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Indian Space Capabilities

ISRO, Astrium ink bilateral space cooperation pact in Paris
30 Sep, 2008, 1637 hrs IST, ANI

PARIS: India and France on Tuesday signed a long term agreement for the Utilization of the Indian Polar Satellite launch vehicle for launching satellites.

The agreement was signed ahead of talks between Indian Prime Minister Dr. Manmohan Singh and French President Nicholas Sarkozy here.

The Chairman of Antrix Corporation, the commercial arm of the Indian Space research Organisation (ISRO) Dr. G Madhvan Nair and the CEO of Astrium, the French space organization, François Auque signed the pact.

The two companies have been already cooperating in the field of space activities.

Two major satellite contracts have been already signed by both companies, representing a major breakthrough for European and Indian space organizations.

Agreements on civil nuclear cooperation and social security are also to be signed after the summit level talks between Singh and Sarkozy this afternoon.

The agreement on nuclear cooperation will be the first such pact after the Nuclear Suppliers Group (NSG) granted a waiver to India.

Officials of the two countries had finalized the bilateral nuke pact in New Delhi in January this year during Sarkozy's visit to India.

The pact in the field of social security will benefit of over 200,000 non-resident Indians working in France.

Prior to their meeting, both Singh and Sarkozy have indicated that the nuclear pact will be finalised.

ISRO, Astrium ink bilateral space cooperation pact in Paris- ET Cetera-News By Industry-News-The Economic Times
 
Nitesh, which six other countries do you know?

ok one more:

X-Ray Specs Ready To Eye The Moon

X-Ray Specs Ready To Eye The Moon


by Staff Writers
Oxon UK (SPX) Sep 29, 2008
A sophisticated X-ray camera made by scientists and engineers from the UK's Science and Technology Facilities Council (STFC) is set to launch into space on October 22nd aboard the Chandrayaan-1 spacecraft - India's first mission to the Moon.
This is the first time the UK and India have collaborated in space science and the two countries' space agencies will be attending the 59th International Astronautical Congress (IAC) next week (29 September - 3 October), along with space agencies from all over the globe. A replica of the camera will be on display at the IAC.

The camera - C1XS - was designed and built at STFC Space Science and Technology Department in the Rutherford Appleton Laboratory. It is an X-Ray Spectrometer that will measure X-rays to map the surface composition of the Moon which will help scientists to understand its origin and evolution, as well as quantifying the mineral resources that exist there.

Chandrayaan-1 is the first lunar mission from the Indian Space Research Organisation (ISRO). It is designed to orbit the Moon and carries radar and particle detectors as well as instruments that will make observations in the visible, near infrared and X-ray part of the electromagnetic spectrum.

Dr Ian Crawford from Birkbeck College, who chairs the C1XS Science Team, said, "There is still a lot we don't know about the Moon. Accurate maps of the surface composition will help us unravel its internal structure and geological history. Among other things this will help us better understand the origin of the Earth-Moon system. We will also be able to learn more about what happened on the Moon since it formed and how and when it cooled. By peering into its craters, we may even be able to see below its crust to the material underneath."

C1XS was developed in conjunction with the Indian Space Research Organisation. It employs new technology to make a compact, lightweight, sensitive instrument that can measure the abundances of chemical elements in the lunar surface, by detecting the X-rays they absorb and re-emit.

The spectrometer builds on a successful technology demonstration called D-CIXS, which was launched aboard the European Space Agency's (ESA) Smart-1 mission to the Moon.

Prof Manuel Grande, C1XS Principal Investigator, Aberystwyth University, said,"In the UK we are rapidly becoming the world's leading maker of planetary X-ray instruments.

C1XS will cement this position, and paves the way for UK leadership of similar instruments at Mercury and elsewhere in the Solar System."

C1XS will work by looking at X-rays from the Sun which have been absorbed by atoms in the lunar soil, then re-emitted in such a way as to reveal the chemistry of the surface.

The spectrometer is sensitive to magnesium, aluminium and silicon X-rays. When the solar X-ray illumination is bright, for example during a solar flare, it may also be able to make measurements of other elements such as iron, titanium and calcium.

To make accurate measurements of the surface elements it is essential to measure the X-rays being produced by the Sun. C1XS has an additional detector system to measure these X-rays called the X-ray Solar Monitor (XSM) which is provided by the University of Helsinki Observatory, Finland.

"C1XS uses an advanced version of conventional CCD sensors such as you might find in a digital camera, called swept charge devices. These are mounted behind a gold/copper 'collimator', which limits the field of view of the X-ray detectors to a narrow beam.

"Together these two innovations form an X-ray camera that has high resolution allowing identification of the surface elements, yet is far more compact and lower mass than other spacecraft's X-ray spectrometers." Said Chris Howe, C1XS Chief Engineer, from STFC Space Science and Technology Department.

Dr Ian Crawford concluded, "There is currently a renaissance in lunar exploration, with many international lunar missions either underway or planned for the next few years, leading up to the planned return of astronauts to the lunar surface by 2020. Through its involvement in C1XS, the UK is playing an important role in this international activity."
 
Chandrayaan-I moved to Sriharikota for October end launch

2 Oct 2008, 1926 hrs IST,PTI

BANGALORE: The stage is set for India's first unmanned lunar mission Chandrayaan-I as the spacecraft has completed all environmental tests and shifte
d to Sriharikota for launch on-board PSLV-C11.

The PSLV-C11 was expected to be launched later this month.

The environmental tests included vibration and acoustic tests, ISRO officials said.

The tests were carried out at the ISRO Satellite Centre at Bangalore, the officials said.

According to the sources, the launch vehicle has been integrated up to the fourth stage.

"The spacecraft after reaching Sriharikota will undergo mandatory tests after which it will be mated with PSLV-C11 vehicle", they said.

http://timesofindia.indiatimes.com/...r_October_end_launch_/articleshow/3553279.cms
 
Chandrayaan to be launched on October 22

Bangalore, Oct 6 (PTI) After repeated delays, India's first unmanned mission to the Moon-- Chandrayaan-1-- will be launched on October 22 from the spaceport at Sriharikota, Indian Space Research Organisation(ISRO) sources said today.
The sources said weather conditions permitting the Polar Satellite Launch Vehicle (PSLV-C11) carrying the Chandrayaan-1 satellite will blast off at 6.20 AM, the sources taold PTI. The Rs 386-crore lunar mission was cleared by the Government five years back but the historic launch faced several delays.

The space odyssey moved one more step closer to fruition when the satellite was transported from here to Sriharikota in a special vehicle last week and has since reached the Satish Dhawan Space Centre in the coastal town, about 100 km from Chennai.

The spacecraft is expected to be mated with ISRO's work-horse rocket,PSLV-C11 later this week, the sources said.

The spacecraft would carry 11 payloads -- five from India and six from the US, Europe and Bulgaria.

It would orbit the Moon at an altitude of 100 km mapping the topography and the mineralogical content of the lunar soil.

Chandrayaan-1 would also carry a Moon Impact Probe payload for demonstrating the technology needed towards landing on the Moon's surface.

India believes the lunar mission is a step towards its quest for exploration of outer space and inter-planetary missions. PTI

http://www.ptinews.com/pti/ptisite.nsf/$All/7730405D8A088BE6652574DA004B5947?OpenDocument
 
The Hindu News Update Service

India to have new launchpad for proposed manned mission
Sriharikota (PTI): India plans to a have a new launchpad to undertake its proposed human space flight (manned mission) programme, ISRO officials said.

A project report on the human space flight is ready and is awaiting final approval from the government, Director Satish Dawan Space Centre (SDSC) SHAR, M P Dathan said.

He said the indigenously built geosynchronous launch vehicle will be upgraded to undertake this mission.

According to ISRO officials, this human space flight is expected in 2015. This will be the third launchpad at Sriharikota, they said.
 
Moon mission is not expensive, says ISRO- ET Cetera-News By Industry-News-The Economic Times


Moon mission is not expensive, says ISRO
9 Oct, 2008, 1341 hrs IST, PTI

BANGALORE: Dismissing suggestions that Chandrayaan-1 was an expensive mission, ISRO on Thursday said the moon odyssey will enable India to upgrade technological expertise for exploration of outer space and ultimately help in setting up a base on the earth's natural satellite.

"Moon mission cost is less than Rs 400 crore, which is just ten per cent of annual budget of ISRO spread over many years," ISRO spokesperson S Satish said, countering critics who questioned the need for such a venture when other countries have already explored the moon.

Cost of India's first unmanned lunar mission, slated for October 22, is Rs 386 crore, which includes Rs 100 crore for the establishment of Indian Deep Space Network (IDSN) at Byalalu near here that will perform the task of receiving radio signals transmitted by future satellites, not just Chandrayaan-1.

"Those who argue that the moon mission is unnecessary do not know the full facts," say ISRO officials.

For example, previous moon missions have been undertaken by individual countries and it's no secret that expertise of that nature are not shared. So, India had to do it by itself lest it would lose out in the race for the Moon.

Besides, the moon mission would enable ISRO to upgrade its technological expertise further as it takes steps towards its quest for exploration of outer space and inter-planetary missions.

"There is also the pride factor. With China forging ahead in the space field, India cannot lag behind and miss the bus. Moreover, some kind of colonisation of Moon cannot be ruled out in the coming decades. We have to have our presence," an ISRO official said.
 
The Hindu : Front Page : Chandrayaan-1 gets ready for launch


Chandrayaan-1 gets ready for launch
T.S. Subramanian

SRIHARIKOTA: If all goes well, Chandrayaan-1 spacecraft, to be launched by the Polar Satellite Vehicle (PSLV-C11) on October 22 at 6.20 a.m. from the Sriharikota space port, will reach the lunar orbit on November 8, according to M.Y.S. Prasad, Associate Director, Satish Dhawan Space Centre, Sriharikota.

About 1,000 engineers and technicians of the Indian Space Research Organisation (ISRO) have rolled up their sleeves and are working hard for the past two months to ensure a flawless launch. The 52-hour countdown will begin on October 20 at 4 a.m.

On Saturday, the PSLV-C11, which is 44.4 metres tall and weighs 316 tonnes, looked majestic in the huge Vehicle Assembly Building (VAB) of the state-of-the-art second launch pad on the Sriharikota island. As it gleamed in white and brown colours, the VAB’s massive doors, in contrast, shone in speckled grey.

“All checks on the vehicle are completed. The vehicle is now ready to receive the satellite,” declared T. Subba Reddy, Manager, Second Launch Pad, when journalists visited the complex.

A few kilometres away, Chandrayaan-1 spacecraft, which weighs 1,380 kg, is undergoing a battery of tests to test its flight-worthiness.

The spacecraft will be moved to the VAB on October 14 and married up with the PSLV-11. The “marriage ceremonies” such as filling Chandrayaan-1 with propellants and gas, and cobbling of the heat-shield which protects the spacecraft through searing heat when the rocket climbs through the atmosphere, will be performed over the next four days. On October 18 will begin the extremely slow journey of the rocket with the spacecraft, as if it were a temple chariot with the deity, from the VAB to the launch pad.

The PSLV, which stands on a mobile platform, will be wheeled on rail tracks to the launch pad, also called the umbilical tower, which is one km away. A powerful hydraulic bogey system will slowly pull the vehicle. The one-km journey will take two hours!

“The movement of the vehicle to the launch pad will take place on October 18. There will be minimum four days of work on the launch pad. The launch will take place on October 22 at 6.20 a.m., provided the weather supports us,” said M.C. Dathan, Director, Satish Dhawan Space Centre, Sriharikota.

However, V. Krishnamurthy, the Range Safety Officer for the mission, is a confident man. “Rains do not matter. The launch vehicle is rain-proof. It can get drenched and we can still launch,” he asserted.

The PSLV had lifted off earlier when it was pouring over the island. Only a cyclone would pose a problem to the launch on time. Since this was the time when the north-east monsoon set in, Mr. Krishnamurthy said ISRO had formed a team of weather specialists who would be in Sriharikota six days before the launch.

Depending on their inputs, ISRO would take a decision on when to ignite the rocket.

Chandrayaan-1 will carry 730 kg of propellants. About 600 kg of these propellants will be used to put the spacecraft into lunar orbit at an altitude of 100 km. The spacecraft will have a mission-life of two years and use up 70 kg of propellants during this period, Mr. Prasad said.

Chandrayaan-1 has 11 scientific payloads — five from India and six from abroad. The payloads from abroad includes those from NASA, the European Space Agency and Bulgaria. The payloads will map the chemicals and minerals on the moon, and also prepare a 3-diemensional map of the entire lunar surface. The mission will also give clues on the early origin of the moon.

Mr. Prasad said, “We will be able to confirm whether there is water on the surface of the moon near the Poles with the help of the Chandrayaan mission.” Water on the moon was first identified by a NASA mission called Clementine. Based on that, NASA concluded that there could be a possibility of water in the moon’s South Pole, he added.

Moon Impact Probe

S. Satish, Director, Publications and Public Relations, ISRO, said an important Indian payload on the Chandrayaan-1 was the Moon Impact Probe (MIP). When the spacecraft reached the lunar orbit at an altitude of 100 km, the MIP would eject from Chandrayaan. As the MIP sped towards the moon’s surface, its video-camera would take pictures of the lunar surface.

Its altimeter would measure the instantaneous altitude from the moon. A third instrument, a mass spectrometer, would sniff the tenuous atmosphere above the moon. V. Seshagiri Rao, Deputy Director, Range Operations, Sriharikota, said each payload on the Chandrayaan, was subjected to different tests at Sriharikota.
 
The Hindu : Front Page : IDSN tracks Japanese lunar mission

IDSN tracks Japanese lunar mission

R. Ramachandran
Bangalore: The impressive communications infrastructure called the Indian Deep Space Network (IDSN), set up by the Indian Space Research Organisation to transmit and receive signals from Chandrayaan 1, successfully tracked last week the Japanese lunar mission SELENE (Koguya), launched in 2007 and now orbiting the moon.

“We have been able to establish downlink with the spacecraft with the help of JAXA (Japan Aerospace Exploration Agency),” S. K. Shiva Kumar, Director, ISRO Telemetry Tracking and Command (ISTRAC), told The Hindu.

“We have also been able to bring uplink fairly quickly, establish contact with the spacecraft and track the spacecraft successfully. That has given us ample confidence. If you have tracked a similar object closer to the moon and have been able to establish links with it with good margins, to that extent your comfort level is high. You don’t have to worry about our capability to do [it] with Chandrayaan,” he said.

The IDSN has been set up at Byalalu, a village 40 km from Bangalore. It is an important and critical element of Chandrayaan, expected to be launched on October 22, as it is the constant communication link to the lunar satellite from the ground. It will be used for tracking as well as for orbit control and housekeeping operations for the entire duration of the moon mission of about two years.

Different game

Doing this for a deep space mission such as the moon mission is a different ball game altogether as compared to the satellite missions that ISRO had undertaken hitherto, which included Low Earth Orbit (LEO) remote sensing IRS system of satellites and geostationary communication INSAT satellites. Missions that go beyond a distance of 1,00,000 km from the earth are usually termed as deep space missions.

The IDSN comprises a 32-metre antenna designed and built indigenously and an 18-metre antenna built by a German agency to ISRO’s specifications. As the launch of Chandrayaan approaches, the natural question is how do we know that DSN-32 will perform as desired, given that ISRO has had no earlier experience in deep space missions? How is DSN-32 calibrated to say with confidence that Chandrayaan will be accurately tracked throughout its lifetime? The IDSN will take over the tracking of Chandrayaan 17 minutes after its launch from the Satish Dhawan Space Launch Centre at Sriharikota, when the satellite would have separated from the launch vehicle.

While, in principle, it would suffice for the IDSN to take over after the lunar satellite reaches the Earth Transfer Orbit (ETO) of 1,00,000-km apogee, being the first deep space mission, the IDSN plans to track in parallel beyond the first ETO apogee of 22,000 km itself, according to Dr. Shiva Kumar.

Link with ROSETTA

“When Chandrayaan goes near the moon, we will be there to track it,” Dr. Kumar said. In addition, beginning this week, DSN-32 will be put into calibration and test mode with another deep space probe of the European Space Agency (ESA) called ROSETTA, a probe launched in 2004 with the objective of landing on the Comet 67P/Churyumov-Gerasimenkoin 2014.

When a link with ROSETTA would be established, DSN-32 would have truly proved itself as the real deep space tracking system. In addition, the IDSN is being put to regularly track radio stars. “We have been tracking Cygnus, Cassiopeia (supernova remnant stars) and, of course, sun and moon which are all good radio sources in their own right. We have been able to obtain signals from them and track them,” Dr. Kumar said. “This has also given us ample experience… we now know how to maximise our signals,” he pointed out.
 
http://www.defence.pk/forums/indian...-indian-space-capabilities-20.html#post206294

Chandrayaan-I preparation reaches final stages

Sriharikota, Oct 13 (UNI) As preparations reached the final stages for the launch of Chandrayaan-I, India's first unmanned lunar mission, there is real excitement at the Satish Dhawan Space Centre (SDSC) SHAR from where it will be blasted off on October 22.

The mood at the SHAR is really upbeat for the final countdown of India's leap into the outer space.

''We are all really excited. The world itself is excited,'' SHAR Director M C Dathan told visiting journalists from Thiruvananthapuram.

''Till now we had only gone up to 36,000 km. Now we are moving from 36,000 km to about 3.8 lakh km. From the geo-synchronous orbit, we are now moving to the lunar orbit, which is a great milestone for the country,'' he said.

''Every one here is engaged completely in the mission and the mood is upbeat,'' Mr Dathan said.

VSSC director K Radhakrishnan, PSLV Project Director George Koshi and Mission Director Annadurai were all seen to be in an upbeat mood while explaining about the mission.

''This is going to be an important mission in the history of India. For the fist time, we are going to circle the moon, which is a real excitement,'' Mr Radhakrisnan said.

Talking about the greatest challenge faced in the mission, he said the mission itself was a challenge. ''The challenge is to place the Chandrayaan in a 100 km orbit around the moon. We are confident of reaching this orbit,'' he said.

Mr Koshi said the PSLV-C11 is all ready and waiting for the satellite to be installed and integrated to the vehicle tomorrow.

''For the last so many months, we were all with the satellite and the vehicle. We are so excited to see it leaping into the sky,'' he said.

The Chandrayaan-I will blast off into the sky at 0620 hrs on October 22 from here. Its main objetive is to look into the distribution of various minerals and chemical elements and high-resolution three-dimensional mapping of the entire lunar surface.
 
The Space Review: The new path to space: India and China enter the game (page 1)

The new path to space: India and China enter the game

by Dwayne A. Day
Monday, October 13, 2008
Imagine for a moment that the Cold War never happened. Suppose that Joseph Stalin had suffered an aneurism a week after the end of World War 2 and that his successors, although not exactly friendly toward the West, chose a far less antagonistic relationship. No ICBMs, no technological competition, no Space Race.

Would humans be in orbit right now? Would any country have launched anybody into space considering the immense costs and the lack of a compelling political rationale?

This is the kind of counterfactual argument that makes historians sputter. It has too many variables and cannot really tell you much. But we do know that the Cold War caused the United States and the Soviet Union to rush to outdo each other in spaceflight, forcing each to launch faster and seek to produce “firsts” in the Space Race. Without the Cold War, human spaceflight would have developed along a more normal trajectory.

But what is “normal” anyway? Is there even a way to measure it? Fortunately, China’s entry into human spaceflight and India’s newly stated desire to have a human spaceflight program allows us to consider this subject from a slightly different perspective. In the past couple of weeks a number of public talks by Indian and Chinese space officials as well as American observers of the Chinese space program have shed some new light on this issue.

India in space
On October 6, the American Association for the Advancement of Science (AAAS) sponsored a panel discussion with the National Institute for Advanced Study (NIAS) at AAAS headquarters in Washington, DC. NIAS is an Indian think tank based in Bangalore, and the discussion consisted of three presentations on the Indian space program, the future of the Indian nuclear program, and the need for professional accreditation of scientists. The presentations were followed by a panel discussion including the three presenters and three other NIAS representatives.

The first speaker was Krishnaswami Kasturirangan, the director of NIAS and a member of the Indian Parliament. Kasturirangan was chairman of the Indian Space Research Organization (ISRO) for nine years and Secretary to the government of India in the Department of Space. He earlier served as the director of the ISRO Satellite Centre where he oversaw activities related to the development of new generation spacecraft such as INSAT-2 and the Indian Remote Sensing Satellites IRS-1A and 1B as well as scientific satellites.

Kasturirangan gave a fast-paced overview of the Indian space program. The program began in the 1960s—what he dubbed the “initiation phase”—and continued in the 1970s, or “experimental phase.” The 1980s were when India finally entered its “operational phase” where its satellites were capable of serving the social priorities of the country. As a poor country, India could not treat spaceflight as a luxury—the satellites it developed were directly tied to the social needs of the Indian people. Kasturirangan noted that the United States assisted India in this regards: in the early 1970s the United States sponsored a demonstration program using an American geostationary satellite to provide telemedicine resources to rural doctors. (See “India and the US: partners or rivals in space?”, The Space Review, February 11, 2008)

Telemedicine is particularly important in India, Kasturirangan explained, because 98% of the people from rural areas who become doctors leave those areas, resulting in a small number of doctors with the required training to serve a large number of people. Telemedicine can therefore bring some of the medical resources of India’s thriving urban areas to remote villages. Also important is remote sensing for agricultural assessment. According to Kasturirangan, India can now predict with 90% accuracy the national crop output one month before harvest. For a country that in its past frequently faced starvation and malnutrition, this is a vital resource. He noted that in 1978 Indian remote sensing satellites could achieve one kilometer resolution; today they can achieve one meter resolution.

Now that India has not only developed significant space capabilities but also experienced substantial economic growth, the Indian space program has entered into what Kasturirangan describes as its “expansion phase.” India can afford the luxuries of space science and possibly even human spaceflight. The country’s first lunar spacecraft, Chandrayaan-1, is scheduled for launch later this month. The government has also created the Antrix Corporation to market Indian space capabilities around the world. The country’s next goals are development of a heavy launch vehicle, lunar exploratory missions, a two-stage-to-orbit reusable launch vehicle, human spaceflight, and further international cooperation.

During the panel discussion, several members of the audience asked Kasturirangan and two of his colleagues questions about the Indian space program. His colleagues included S. Chandrashekar, a professor of corporate strategy at the Indian Institute of Management in Bangalore, as well as a 20-year veteran of ISRO. Chandrashekar’s recent work at NIAS includes an assessment of Pakistani and Chinese ballistic missile capabilities. In response to a question about Pakistan’s missiles he said that it is clear that they are not entirely based upon Chinese technology and that Pakistan clearly has significant ballistic missile design expertise of its own. Chandrashekar also said that his assessment of China’s missiles disagrees with that of the United States. For instance, he said that while the Americans have concluded that the Chinese DF-5 ICBM is a two-stage missile, his group has concluded that it is actually a three-stage missile. His research also disagrees with the American assessment of China’s newer DF-31 ICBM.

Most of the space questions were directed at Kasturirangan, who was asked about India’s plans for human spaceflight. Kasturirangan explained that right now India’s government has not officially approved a human spaceflight program. Although he did not say so, other sources have indicated that India will pursue a two-person capsule. ISRO is currently studying technology options and questions and he rattled off a long list, including life support, reentry, tracking and human-rating a launch vehicle, clearly indicating that he was personally familiar with the studies. Only after the Indian space agency has answered these questions and defined the kind of vehicle they want to build, its costs, and the timeframe for the first human space launch, will ISRO officials take those plans to the Indian Parliament for formal approval. Simply put, India’s human space program has not yet been fully defined or approved.

Kasturirangan said that ISRO has not yet made a decision concerning launch vehicles, but is considering a 2.5-stage rocket for carrying a manned spacecraft into orbit. ISRO is studying two possibilities, the current Geostationary Launch Vehicle (or GSLV), which has flown successfully several times, or the planned GSLV Mark 3, which is scheduled for first launch in 2010. The Mark 3 will be more capable, but as of yet it is only a paper vehicle and therefore higher risk.

When asked about India’s goals in space science beyond the Chandrayaan lunar mission, Kasturirangan listed several objectives: developing chemical analysis capabilities for future lunar landers, sample return from the Moon, international cooperation on a robotic Mars mission, and the Astrosat observatory, which is to be capable of observations from the ultraviolet to high energy X-ray portion of the electromagnetic spectrum.

Although he is not currently involved in decision making concerning the Indian space program, it was apparent from the clarity and quickness of his answers not only that Kasturirangan was very familiar with the current state of Indian spaceflight plans, but that Indian space officials are putting a great deal of effort into planning their next moves in the expansion phase of Indian spaceflight.

China in space
On October 8, several American space experts spoke at The Heritage Foundation in Washington, DC on China’s space program. The speakers were Dean Cheng, of the Center for Naval Analysis; Kevin Pollpeter, China Program Manager of the Center for Intelligence Research and Analysis; and Scott Pace, the new director of the Space Policy Institute at George Washington University and former NASA associate administrator for program analysis and evaluation.

The panel discussion had the rather awkward title of Pandas in Orbit. Heritage is a conservative think tank, but none of the speakers were particularly ideological, although they did not reflect viewpoints recently expressed by some other speakers (for instance, Joan Johnson-Freese and Theresa Hitchens) calling for more cooperative engagement with China.

Unfortunately, the Heritage event again reflected some of the ignorance and myths that surround China’s space program—opinions not expressed by the speakers, but by Heritage’s moderator and some members of the audience. The moderator once again repeated the mistaken claim that China plans to land a man on the Moon by 2017, a myth resulting from confusing China’s stated plans for a robotic lunar sample return mission with plans for a human lunar lander. Several of the questions posed to the speakers also repeated some of the erroneous claims made about China’s space weapons capability, including the charge that China “blinded” an American satellite with a laser, and that China is developing a “parasitic microsatellite” capability. The laser incident was exaggerated—in fact, the United States government never protested the incident to the Chinese government, and obviously did not interpret it as an attack—and the parasitic microsatellite claim has been effectively debunked. (See “Paper dragon: the Pentagon’s unreliable statements on the Chinese space program”, The Space Review, June 23, 2008)

Fortunately, whatever ignorance was reflected by the moderator and audience was counterbalanced by the informative speakers. They all emphasized the point that it is a common mistake to view China’s space developments in isolation from its other activities. China does not simply have a “space program,” the country’s leadership views space as part of its goals in many areas, including economic development, national security, and diplomacy.

Dean Cheng explained that the recent Shenzhou 7 spaceflight demonstrated what observers of the Chinese space program have realized for at least half a decade now, that the People’s Republic of China is a space power possessing the “full range of space mission capabilities.” These include the ability to produce, launch, and track satellites on its own. The country has a range of indigenously developed satellite systems including communications, meteorological, Earth-imaging and navigation satellites.

According to Cheng, the PRC sees space as promoting “zonghe guojia liliang,” or “comprehensive national security.” It improves the national economy both by raising China’s level of science and technology and generating high-tech jobs, and serves national security, both through military security and diplomacy.

It is this latter point that often gets ignored in the West. The PRC uses space as a diplomatic tool, Cheng noted, citing several recent examples including satellite sales to Venezuela and Nigeria, the sharing of satellite data, and China’s membership in the Asia Pacific Space Cooperation Organization. Potential future efforts include offering insurance for space missions and training foreign astronauts.

Of course, it is China’s January 2007 ASAT test that gained the most attention in the West. China’s view of the military value of space has evolved substantially over the past two decades. The 1991 American experience in Desert Shield/Desert Storm had a major effect upon China’s People’s Liberation Army (PLA), convincing the PLA leadership that future wars will involve joint forces, will be high-tech, and rely upon precision weapons. The military will rely on information for operational coordination, target location, and weapons guidance.

Cheng said that more recent wars have continued to shape China’s view of space and in recent years the PLA has begun to shift from a view of space as a source of information to a “key battleground in its own right.” He cited the example of the PLA Encyclopedia, which in 1997 downplayed the importance of space, but by 2002 rated it as a vital battleground.

In light of this evolving viewpoint of space’s importance, China’s manned spaceflight missions remind the world of the PRC’s space capabilities even if the human spaceflight program has no overt military goals.

Kevin Pollpeter focused more on the economic aspects of China’s space ascendancy, a rise which has been rapid in the past few years. He noted that since 2001 China had flown three human spaceflight missions, launched a lunar mission, conducted ASAT tests, and orbited a radar satellite, a remote sensing constellation, an ocean monitoring satellite, a communications relay satellite, and exported two satellites. China had also achieved launcher reliability at international standards and has not experienced a launch vehicle failure since 1996, possibly due to the illegal assistance of several American companies.

Space, according to Pollpeter, is a method for China to achieve “great power status.” Chinese officials believe that it is a technology driver that can propel China’s economy and facilitate innovation in pharmaceuticals and metallurgy. It can also provide other economic benefits, like increases in quality control testing and improving standards for selecting and training management personnel.

The Shenzhou human spaceflight program in particular is a driving force. Pollpeter noted that the average age of Shenzhou personnel is 36 and the average age of their Chang’e robotic lunar mission personnel is 33. Pollpeter compared this to many NASA projects where the average age is in the fifties and 25 percent of the US aerospace workforce is eligible to retire.

If China has been making great strides in spaceflight in the past decade, the United States has been either standing in place or shooting itself in both feet. Pollpeter noted that recent American national space policy and US Air Force space documents are seen by many foreign leaders as unnecessarily provocative and have contributed to a perception around the world that the United States government overemphasizes national security applications and intends to weaponize space. Pollpeter concluded by saying that China’s rise as a space power will have negative consequences for the United States. Simply increasing the American government’s space budget is not enough and solutions have to come from many areas. Although the recent success of SpaceX’s Falcon launch vehicle demonstrated that American industry can accomplish great things, the US government will have to take the lead in improving America’s space capabilities relative to China.
 
The Space Review: The new path to space: India and China enter the game (page 2)

The final speaker was Scott Pace, who began his talk by emphasizing that he was not an expert on the Chinese space program but was very familiar with the issue of dual use technologies. Pace devoted much of his talk to China’s possible human lunar ambitions.

China has made some impressive advances in human spaceflight with relatively few flights. The United States flew five orbital missions over three and a half years before accomplishing its first space walk during Gemini 4 in June 1965. The Soviet Union accomplished the first ever space walk on its seventh manned mission in March 1965, with four years of human spaceflight experience. China took five years and did it in three missions. Pace noted that China’s 14-minute spacewalk was comparable to the first spacewalks of Russia and the United States (24 and 20 minutes respectively). But he also added that although China had gone from a one-person mission to a three-person mission slightly slower than the Soviet Union and faster than the United States, there is really no good substitute for actually doing things when it comes to spaceflight. China has undoubtedly extensively studied previous American and Soviet extravehicular activities, but there are many things you cannot learn from a book; you have to do them yourself. In addition, claims that China had copied most of its equipment from the Russians were exaggerations and the Shenzhou is approximately 95% indigenously developed and produced.

Pace also offered a brief overview of NASA-Chinese National Space Agency (CNSA) discussions. In December 2004 NASA administrator Sean O’Keefe met with a CNSA delegation and discussed possible cooperation on space applications and Earth and space science. Nothing came of this meeting. In September 2006 NASA administrator Mike Griffin traveled to China where American and Chinese officials discussed regular exchanges between the two countries. Nothing really came from this meeting either and it was nearly another two years—in July 2008—when a NASA team visited CNSA and the two organizations formed two working groups on Earth and space science.

Pace said that many in the space community viewed space as a potential form of “ping-pong diplomacy” that could ultimately lead to greater cooperation between the two countries. But in his opinion, this was unrealistic. Space cooperation is dependent on the broader US-China relationship. As long as that relationship is rocky, there will be little or no space cooperation.

Pace said that although Chinese technical capabilities are becoming clearer, their strategic intent has not, and several broad questions remain unanswered: Will China develop a human lunar lander? Will China give the Long March 5 (CZ-5) heavy launch vehicle priority over continued evolution of the workhorse Long March 2 (CZ-2)? Will China focus more on robotic systems for disaster monitoring and navigation, among other missions?

If China decides to send humans to the Moon, its current most likely method will be to use the Long March 5 booster. First announced in 2001, it is projected to launch in 2014 after numerous schedule slips. Designed to launch heavy geosynchronous communications satellites, it could place 25 metric tons (55,000 pounds) into low Earth orbit or 14 metric tons (31,000 pounds) into a geosynchronous transfer orbit.

Pace mentioned that a 2008 paper titled “Research on the Technical Approach of Manned Lunar Mission” (in Chinese) was prepared by Long Lehao, of the Chinese Academy of Launch Vehicle Technology, and Rong Yi, of the Beijing Institute of Space System Engineering. They identified four different approaches to the Moon, most of which require multiple launches of Long March 5 boosters. Two of the methods would require three launches.

Pace noted that Lehao is the developer of the Long March 5 and therefore inclined to underemphasize the difficulty of the task. NASA has also developed a notional concept of how China might conduct a human lunar mission and in NASA’s estimation it will require four Long March 5 launches, not three. The first launch would carry a translunar injection (TLI) stage into low Earth orbit. It would be followed by the unmanned lunar landing vehicle, which would automatically dock with the TLI stage and head to the Moon. They would be followed by another TLI stage and then a Shenzhou vehicle which would also rendezvous in low Earth orbit before heading to the Moon. In lunar orbit the Shenzhou would rendezvous with the lunar lander and two astronauts would descend to the Moon’s surface. They would later rendezvous with the Shenzhou and return to Earth. Four launches and four rendezvous events would entail a significant amount of risk, especially for a country with such limited human spaceflight experience. In its current approach to returning humans to the Moon, NASA has sought to minimize the number of launches and rendezvous events.

After Pace’s talk the speakers took questions from the audience, several of which focused upon how much China spends on spaceflight, particularly the manned program, and how obscure their future plans are. Dean Cheng said that although Chinese officials have stated how much they have spent developing Shenzhou, the numbers are effectively meaningless because of the convoluted bureaucracy that is involved in the project. The Chinese may not even know themselves due both to arcane and secretive accounting rules and the way that the program is matrixed throughout various organizations. A better measurement is not cash, but level of effort. Cheng also added that when the People’s Liberation Army was ordered earlier this decade to divest itself of its various commercial holdings such as casinos—part of a plan to “professionalize” the Chinese military—one industry that they did maintain control of was communications satellite manufacturing, which they viewed as vital to their military mission.

Pollpeter said that during a recent trip to China, a senior Chinese space official explained that the government was seeking to separate its military and civil space functions which up until now have largely been lumped under the responsibility of the People’s Liberation Army. Although Pollpeter did not offer an explanation for this change in policy, it is not hard to imagine that it is part of the broader effort to increase accountability, professionalism, and clarity in the Chinese military. All that you need to know about the convoluted nature of the Chinese military can be summed up in one name: the People’s Liberation Army Navy.

All three speakers agreed that a major problem with China’s space program is its opaqueness. This has been a major complaint in the West, and something that has apparently fallen on deaf ears in China.

Openness in Glasgow, and in orbit
Despite oft-repeated Western complaints about China’s lack of openness concerning its space program, the reality is that although China is secretive about some of its space projects and plans, including its budget, the country is far more open than many Westerners believe, and certainly far more open than the Soviet Union ever was during the Cold War. There was no better example than the talk given by a member of the Chinese Society of Astronautics during the International Astronautical Congress in Glasgow, Scotland, the week before the AAAS and Heritage discussions in Washington.

The speaker—I do not know his name—demonstrated that in addition to mastering EVAs, the Chinese have also mastered PowerPoint. The presentation includes many detailed computer illustrations of the various Shenzhou vehicles launched to date as well as what are apparently early designs of their future space station modules. The presentation, titled “Shenzhou-7 Mission and Beyond—From Imagination to Reality,” was mostly devoted to recounting the various Shenzhou missions, including the four unmanned missions and their accomplishments.

The presentation was remarkably detailed, including a graphic illustrating that five tracking ships, three satellites, and at least nine ground stations supported the Shenzhou 7 flight, a much higher degree of openness than the Soviet Union ever practiced during the Cold War. But the most interesting aspects were the speaker’s discussion of China’s future human spaceflight plans.

Up until relatively recently, Western observers have assumed that the next step in the Chinese Shenzhou program would be the near simultaneous launch of Shenzhous 8 and 9 to conduct an orbital rendezvous. This would then probably be followed with the launch of a rudimentary unmanned space station, perhaps in 2010, to be visited by Shenzhou 10.

But according to the presentation at Glasgow, China now has a preliminary plan to launch a target craft around 2011, with an “unmanned spaceship” and a Shenzhou to be launched to conduct a rendezvous and docking test. It is unclear from the presentation if this refers to three vehicles—only one manned—or two. If it refers to three vehicles, then the Chinese may be planning on practicing launching an unmanned “core” vehicle that would be joined by a Shenzhou and could be resupplied with a cargo ship, similar to Russian experience with the Salyut and later Mir space station programs.

According to Chinese television—although not detailed in the Glasgow briefing—China might conduct up to three simple space station—known at Tiangong—missions between 2010 and 2015. They would be visited by up to eight Shenzhou spacecraft. If accurate, this means that China plans to gradually increase the pace of its human spacecraft launches. So far China has averaged one manned launch every 2.5 years. It might be at least that long before the launch of Shenzhou 8. But after that, the launch rate could increase to 1–2 missions per year.

According to the Glasgow presentation, China would develop a “manned space station” by 2020 “to solve the problem of larger scale space application with manned long-term presence in space.” This is all part of a “three-stage” strategy. Although not fully explained, presumably the first stage was the development of Shenzhou up to the most recent mission. The second stage will consist of the rendezvous and docking with a small space station vehicle and multiple missions extending through at least the first half of next decade. And the third stage will involve developing the “multi-module space station.” Once China has achieved that by the end of the next decade, “China will move to the broad area of the LEO orbit and far beyond.” The presentation slides also state that “we think manned landing on the moon is a great challenge in the global high-tech and is also a strategic field for exploration. So, it is necessary to carry out R&D activities at proper time for the future goal.” But so far as the presentation is to be believed, China’s plans for the next decade focus on extended human spaceflight in low Earth orbit, not a mission to the Moon.

Just as interesting as the words in the presentation are the images, which appear to show for the first time both what may be the Tiangong spacecraft, and an early plan for the multi-module space station that China wants to develop by 2020. The Tiangong module appears to be somewhat akin to the European Space Agency’s Jules Verne Advanced Transfer Vehicle, a pressurized module that could provide supplies to keep a Shenzhou in orbit for perhaps a few weeks. The multi-module space station consists of three large modules mounted around a central hub, with a Shenzhou parked at one of the hub’s docking ports, and what appears to be a module similar to that shown in a previous slide as the docking target—possibly the Tiangong, similar to the Russian Mir space station configuration. Thus, it seems possible that China’s goal is to use the Tiangong to support extended duration Shenzhou missions in the early part of the decade and later to provide logistics support to the multi-module space station. If so, this is a logical stepping-stone approach.

Which brings us back to the Cold War analogy and how little that model resembles the path that China and India are pursuing. China and India are both carefully studying the experience of their predecessors, but setting their own pace. There should not be any real surprise in this. But it does highlight that there may be no “normal” path to human spaceflight. After all, what explains the fact that one of the largest space programs in the world, Japan, never chose to develop its own human spaceflight program? And what exactly determines why a country will choose to develop its own human spaceflight capabilities? Two years ago, at a symposium on the social aspects of spaceflight in Washington, DC, one speaker challenged the notion that countries develop human spaceflight programs in order to assert their capabilities and independence. If this was so, the speaker asked, then what explains the fact that France does not have its own human space program? Every country is different. There is no “normal” path to human spaceflight.
 
The Hindu : Front Page : The colours of India to the moon

CHENNAI: The Moon Impact Probe (MIP), which has pride of place among the 11 instruments on board Chandrayaan-1, is painted with the proud colours of the Indian flag. It is this instrument that will land on the moon’s surface and leave telltale evidence of an Indian instrument having reached the moon.

The MIP, which weighs 29 kg and sits like a hat on top of Chandrayaan-1, has been built by the Vikram Sarabhai Space Centre, Thiruvananthapuram.

The MIP will be a technological forerunner to India’s Chandrayaan-2 mission which will deploy a lander or a rover on the moon. Russia will build this lander/ rover. If it is a rover, it will look like children’s toy-car, a few feet long and a few feet broad.

It will move around the moon, pick up soil samples, do chemical analysis in situ and transmit the data to the ground. India’s Geo-synchronous Satellite Launch Vehicle (GSLV) will put Chandrayaan-2 in orbit around 2011-12.

The Indian Space Research Organisation (ISRO) and Russia’s federal space agency Roskosmos signed an agreement on November 12, 2007, which envisages a joint lunar mission for Chandrayaan-2. While ISRO will build the mother-spacecraft, Roskosmos will build the lander/rover. This lander/rover will detach from Chandrayaan-2 and land on the moon.

Preparations are on at Sriharikota for the launch of Chandrayaan-1 on October 22 by ISRO’s Polar Satellite Launch Vehicle (PSLV-C11). Chandrayaan-1 will carry 11 instruments — five from India and six from abroad.

An important instrument is the MIP.

M. Annadurai, Project Director, Chandrayaan-1, explained how the MIP would land on the moon. After Chandrayaan-1 reaches the lunar orbit at an altitude of 100 km, ISRO will give commands to it to re-orient and eject the MIP, which has a motor on board.

“The motor will fire for two seconds to reduce the MIP’s velocity to 75 metres a second,” Mr. Annadurai said.

As the MIP descends to the moon’s surface, its video-camera will take pictures of the lunar surface. These pictures will help ISRO to decide where to land Chandrayaan-2’s rover.

The MIP’s altimeter will measure its altitude from the moon every second of its journey towards the moon.

A third instrument, a mass spectrometer, will sense the moon’s atmospheric constituents as it keeps falling and crashes on the moon.

All this data will be sent to Chandrayaan-1 till the MIP crashes on the moon. Chandrayaan-1, in turn, would beam the data to the earth, Mr. Annadurai said.
 
The Hindu : Front Page : Chandrayaan looking to help establish lunar bases


Chandrayaan looking to help establish lunar bases

Roy Mathew
U.S., Germany collaborating with Indian effort to confirm presence of water

THIRUVANANTHAPURAM: The Chandrayaan mission will focus on the exploration of the South Pole of the moon besides three-dimensional mapping of the entire moonscape.

The moon impact probe will hit the rim of the Shackleton crater of the moon at the South Pole by mid-November if everything goes well. The rim of the Shackleton crater is a location identified by the U.S. space agency NASA to establish a possible lunar outpost by 2020.

An advantage of the location is the availability of sunlight for about 90 per cent of the time. This means abundance of solar energy for power generation.

Direct view

The location is not far from the 5-km high Malapert Mountain on the moon. The Mountain, about 120 km from the Pole, has a direct view of both the Lunar South Pole and the earth and hence could be a suitable location for a radio relay station. Besides, the temperatures on the sunlit areas of the Pole and surroundings are moderate.

A bigger attraction of the location is the possibility of finding water in the dark areas of the Pole, such as the craters. The U.S. Defence Department’s Clementine Orbiter and NASA’s Lunar Prospector had indicated the presence of water in the form of ice in the craters.

ISRO may be able to confirm the presence of water by next year when data from instruments on board Chandrayaan I are analysed. The U.S. and Germany are collaborating with the effort. If water is detected, that would open up the way for production of drinking water, oxygen and hydrogen fuel for future lunar bases and rockets.

Satish Dhawan Space Centre Associate Director M. Y. S. Prasad said that out of 11 payloads on Chandraayan I, four would serve to detect water. These are the miniature synthetic aperture radar and moon mineralogy mapper from the U.S., near infrared spectrometer from Germany, and India’s hyper spectral imaging camera.

To detect ice

The synthetic aperture radar can detect ice in the permanently shadowed regions on the Lunar Poles up to a depth of a few metres.

The infrared spectrometer, which measure wavelength and intensity of the absorption of materials, can throw light on several aspects of lunar surface including chemical characteristics of the surface materials. The mineralogy mapper, which measures solar reflected energy, can characterise and map surface minerals including potential volatiles.

The hyper spectral imaging camera, which can see visible light as well as the ultraviolet to infrared light, will provide information on mineralogical composition of Moon’s interior. Together, they facilitate identification of chemicals on the lunar surface and in the craters.

The high-energy X-ray spectrometer can provide credence to the idea of transport of volatiles including water to the Polar Regions of the moon over geological time.

It will also provide information on the presence of decay products of uranium and thorium (radon and lead) on the moon. The terrain-mapping camera will provide data for the preparation of a three dimensional high-resolution atlas of moon.

Mission Director George Koshy said Chandrayan I would remain in the Lunar orbit for two years. It would normally be able to gather all the targeted data in one to one and a half years. This means there would be spare time.

Vikram Sarabhai Space Centre Director K. Radhakrishnan said the moon mission, scheduled for October 22, would mark the beginning of India’s interplanetary explorations. “We are getting into the moon’s zone of influence.”
 
India should be reaching for the stars -Times Online

India should be reaching for the stars

India's determination to win the space race will help them solve their real economic challenges

Stuart Simpson

f all goes to plan on 22 October at 6.20am, the rocket Chandrayaan-1 will lift off from Sriharikota in India, heading for the Moon. This comes a year after China sent its satellite there. The space race between the two emerging economic giants is well under way. India is planning to pip China to the post in the race to put a man on the Moon. India in 2008 really believes it can and should reach for the stars.

Not everyone agrees. A headline on a national newspaper’s website said it all: ‘India should focus on the gutter before the stars’. Why, the argument goes, all this head in the clouds stuff when poverty within India manifests itself on a scale comparable with Sub-Saharan Africa?There are 800 million people in India living on less than $2 a day. Malnutrition, disease, a lack of basic sanitation or clean water are not confined to rural areas, but characterise India’s growing mega-slums also. And while it's true that India’s growth rates of around 8 per cent a year are high compared with the growth rates recently seen in the developed world, they are woefully insufficient to deal with the scale of poverty in the country.

Already running to catch up, India faces real economic and political challenges. Still reeling from the effects of high food and oil prices, the credit crunch is now spreading to the emerging economies. The IMF predicts that growth rates in India will slow in the coming years.

Added to the very real threat of economic slow down, full-stream ahead growth in India is hampered by what a recent Economist article dubbed India’s 'mutinous democracy'. The recent forced relocation of the Tata Nano plant is an example. The plant was designed to produce Tata’s flagship 'Nano' car - the 100,000 rupee car designed to be affordable for India's growing middle class. Tata has sunk hundreds of millions of dollars into buying land and building a new car plant in West Bengal, only to be forced out by local political problems, amid accusations that compensation payments to local farmers were inadequate. This situation has been presented as an example of the growing conflict between the haves and the have-nots in Indian society. In the popular imagination, at least in the West, the 'untouchables' are fighting back.

It might be tempting to argue that India should downgrade industrial development in favour of policies that benefit the poor or even that India would gain from the sort of one-party state that guides planning in China. But it would be a mistake to impose a particular direction upon India as it works through the conflicts and problems generated by rapid growth.

How India deals with the contradictions generated by its development can only be determined by India itself. The political prejudices of Western commentators will not help. That India, a country with an income per head of less that $1,000, is flying to the moon isn't reflective of a society that has its head in the clouds and ignores the reality of poverty on the ground. Instead it shows a society that has the ambition to strive for more. This striving will not be straightforward and there will be hurdles to overcome. Yet as the saying goes ‘per ardua ad astra’ – through struggle to the stars. Ultimately it is this ambition to have more that will solve India’s problems of poverty and inequality.
 
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