spacecraft

In 1992, authorization and funding were given for the first phase of Project 921, which was a plan to launch a crewed spacecraft. The Shenzhou program had four uncrewed test flights and two crewed missions. The first one was Shenzhou 1 on November 20, 1999. On January 9, 2001 Shenzhou 2 launched carrying test animals. Shenzhou 3 and Shenzhou 4 were launched in 2002, carrying test dummies. Following these was the successful Shenzhou 5, China's first crewed mission in space on October 15, 2003, which carried Yang Liwei in orbit for 21 hours and made China the third nation to launch a human into orbit. Shenzhou 6 followed two years later ending the first phase of Project 921. Missions are launched on the Long March 2F rocket from the Jiuquan Satellite Launch Center. The China Manned Space Agency (CMSA) of the Equipment Development Department of the Central Military Commission provides engineering and administrative support for the crewed Shenzhou missions.

Space laboratory

The second phase of the Project 921 started with Shenzhou 7, China's first spacewalk mission. Then, two crewed missions were planned to the first Chinese space laboratory. The PRC initially designed the Shenzhou spacecraft with docking technologies imported from Russia, therefore compatible with the International Space Station (ISS). On September 29, 2011, China launched Tiangong 1. This target module is intended to be the first step to testing the technology required for a planned space station.

On October 31, 2011, a Long March 2F rocket lifted the Shenzhou 8 uncrewed spacecraft which docked twice with the Tiangong 1 module. The Shenzhou 9 craft took off on 16 June 2012 with a crew of 3. It successfully docked with the Tiangong-1 laboratory on 18 June 2012, at 06:07 UTC, marking China's first crewed spacecraft docking. Another crewed mission, Shenzhou 10, launched on 11 June 2013. The Tiangong 1 target module is then expected to be deorbited.

A second space lab, Tiangong 2, launched on 15 September 2016, 22:04:09 (UTC+8). The launch mass was 8,600 kg, with a length of 10.4m and a width of 3.35m, much like the Tiangong 1. Shenzhou 11 launched and rendezvoused with Tiangong 2 in October 2016, with an unconfirmed further mission Shenzhou 12 in the future. The Tiangong 2 brings with it the POLAR gamma ray burst detector, a space-Earth quantum key distribution, and laser communications experiment to be used in conjunction with the Mozi 'Quantum Science Satellite', a liquid bridge thermocapillary convection experiment, and a space material experiment. Also included is a stereoscopic microwave altimeter, a space plant growth experiment, and a multi-angle wide-spectral imager and multi-spectral limb imaging spectrometer. Onboard TG-2 there will also be the world's first-ever in-space cold atomic fountain clock.

Space station

A larger basic permanent space station (基本型空间站) would be the third and last phase of Project 921. This will be a modular design with an eventual weight of around 60 tons, to be completed sometime before 2022. The first section, designated Tiangong 3, was scheduled for launch after Tiangong 2, but ultimately not ordered after its goals were merged with Tiangong 2.

This could also be the beginning of China's crewed international cooperation, the existence of which was officially disclosed for the first time after the launch of Shenzhou 7.

The first module of Tiangong space station, Tianhe core module, was launched on 29 April 2021, from Wenchang Space Launch Site. It was first visited by Shenzhou 12 crew on 17 June 2021. The Chinese space station is scheduled to be completed in 2022 and fully operational by 2023.

Lunar exploration

In January 2004, the PRC formally started the implementation phase of its uncrewed Moon exploration project. According to Sun Laiyan, administrator of the China National Space Administration, the project will involve three phases: orbiting the Moon; landing; and returning samples.

On December 14, 2005, it was reported "an effort to launch lunar orbiting satellites will be supplanted in 2007 by a program aimed at accomplishing an uncrewed lunar landing. A program to return uncrewed space vehicles from the Moon will begin in 2012 and last for five years, until the crewed program gets underway" in 2017, with a crewed Moon landing planned after that.

The decision to develop a new Moon rocket in the 1962 Soviet UR-700M-class (Project Aelita) able to launch a 500-ton payload in LTO and a more modest 50 tons LTO payload LV has been discussed in a 2006 conference by academician Zhang Guitian (), a liquid propellant rocket engine specialist, who developed the CZ-2 and CZ-4A rockets engines.

On June 22, 2006, Long Lehao, deputy chief architect of the lunar probe project, laid out a schedule for China's lunar exploration. He set 2024 as the date of China's first moonwalk.

In September 2010, it was announced that the country is planning to carry out explorations in deep space by sending a man to the Moon by 2025. China also hoped to bring a Moon rock sample back to Earth in 2017, and subsequently build an observatory on the Moon's surface. Ye Peijian, Commander in Chief of the Chang'e program and an academic at the Chinese Academy of Sciences, added that China has the "full capacity to accomplish Mars exploration by 2013."

On December 14, 2013 China's Chang'e 3 became the first object to soft-land on the Moon since Luna 24 in 1976.

On 20 May 2018, several months before the Chang'e 4 mission, the Queqiao was launched from Xichang Satellite Launch Center in China, on a Long March 4C rocket. The spacecraft took 24 days to reach L2, using a gravity assist at the Moon to save propellant. On 14 June 2018, Queqiao finished its final adjustment burn and entered the mission orbit, about  from the Moon. This is the first lunar relay satellite ever placed in this location.

On January 3, 2019, Chang'e 4, the China National Space Administration's lunar rover, made the first-ever soft landing on the Moon's far side. The rover was able to transmit data back to Earth despite the lack of radio frequencies on the far side, via a dedicated satellite sent earlier to orbit the Moon. Landing and data transmission are considered landmark achievements for human space exploration.

Yang Liwei declared at the 16th Human in Space Symposium of International Academy of Astronautics (IAA) in Beijing, on May 22, 2007, that building a lunar base was a crucial step to realize a flight to Mars and farther planets.

According to practice, since the whole project is only at a very early preparatory research phase, no official crewed Moon program has been announced yet by the authorities. But its existence is nonetheless revealed by regular intentional leaks in the media. A typical example is the Lunar Roving Vehicle () that was shown on a Chinese TV channel () during the 2008 May Day celebrations.

On 23 November 2020, China launched the new Moon mission Chang'e 5, which returned to Earth carrying lunar samples on 16 December 2020. Only two nations, the United States and the former Soviet Union have ever returned materials from the Moon, thus making China the third country to have ever achieved the feat.

Mission to Mars and beyond

In 2006, the Chief Designer of the Shenzhou spacecraft stated in an interview that:

Sun Laiyan, administrator of the China National Space Administration, said on July 20, 2006, that China would start deep space exploration focusing on Mars over the next five years, during the Eleventh Five-Year Plan (2006–2010) Program period. In April 2020, the Planetary Exploration of China program was announced. The program aims to explore planets of the Solar System, starting with Mars, then expanded to include asteroids and comets, Jupiter and more in the future.

The first mission of the program, Tianwen-1 Mars exploration mission, began on July 23, 2020. A spacecraft, which consisted of an orbiter, a lander, a rover, a remote and a deployable camera, was launched by a Long March 5 rocket from Wenchang. The Tianwen-1 was inserted into Mars orbit in February 2021 after a seven-month journey, followed by a successful soft landing of the lander and Zhurong rover on May 14, 2021.

Space-based solar power
According to the China Academy of Space Technology (CAST) presentation at the 2015 International Space Development Congress in Toronto, Canada, Chinese interest in space-based solar power began in the period 1990–1995. By 2013, there was a national goal, that "the state has decided that power coming from outside of the earth, such as solar power and development of other space energy resources, is to be China's future direction" and the following roadmap was identified: "In 2010, CAST will finish the concept design; in 2020, we will finish the industrial level testing of in-orbit construction and wireless transmissions. In 2025, we will complete the first 100kW SPS demonstration at LEO; and in 2035, the 100MW SPS will have an electric generating capacity. Finally in 2050, the first commercial level SPS system will be in operation at GEO."  The article went on to state that "Since SPS development will be a huge project, it will be considered the equivalent of an Apollo program for energy. In the last century, America's leading position in science and technology worldwide was inextricably linked with technological advances associated with the implementation of the Apollo program. Likewise, as China's current achievements in aerospace technology are built upon with its successive generations of satellite projects in space, China will use its capabilities in space science to assure sustainable development of energy from space."

In 2015, the CAST team won the International SunSat Design Competition with their video of a Multi-Rotary Joint concept.  The design was presented in detail in a paper for the Online Journal of Space Communication.

In 2016, Lt Gen. Zhang Yulin, deputy chief of the PLA armament development department of the Central Military Commission, suggested that China would next begin to exploit Earth-Moon space for industrial development. The goal would be the construction of space-based solar power satellites that would beam energy back to Earth.

In June 2021, Chinese officials confirmed the continuation of plans for a geostationary solar power station by 2050. The updated schedule anticipates a small-scale electricity generation test in 2022, followed by a megawatt-level orbital power station by 2030. The gigawatt-level geostationary station will require over 10,000 tonnes of infrastructure, delivered using over 100 Long March 9 launches.

List of launchers and projects

Launch vehicles

Active/Under Research
 Air-Launched SLV able to place a 50 kilogram plus payload to 500 km SSO
 Kaituozhe-1 () Solid fueled orbital launch vehicle based on the DF-21 missile with an extra upper stage, which is 4 stages in total.
Kaituozhe-1A ()
 Kaituozhe-1B () with addition of two solid boosters
Kaituozhe-2 () A solid fueled orbital launch vehicle with a stage 1 based on the DF-31 missile, accompanied by the small stages 2 and 3.
Kaituozhe-2A () with addition of two DF-21 based boosters.
 CZ-2E(A) Intended for launch of Chinese space station modules. Payload capacity up to 14 tons in LEO and 9000 (kN) liftoff thrust developed by 12 rocket engines, with enlarged fairing of 5.20 m in diameter and length of 12.39 m to accommodate large spacecraft
 CZ-2F/G Modified CZ-2F without escape tower, specially used for launching robotic missions such as Shenzhou cargo and space laboratory module with payload capacity up to 11.2 tons in LEO
 CZ-3B(A) More powerful Long March rockets using larger-size liquid propellant strap-on motors, with payload capacity up to 13 tons in LEO
 CZ-3C Launch vehicle combining CZ-3B core with two boosters from CZ-2E
 CZ-5 Second generation ELV with more efficient and nontoxic propellants (25 tonnes in LEO)
 CZ-6 or Small Launch Vehicle, with short launch preparation period, low cost and high reliability, to meet the launch need of small satellites up to 500 kg to 700 km SSO, first flight for 2010; with Fan Ruixiang () as Chief designer of the project
 CZ-7 used for Phase 4 of Lunar Exploration Program (), that is permanent base () expected for 2024; Second generation Heavy ELV for lunar and deep space trajectory injection (70 tonnes in LEO), capable of supporting a Soviet L1/L3-like lunar landing mission
 CZ-9 super heavy-lift launch vehicle.
 CZ-11 small, quick-response launch vehicle.
 Project 921-3 Reusable launch vehicle current project of the reusable shuttle system.
 Tengyun another current project of two wing-staged reusable shuttle system.

Cancelled/Retired

 CZ-1D based on a CZ-1 but with a new N2O4/UDMH second stage.
 Project 869 reusable shuttle system with Tianjiao-1 or Chang Cheng-1 (Great Wall-1) orbiters. Project of 1980s-1990s.

Satellites and science mission
Space-Based ASAT System small and nano-satellites developed by the Small Satellite Research Institute of the Chinese Academy of Space Technology.
 The Double Star Mission comprised two satellites launched in 2003 and 2004, jointly with ESA, to study the Earth's magnetosphere.
 Earth observation, remote sensing or reconnaissance satellites series: CBERS, Dongfanghong program, Fanhui Shi Weixing, Yaogan and Ziyuan 3.
 Tianlian I telecommunication satellite
 Tianlian II () Next generation data relay satellite (DRS) system, based on the DFH-4 satellite bus, with two satellites providing up to 85% coverage.
 Beidou navigation system or Compass Navigation Satellite System, composed of 60 to 70 satellites, during the "Eleventh Five-Year Plan" period (2006–2010).
 Astrophysics research, with the launch of the world's largest Solar Space Telescope in 2008, and Project 973 Space Hard X-Ray Modulation Telescope () by 2010.
 Chinese Deep Space Network with the completion of the FAST, the world's largest single dish radio antenna of 500 m in Guizhou, and a 3000 km VLBI radio antenna.
 A Deep Impact-style mission to test process of re-directing the direction of an asteroid or comet.

Space exploration

Crewed LEO Program
 Project 921-1 – Shenzhou spacecraft.
 Tiangong - first three crewed Chinese Space Laboratories.
 Project 921-2 – permanent crewed modular Chinese Space Station
 Tianzhou – robotic cargo vessel to resupply the Chinese Space Station, based on the design of Tiangong-1, not meant for reentry, but usable for garbage disposal.
 Next-generation crewed spacecraft () – upgrade version of the Shenzhou spacecraft to resupply the Chinese Space Station and return cargo back to Earth.
 Project 921-11 – X-11 reusable spacecraft for Project 921-2 Space Station.
 Tianjiao-1 or Chang Cheng-1 (Great Wall-1) - winged spaceplane orbiters of Project 869 reusable shuttle system. Project of 1980s-1990s.
 Shenlong - winged spaceplane orbiter of current Project 921-3 reusable shuttle system.
 Tengyun - winged spaceplane orbiter in another current project of two wing-staged reusable shuttle system.
 HTS Maglev Launch Assist Space Shuttle - winged spaceplane orbiter in another current shuttle project.

Chinese Lunar Exploration Program
 First phase, Chang'e 1 and Chang'e 2 – launched in 2007 and 2010
 Second phase, Chang'e 3 and Chang'e 4 – launched in 2013 and 2018
 Third phase, Chang'e 5-T1 (completed in 2014) and Chang'e 5 – launched in Dec 2020
 Fourth phase, Chang'e 6, Chang'e 7 and Chang'e 8 – will explore the south pole for natural resources; may 3D-print a structure using regolith.
 Crewed mission: In the 2030s, – crewed lunar missions

Deep Space Exploration Program

China's first deep space probe, the Yinghuo-1 orbiter, was launched in November 2011 along with the joint Fobos-Grunt mission with Russia, but the rocket failed to leave Earth orbit and both probes underwent destructive re-entry on 15 January 2012.

In 2018, Chinese researchers proposed a deep space exploration roadmap to explore Mars, an asteroid, Jupiter, and further targets, within the 2020–2030 timeframe. Current and upcoming robotic missions include:
 Chinese Deep Space Network relay satellites, for deep-space communication and exploration support network.
 Tianwen-1, launched on 23 July 2020 with arrival at Mars on 10 February 2021. Mission includes an orbiter, a deployable and remote camera, a lander, and the Zhurong rover.
 Tianwen-2, formerly ZhengHe, targeted for launch in 2025. Mission goals include asteroid flyby observations, global remote sensing, robotic landing, and sample return. Tianwen-2 is now in active development.
 Interstellar Express, targeting for launch around 2024–2025 for Interstellar Heliosphere Probe-1 (IHP-1) and around 2025–2026 for Interstellar Heliosphere Probe-2 (IHP-2). Mission objectives include exploration of the heliosphere and interstellar space. Also to become the first non-NASA probes to leave the Solar System.
 Mars Sample Return Mission, initially proposed for launch around 2028–2030. Mission goals include in-situ topography and soil composition analysis, deep interior investigations to probe the planet's origins and geologic evolution, and sample return. As of December 2019, the plan is for two launches to be conducted during the November 2028 Earth-to-Mars launch window: a sample collection lander with Mars ascent vehicle on a Long March 3B, and an Earth Return Orbiter on a Long March 5, with samples returning to Earth in September 2031. Earlier plans implemented the mission in a single launch using the Long March 9.
 Jupiter System orbiter, tentatively named Gan De, proposed for launch around 2029–2030, and arriving at Jupiter around 2035–2036. Mission goals include orbital exploration of Jupiter and its four largest moons, study of the magnetohydrodynamics in the Jupiter system, and investigation of the internal composition of Jupiter's atmosphere and moons, especially Ganymede.
 A mission to Uranus, still tentative, has been proposed for implementation after 2030, with a probe arriving in the 2040s. It is currently envisioned as part of a future planetary flyby phase of exploration, and would study the solar wind and interplanetary magnetic field as well.

These missions, with the exception of the Uranus mission, have been officially approved or are in the study phase as of June 2017.

See also

 Beihang University
 China and weapons of mass destruction
 Two Bombs, One Satellite
 Chinese women in space
 Harbin Institute of Technology
 French space program
 List of human spaceflights to the Tiangong space station

References

China, PR

Chinese space program


Mooretown is a community in the Township of St. Clair, Ontario, Canada, located on the east bank of the St. Clair River. It was first established as Sutherland's Landing.

Mooretown gained in prosperity during the 19th century as a port of call for sail born vessels requiring assistance to pass "The Rapids" where steamboats driven by cord wood stacked on Mooretown's piers could be towed up river into Lake Huron.

The original Scottish settlers established a church at Sutherland's Landing (now between Mooretown and Courtright) which was then moved to Mooretown in the 1860s when the oak logs of the original structure rotted out.

The 1860s structure was struck by lightning in 1918 having been built of local timber with a copper clad steeple known to mariners as a navigation point.

The 1919 replacement structure is now on the Moore Museum's grounds having been preserved by artist Christine Anne Wingfield-Brandon. The structure retains the steeple bell from the original Sutherland's Landing Church.

Mooretown served as a regional center for salt mining and oil refining before these industries move to neighboring communities.

In the 19th century Mooretown was a regional seat with a considerable population with hotels and a municipal seat, it exists today as a quiet and distinctive community.

Communities in Lambton County

Mooretown, Ontario


Sir Robert John Pinsent (July 27, 1834 – April 28, 1893) was a lawyer, judge and political figure in Newfoundland. He represented Port de Grave in the Newfoundland and Labrador House of Assembly from 1867 to 1869.

He was born in Port de Grave, the son of Robert John Pinsent and Louisa Broom. Pinsent was educated in Harbour Grace, then studied law with Bryan Robinson and was admitted to the bar in 1856. He was named to the Legislative Council in 1859. In 1865, he was named Queen's Counsel. Pinsent was first elected to the Newfoundland assembly in an 1867 by-election. Originally elected without any party affiliations, he was defeated when he ran for reelection in 1869 as a supporter of union with Canada. Soon afterwards, he was named to the Legislative Council again. He ran unsuccessfully for election in Trinity Bay in 1873 as an opponent of Confederation. In 1878, Pinsent ran unsuccessfully in Burin as a proponent of Confederation. In 1880, he was named to the Supreme Court of Newfoundland and Labrador. Pinsent was married twice: to Anna Brown Cooke around 1856 and to Emily Hettie Sabine Homfray around 1873. He died suddenly in England at the age of 58 while seeking medical attention there.

References

Members of the Newfoundland and Labrador House of Assembly
1834 births
1893 deaths
Canadian Knights Bachelor
Newfoundland Colony judges
19th-century King's Counsel

Robert John Pinsent (judge)


Edwin Gillette (August 11, 1909 in Chicago – September 30, 2003 in Los Angeles) was a cameraman and inventor notable for the development of the Syncro-Vox technique of limited animation, which was used in the series Clutch Cargo.

Early life
Born to a Chicago architect, Gillette grew up in Pasadena, California, graduated in 1929 from the Phillips Exeter Academy in New Hampshire, and studied engineering at Stanford University. His interest in film led to his first job in the entertainment field at Paramount Studios, where he was Preston Sturges' secretary. After producing training films as an officer with the Army Air Corps in World War II, he returned to take a degree in cinema at USC.

Career
Gillette developed the Syncro-Vox technique of animation which was first used in "talking animal" commercials of the early 1950s. He filed a patent for the technique in 1952, and obtained patent #2,739,505 for it on March 27, 1956.

After working as the undersea cinematographer on the 1957 film Undersea Girl, he joined Clark Haas' Cambria Studios, where Syncro-Vox was put to use in their animated series Clutch Cargo (1959), Space Angel (1962) and Captain Fathom (1965). He retired as a partner in Cambria Studios in 1964.

Notes

External links

1909 births
2003 deaths
Artists from Chicago
Stanford University alumni
American animators
History of animation
20th-century American inventors

Edwin Gillette


Elmer Hewitt Capen (April 5, 1838 – March 22, 1905) was the third president of Tufts College (now Tufts University), serving from 1875 to 1905. He was born in Stoughton, Massachusetts. Capen graduated from Tufts in 1860, and while there he was a founding member of the Kappa Charge of Theta Delta Chi. Also, in 1859, while still an undergraduate, he was elected to, and served in, the Massachusetts House of Representatives. He relinquished his seat after one term in order to finish his studies and graduate with his class. After his graduation from Tufts, he studied at Harvard Law School, practiced law for a short time, and then became a Universalist minister.

Capen presided over the continued expansion of course and program offerings at Tufts, and the beginning of co-education (over his own objections) in 1892. He died in office on March 22, 1905. A bronze bust of Capen remains in Tufts' Goddard Chapel. The residence he constructed for himself and his family while president, at 8 Professors Row, is still known as Capen House. His wife was Mary Leavitt Edwards (1860-1944; married to Sumner Robinson following Elmer Capen's death). Elmer and Mary's only son, Samuel Paul Capen (1878-1956) also graduated from Tufts, and made significant contributions to the field of higher education; he became the first Director of the American Council on Education.

References

Sources
Elmer Hewitt Capen, 1875 - Tufts Interactive Timeline

1838 births
1905 deaths
Presidents of Tufts University
Members of the Massachusetts House of Representatives
People from Stoughton, Massachusetts
Tufts University alumni
Harvard Law School alumni
20th-century Christian universalists
19th-century Christian universalists
Clergy of the Universalist Church of America
19th-century American politicians
19th-century American clergy

Elmer Hewitt Capen


Foster Hendrickson Benjamin (1895–1936) was an American entomologist and lepidopterist.

Biography
Benjamin was born in 1895, and was friends with George P. Engelhardt and Jacob Doll, who introduced him to entomology. In 1921 he graduated from Cornell University, and got a job from Mississippi State Plant Board. He became a curator of William Barnes Museum in 1922 at Decatur, Illinois, and by 1927 became a member of the United States Department of Agriculture and Bureau of Entomology. He was an assistant in investigations of the Mexican and Mediterranean fruit flies, that he found in Texas in 1927, and in Florida, 1929. He became a member of the Bureau of Entomology, a division of United States National Museum, where he remained until his death in 1936.

References

American lepidopterists
1895 births
1936 deaths
Cornell University College of Agriculture and Life Sciences alumni
American curators
Date of birth missing
Date of death missing
20th-century American zoologists

Foster Hendrickson Benjamin


The Yakovlev Yak-30 was an experimental Soviet interceptor from the late 1940s. Derived from the Yak-25, from which it differed primarily in having wings sweptback 35° at quarter chord, the Yak-30 retained the fuselage, tail surfaces and undercarriage of the earlier fighter.

History
The Yak-30 was designed to meet a Soviet requirement for a fighter capable of Mach 0.9, and able to operate from existing unpaved airstrips. To meet this request required a sweptback wing. Yakovlev based their design on the existing Yak-25 experimental fighter, but incorporated a modified wing with a sweep of 35 degrees.

Development
The Yak-30 was to be very similar to the former Yak-25, with only a few changes. The fuselage was that of the Yak-25 but with a circular cross-section. The tail was as on the Yak-25 but with a one-piece rudder, and slightly enlarged horizontal surfaces. The three NR-23 cannon armament was retained, and the cockpit layout was unchanged. The wingtip tanks could not be used, as they moved the aircraft's center of gravity too far forward, so they were redesigned to fit flush under the wing, midway from the fuselage. The aircraft was powered by a 1,590 kgf (3,505 lbf) RD-500 turbojet.

Testing
The first of two Yak-30 prototypes was given callsign "42", and the number "5" painted on the rudder. This aircraft was successfully test-flown on 4 September 1948 by pilot Anokhin, who continued test-flying the aircraft until 16 December 1948.

The second prototype, the Yak-30D, which joined the flight test programme early in 1949, had a 38 cm (15 in) section inserted in the aft fuselage, revised mainwheel doors forming a large section of the fuselage skinning, Fowler-type flaps in place of split flaps, increased fuel and ammunition capacity, and changes to the oxygen system and radio equipment. The Yak-30D was also fitted with air brakes on the aft fuselage. Normal loaded weight (without external fuel) was increased by 110 kg (243 lb).

During testing, it reached a speed of Mach 0.935 in a dive. Compared to the Yak-25, top speed was increased by 40 km/h (25 mph) and service ceiling was increased by 1,000 m (3,281 ft). However, the swept wing was found to be unsatisfactory with poor aileron authority.

Although the modifications introduced by the Yak-30D eradicated several shortcomings displayed by the first prototype, the first production deliveries of the superior MiG-15 were already taking place by the time that the improved version of the Yakovlev fighter entered flight test, and the results of NII V-VS trials were, therefore, little more than academic. The Yak-30 designation was later reused for the Yakovlev Yak-30 (1960).

Specifications (Yak-30)

See also

Notes

Bibliography

 Gunston, Bill. Yakovlev Aircraft since 1924. London, UK: Putnam Aeronautical Books, 1997. .

1940s Soviet fighter aircraft
Yak-030 1948
Abandoned military aircraft projects of the Soviet Union
Single-engined jet aircraft
Aircraft first flown in 1948

Yakovlev Yak-30 (1948)


In general relativity, an event horizon is the part of a black hole where light cannot escape. Imagine the black hole to be like a ball that you could see in a large spot of emptiness. The event horizon would then be an outer bubble that surrounds that ball, the space between the ball and the larger bubble would be the event horizon. If an object goes past the event horizon, it can never get away from it. Light that is emitted from inside of the event horizon near the black hole can never reach an observer on the other side. If an observer saw an object fall into a black hole, it would look like the object was stuck at the event horizon forever. The reason this happens is because of the gravity of the black hole slows down time around it, making it look like the object will take an infinite amount of time to reach it.

Further reading
The Universe in a Nutshell by Stephen Hawking

Other websites

Black holes
Relativity

Event horizon


Abd al-Hadi al-Fadli (December 6, 1935 – April 8, 2013) was an Islamic author and thinker.

Life
Born near Basra, Iraq, he had a seminary education and also received a doctorate from the University of Cairo. He was a student of Ayatollah Baqir al-Sadr and Ayatollah Khoei. He is known for making accessible books in the Islamic sciences which are studied by traditional seminary students. He has taught in both universities and traditional seminaries (the hawzah). His works include Khulasat al-Mantiq, a book on Islamic logic, and Dirasat Mujiza 'Ilmay al-Rijal al-Ahadith, a book on the science of narrators ('ilm al-rijal or biographical evaluation) and narrations (hadith). One of his books, Introduction to Hadith, has been translated into English and was reprinted in 2011. He died in Qatif, Saudi Arabia.

Missionary approach to life
Al-Fadhli followed the missionary approach of Mohammad and his household. He draw a missionary approach for himself that transcends him to those goals. Those goals which are closely linked to Allah. He put the acceptance of Allah  as priority in his mind. He did not pay attention to the ephemeral world, and false glory, nor flatter artificially (Al-Hussain, 2015)

References

1935 births
2013 deaths
People from Basra
Iraqi Shia clerics
Iraqi schoolteachers
Iraqi academics
Islamic Dawa Party
Cairo University alumni

Abd al-Hadi al-Fadli