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Bilder zu 'Earth Orbit' gefunden, 1,145

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1960s: An animated diagram of Earth and Saturn in orbit. A curved line runs across diagram.

1960s: An animated diagram of Earth and Saturn in orbit. A curved line runs across diagram.

AVE8906241

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

PIX4577375

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

PIX4577390

1960s: Illustration of Jupiter and its orbit in solar system. Image of Earth and Mars with their orbits.

1960s: Illustration of Jupiter and its orbit in solar system. Image of Earth and Mars with their orbits.

AVE8906254

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

PIX4577366

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

PIX4577378

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

Earth and Moon - Apollo 17 - Earthrise from lunar orbit - Earthrise seen from the control module of Apollo 17. 17/12/1972 The crescent Earth rises above the lunar horizon in this photograph taken from the Apollo 17 spacecraft in lunar - orbit during final lunar landing mission in the Apollo program. December 17 1972

PIX4577386

View of debris in low orbit around the Earth: 80% of recenses are in low orbit, up to 2000 km above Earth. Debris objects in Low-earth orbit (LEO) Eighty percent of all catalogued objects are in Low-earth orbit (LEO), which extends to 2000 km above the Earth's surface. To observe the Earth, spacecraft must orbit at such a low altitude. The spatial density of objects increases at high latitudes

View of debris in low orbit around the Earth: 80% of recenses are in low orbit, up to 2000 km above Earth. Debris objects in Low-earth orbit (LEO) Eighty percent of all catalogued objects are in Low-earth orbit (LEO), which extends to 2000 km above the Earth's surface. To observe the Earth, spacecraft must orbit at such a low altitude. The spatial density of objects increases at high latitudes

PIX4605573

Apollo 16: Earth rise and control module - Apollo 16: Earthrise and command module - The control module of Apollo 16 in orbit, seen from the LEM, visible on the left horizon of the Earth. 21/04/1972. Pre - landing photo of Earthrise, with the Command Module visible just above the lunar horizon to the left of Earth

Apollo 16: Earth rise and control module - Apollo 16: Earthrise and command module - The control module of Apollo 16 in orbit, seen from the LEM, visible on the left horizon of the Earth. 21/04/1972. Pre - landing photo of Earthrise, with the Command Module visible just above the lunar horizon to the left of Earth

PIX4597642

Apollo 16: Earth rise and control module - Apollo 16: Earthrise and command module - The control module of Apollo 16 in orbit, seen from the LEM, visible on the left horizon of the Earth. 21/04/1972. Pre - landing photo of Earthrise, with the Command Module visible just above the lunar horizon to the left of Earth

Apollo 16: Earth rise and control module - Apollo 16: Earthrise and command module - The control module of Apollo 16 in orbit, seen from the LEM, visible on the left horizon of the Earth. 21/04/1972. Pre - landing photo of Earthrise, with the Command Module visible just above the lunar horizon to the left of Earth

PIX4597666

Galileo satellites - Artist view - Galileo Satellites - Artist view - Artist view of the first two Galileo In - Orbit Validation (IOV) satellites intended to validate the Galileo positioning system. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). Artist view of the first two Galileo In - Orbit Validation satellites. The operational Galileo system will consist of 30 satellites (27 operational+3 active spares), deployed in circular Medium Earth Orbit (MEO) at an altitude of 23,616 km altitude

Galileo satellites - Artist view - Galileo Satellites - Artist view - Artist view of the first two Galileo In - Orbit Validation (IOV) satellites intended to validate the Galileo positioning system. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). Artist view of the first two Galileo In - Orbit Validation satellites. The operational Galileo system will consist of 30 satellites (27 operational+3 active spares), deployed in circular Medium Earth Orbit (MEO) at an altitude of 23,616 km altitude

P. Carril

PIX4643155

Galileo satellites - Artist view - Galileo Satellites - Artist view - Artist view of the first two Galileo In - Orbit Validation (IOV) satellites intended to validate the Galileo positioning system. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). Artist view of the first two Galileo In - Orbit Validation satellites. The operational Galileo system will consist of 30 satellites (27 operational+3 active spares), deployed in circular Medium Earth Orbit (MEO) at an altitude of 23,616 km altitude

Galileo satellites - Artist view - Galileo Satellites - Artist view - Artist view of the first two Galileo In - Orbit Validation (IOV) satellites intended to validate the Galileo positioning system. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). Artist view of the first two Galileo In - Orbit Validation satellites. The operational Galileo system will consist of 30 satellites (27 operational+3 active spares), deployed in circular Medium Earth Orbit (MEO) at an altitude of 23,616 km altitude

P. Carril

PIX4643156

Galileo Satellite - Artist View - Galileo Satellite - Artist view - Artist view of one of the first two Galileo In - Orbit Validation (IOV) satellites intended to validate Galileo's positioning system. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). Artist view one of the first Galileo In - Orbit Validation satellites. The operational Galileo system will consist of 30 satellites (27 operational+3 active spares), deployed in circular Medium Earth Orbit (MEO) at an altitude of 23,616 km altitude

Galileo Satellite - Artist View - Galileo Satellite - Artist view - Artist view of one of the first two Galileo In - Orbit Validation (IOV) satellites intended to validate Galileo's positioning system. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). Artist view one of the first Galileo In - Orbit Validation satellites. The operational Galileo system will consist of 30 satellites (27 operational+3 active spares), deployed in circular Medium Earth Orbit (MEO) at an altitude of 23,616 km altitude

P. Carril

PIX4643159

Galileo satellites - Artist view - Galileo Satellites - Artist view - Artist view of four Galileo In - Orbit Validation (IOV) satellites intended to validate the Galileo positioning system. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). Artist view of the four Galileo In - Orbit Validation satellites. The operational Galileo system will consist of 30 satellites (27 operational+3 active spares), deployed in circular Medium Earth Orbit (MEO) at an altitude of 23,616 km altitude

Galileo satellites - Artist view - Galileo Satellites - Artist view - Artist view of four Galileo In - Orbit Validation (IOV) satellites intended to validate the Galileo positioning system. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). Artist view of the four Galileo In - Orbit Validation satellites. The operational Galileo system will consist of 30 satellites (27 operational+3 active spares), deployed in circular Medium Earth Orbit (MEO) at an altitude of 23,616 km altitude

P. Carril

PIX4643170

Satellite Picard - Artist's view of the Picard satellite in orbit around the Earth. This microsatellite should study the Sun and the links between the solar cycle and the Earth's climate. Satellite Picard seen above the Earth. This english microsatellite will study the Sun and the relations between the sun and the Earth's climate

Satellite Picard - Artist's view of the Picard satellite in orbit around the Earth. This microsatellite should study the Sun and the links between the solar cycle and the Earth's climate. Satellite Picard seen above the Earth. This english microsatellite will study the Sun and the relations between the sun and the Earth's climate

D. Ducros

PIX4646322

Satellite Picard - Artist's view of the Picard satellite in orbit around the Earth. This microsatellite should study the Sun and the links between the solar cycle and the Earth's climate. Satellite Picard seen above the Earth. This english microsatellite will study the Sun and the relations between the sun and the Earth's climate

Satellite Picard - Artist's view of the Picard satellite in orbit around the Earth. This microsatellite should study the Sun and the links between the solar cycle and the Earth's climate. Satellite Picard seen above the Earth. This english microsatellite will study the Sun and the relations between the sun and the Earth's climate

D. Ducros

PIX4646327

Satellite Picard - Artist's view of the Picard satellite in orbit around the Earth. This microsatellite should study the Sun and the links between the solar cycle and the Earth's climate. Satellite Picard seen above the Earth. This english microsatellite will study the Sun and the relations between the sun and the Earth's climate

Satellite Picard - Artist's view of the Picard satellite in orbit around the Earth. This microsatellite should study the Sun and the links between the solar cycle and the Earth's climate. Satellite Picard seen above the Earth. This english microsatellite will study the Sun and the relations between the sun and the Earth's climate

D. Ducros

PIX4646332

Earth and the Moon - Apollo 8 - December 1968 - Earthrise from Apollo 8 spacecraft - Earthrise seen from the control module of Apollo 8 in orbit around the Moon. High - oblique view of the moon's surface showing Earth rising above the lunar horizon, looking west - southwest, as photographed from the Apollo 8 spacecraft as it orbited the moon. The center of the picture is located at about 105 degrees east longitude and 13 degrees south latitude

Earth and the Moon - Apollo 8 - December 1968 - Earthrise from Apollo 8 spacecraft - Earthrise seen from the control module of Apollo 8 in orbit around the Moon. High - oblique view of the moon's surface showing Earth rising above the lunar horizon, looking west - southwest, as photographed from the Apollo 8 spacecraft as it orbited the moon. The center of the picture is located at about 105 degrees east longitude and 13 degrees south latitude

PIX4577293

Shuttle Endeavour in orbit 10/1994 - The Space Radar Laboratory - 2 in Endeavour's cargo bay - View of the radar in the cargo bay of the shuttle Endeavour STS-68 during the SRL-2 mission (Space Radar Laboratory 2). 11/10/1994. The Space Radar Laboratory - 2 (SRL - 2) in the Space Shuttle Endeavour's cargo bay, is backdropped against the blackness of space over Earth, in this 35 mm frame exposed by one of the STS - 68 crewmembers. Six NASA astronauts spent eleven days aboard Endeavour in Earth - orbit, in support of the SRL - 2 mission

Shuttle Endeavour in orbit 10/1994 - The Space Radar Laboratory - 2 in Endeavour's cargo bay - View of the radar in the cargo bay of the shuttle Endeavour STS-68 during the SRL-2 mission (Space Radar Laboratory 2). 11/10/1994. The Space Radar Laboratory - 2 (SRL - 2) in the Space Shuttle Endeavour's cargo bay, is backdropped against the blackness of space over Earth, in this 35 mm frame exposed by one of the STS - 68 crewmembers. Six NASA astronauts spent eleven days aboard Endeavour in Earth - orbit, in support of the SRL - 2 mission

PIX4647139

Shuttle Endeavour in orbit 10/1994 - The Space Radar Laboratory - 2 in Endeavour's cargo bay - View of the radar in the cargo bay of the shuttle Endeavour STS-68 during the SRL-2 mission (Space Radar Laboratory 2). 11/10/1994. The Space Radar Laboratory - 2 (SRL - 2) in the Space Shuttle Endeavour's cargo bay, is backdropped against the blackness of space over Earth, in this 35 mm frame exposed by one of the STS - 68 crewmembers. Six NASA astronauts spent eleven days aboard Endeavour in Earth - orbit, in support of the SRL - 2 mission

Shuttle Endeavour in orbit 10/1994 - The Space Radar Laboratory - 2 in Endeavour's cargo bay - View of the radar in the cargo bay of the shuttle Endeavour STS-68 during the SRL-2 mission (Space Radar Laboratory 2). 11/10/1994. The Space Radar Laboratory - 2 (SRL - 2) in the Space Shuttle Endeavour's cargo bay, is backdropped against the blackness of space over Earth, in this 35 mm frame exposed by one of the STS - 68 crewmembers. Six NASA astronauts spent eleven days aboard Endeavour in Earth - orbit, in support of the SRL - 2 mission

PIX4647152

Shuttle Endeavour in orbit 10/1994 - The Space Radar Laboratory - 2 in Endeavour's cargo bay - View of the radar in the cargo bay of the shuttle Endeavour STS-68 during the SRL-2 mission (Space Radar Laboratory 2). 11/10/1994. The Space Radar Laboratory - 2 (SRL - 2) in the Space Shuttle Endeavour's cargo bay, is backdropped against the blackness of space over Earth, in this 35 mm frame exposed by one of the STS - 68 crewmembers. Six NASA astronauts spent eleven days aboard Endeavour in Earth - orbit, in support of the SRL - 2 mission

Shuttle Endeavour in orbit 10/1994 - The Space Radar Laboratory - 2 in Endeavour's cargo bay - View of the radar in the cargo bay of the shuttle Endeavour STS-68 during the SRL-2 mission (Space Radar Laboratory 2). 11/10/1994. The Space Radar Laboratory - 2 (SRL - 2) in the Space Shuttle Endeavour's cargo bay, is backdropped against the blackness of space over Earth, in this 35 mm frame exposed by one of the STS - 68 crewmembers. Six NASA astronauts spent eleven days aboard Endeavour in Earth - orbit, in support of the SRL - 2 mission

PIX4647144

Shuttle Endeavour in orbit 10/1994 - The Space Radar Laboratory - 2 in Endeavour's cargo bay - View of the radar in the cargo bay of the shuttle Endeavour STS-68 during the SRL-2 mission (Space Radar Laboratory 2). 11/10/1994. The Space Radar Laboratory - 2 (SRL - 2) in the Space Shuttle Endeavour's cargo bay, is backdropped against the blackness of space over Earth, in this 35 mm frame exposed by one of the STS - 68 crewmembers. Six NASA astronauts spent eleven days aboard Endeavour in Earth - orbit, in support of the SRL - 2 mission

Shuttle Endeavour in orbit 10/1994 - The Space Radar Laboratory - 2 in Endeavour's cargo bay - View of the radar in the cargo bay of the shuttle Endeavour STS-68 during the SRL-2 mission (Space Radar Laboratory 2). 11/10/1994. The Space Radar Laboratory - 2 (SRL - 2) in the Space Shuttle Endeavour's cargo bay, is backdropped against the blackness of space over Earth, in this 35 mm frame exposed by one of the STS - 68 crewmembers. Six NASA astronauts spent eleven days aboard Endeavour in Earth - orbit, in support of the SRL - 2 mission

PIX4647148

Skylab station 02/1974 - Skylab station above earth. 02/1974 - Skylab station seen from Skylab 4 module before returning to Earth. 08/02/1974. The Skylab Orbital Workshop in Earth orbit photographed from the Skylab 4 Command and Service Modules during the final fly - around by the CSM before returning home. Feb 08 1974

Skylab station 02/1974 - Skylab station above earth. 02/1974 - Skylab station seen from Skylab 4 module before returning to Earth. 08/02/1974. The Skylab Orbital Workshop in Earth orbit photographed from the Skylab 4 Command and Service Modules during the final fly - around by the CSM before returning home. Feb 08 1974

PIX4643443

Skylab station 02/1974 - Skylab station above earth. 02/1974 - Skylab station seen from Skylab 4 module before returning to Earth. 08/02/1974. The Skylab Orbital Workshop in Earth orbit photographed from the Skylab 4 Command and Service Modules during the final fly - around by the CSM before returning home. Feb 08 1974

Skylab station 02/1974 - Skylab station above earth. 02/1974 - Skylab station seen from Skylab 4 module before returning to Earth. 08/02/1974. The Skylab Orbital Workshop in Earth orbit photographed from the Skylab 4 Command and Service Modules during the final fly - around by the CSM before returning home. Feb 08 1974

PIX4643423

View of debris in orbit around the Earth - Graphic computer of objects around the earth - View of debris in low orbit and geostationary orbit (35,785 km) around the Earth, from then a genere point above the north pole. Approximately 11,000 objects over 10 cm have been identified. Most of these debris is in low orbit. The number of debris between 10 cm and 1 cm in diameter, greater than 100,000; particles less than 1 cm must exceed 10 million. This image is generated from a vantage point above the north pole, showing the concentrations of objects in Low Earth Orbit and in the geosynchronous region. Approximately 11,000 objects larger than 10 cm are known to exist. The estimated population of particles between 1 and 10 cm in diameter is greater than 100,000. The number of particles smaller than 1 cm probably exceeds tens of millions

View of debris in orbit around the Earth - Graphic computer of objects around the earth - View of debris in low orbit and geostationary orbit (35,785 km) around the Earth, from then a genere point above the north pole. Approximately 11,000 objects over 10 cm have been identified. Most of these debris is in low orbit. The number of debris between 10 cm and 1 cm in diameter, greater than 100,000; particles less than 1 cm must exceed 10 million. This image is generated from a vantage point above the north pole, showing the concentrations of objects in Low Earth Orbit and in the geosynchronous region. Approximately 11,000 objects larger than 10 cm are known to exist. The estimated population of particles between 1 and 10 cm in diameter is greater than 100,000. The number of particles smaller than 1 cm probably exceeds tens of millions

PIX4642723

Skylab station 02/1974 - Skylab station above earth. 02/1974 - Skylab station seen from Skylab 4 module before returning to Earth. 08/02/1974. The Skylab Orbital Workshop in Earth orbit photographed from the Skylab 4 Command and Service Modules during the final fly - around by the CSM before returning home. Feb 08 1974

Skylab station 02/1974 - Skylab station above earth. 02/1974 - Skylab station seen from Skylab 4 module before returning to Earth. 08/02/1974. The Skylab Orbital Workshop in Earth orbit photographed from the Skylab 4 Command and Service Modules during the final fly - around by the CSM before returning home. Feb 08 1974

PIX4643439

WMAP Satellite - Illustration - View of the satellite WMAP (Wilkinson Microwave Anisotropy Probe), launched on 30 June 2001 and placed in an orbit located at the second point of Lagrange (L2) about 1.6 million km from Earth. This satellite measured temperature fluctuations in the fossil radiation of the primordial universe

WMAP Satellite - Illustration - View of the satellite WMAP (Wilkinson Microwave Anisotropy Probe), launched on 30 June 2001 and placed in an orbit located at the second point of Lagrange (L2) about 1.6 million km from Earth. This satellite measured temperature fluctuations in the fossil radiation of the primordial universe

PIX4646156

Satellite Signe - 3 - Artist's view - Satellite Signe - 3. Artwork - Artist's view of the satellite Signe - 3 (Solar Interplanetary Gamma Ray Neutron Experiment) in orbit around the Earth. Lance on June 17, 1977, he studied the sources of gamma radiation from the sky. Satellite Signe - 3 (Solar Interplanetary Gamma Ray Neutron Experiment) seen above the Earth. This english satellite was launched on June 17 1977 and studied gamma rays

Satellite Signe - 3 - Artist's view - Satellite Signe - 3. Artwork - Artist's view of the satellite Signe - 3 (Solar Interplanetary Gamma Ray Neutron Experiment) in orbit around the Earth. Lance on June 17, 1977, he studied the sources of gamma radiation from the sky. Satellite Signe - 3 (Solar Interplanetary Gamma Ray Neutron Experiment) seen above the Earth. This english satellite was launched on June 17 1977 and studied gamma rays

D. Ducros

PIX4646264

Yuri Gagarin in the cabin of 'Vostok', the spacecraft in which he made the first human journey to outer space on 12 April, 1961 (photo)

Yuri Gagarin in the cabin of 'Vostok', the spacecraft in which he made the first human journey to outer space on 12 April, 1961 (photo)

Unknown photographer, (20th century)

KDC498784

Satellite Global Precipitation Measurement (GPM Core Observatory): Artist's view of Global Precipitation Measurement (GPM) satellite in orbit around the Earth. This satellite, launched on 27 February 2014, is dedicated to the study of precipitations (rain and snow) on Earth - Global Precipitation Measurement (GPM) is an international satellite mission to provide next-generation observations of rain and snow worldwide every three hours. NASA and the Japanese Aerospace Exploration Agency (JAXA) launched the GPM Core Observatory satellite on February 27th, 2014, carrying advanced instruments that set a new standard for precipitation measurements from space

Satellite Global Precipitation Measurement (GPM Core Observatory): Artist's view of Global Precipitation Measurement (GPM) satellite in orbit around the Earth. This satellite, launched on 27 February 2014, is dedicated to the study of precipitations (rain and snow) on Earth - Global Precipitation Measurement (GPM) is an international satellite mission to provide next-generation observations of rain and snow worldwide every three hours. NASA and the Japanese Aerospace Exploration Agency (JAXA) launched the GPM Core Observatory satellite on February 27th, 2014, carrying advanced instruments that set a new standard for precipitation measurements from space

PIX4644483

CRYOSAT-2 satellite - The European Cryosat-2 satellite is being tested at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany, in September 2009. This satellite is intended to study polar ice. CryoSat - 2 undergoing testing at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany in September 2009. CryoSat will be the third of ESA's Earth Explorer satellites in orbit. The 700 kg CryoSat spacecraft whose name comes from the Greek kryos meaning cold or ice carries the first all - weather microwave radar altimeter. The instrument has been optimised for determining changes in the thickness of both floating sea ice, which can be up to several meters, and polar land ice sheets, which in Antarctica can be close to 5 km thick. The mission will deliver data on the rate of change of the ice thickness accurate to within one centimetre

CRYOSAT-2 satellite - The European Cryosat-2 satellite is being tested at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany, in September 2009. This satellite is intended to study polar ice. CryoSat - 2 undergoing testing at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany in September 2009. CryoSat will be the third of ESA's Earth Explorer satellites in orbit. The 700 kg CryoSat spacecraft whose name comes from the Greek kryos meaning cold or ice carries the first all - weather microwave radar altimeter. The instrument has been optimised for determining changes in the thickness of both floating sea ice, which can be up to several meters, and polar land ice sheets, which in Antarctica can be close to 5 km thick. The mission will deliver data on the rate of change of the ice thickness accurate to within one centimetre

S. Corvaja

PIX4644073

CRYOSAT-2 satellite - The European Cryosat-2 satellite is being tested at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany, in September 2009. This satellite is intended to study polar ice. CryoSat - 2 undergoing testing at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany in September 2009. CryoSat will be the third of ESA's Earth Explorer satellites in orbit. The 700 kg CryoSat spacecraft whose name comes from the Greek kryos meaning cold or ice carries the first all - weather microwave radar altimeter. The instrument has been optimised for determining changes in the thickness of both floating sea ice, which can be up to several meters, and polar land ice sheets, which in Antarctica can be close to 5 km thick. The mission will deliver data on the rate of change of the ice thickness accurate to within one centimetre

CRYOSAT-2 satellite - The European Cryosat-2 satellite is being tested at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany, in September 2009. This satellite is intended to study polar ice. CryoSat - 2 undergoing testing at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany in September 2009. CryoSat will be the third of ESA's Earth Explorer satellites in orbit. The 700 kg CryoSat spacecraft whose name comes from the Greek kryos meaning cold or ice carries the first all - weather microwave radar altimeter. The instrument has been optimised for determining changes in the thickness of both floating sea ice, which can be up to several meters, and polar land ice sheets, which in Antarctica can be close to 5 km thick. The mission will deliver data on the rate of change of the ice thickness accurate to within one centimetre

S. Corvaja

PIX4644086

CRYOSAT-2 satellite - The European Cryosat-2 satellite is being tested at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany, in September 2009. This satellite is intended to study polar ice. CryoSat - 2 undergoing testing at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany in September 2009. CryoSat will be the third of ESA's Earth Explorer satellites in orbit. The 700 kg CryoSat spacecraft whose name comes from the Greek kryos meaning cold or ice carries the first all - weather microwave radar altimeter. The instrument has been optimised for determining changes in the thickness of both floating sea ice, which can be up to several meters, and polar land ice sheets, which in Antarctica can be close to 5 km thick. The mission will deliver data on the rate of change of the ice thickness accurate to within one centimetre

CRYOSAT-2 satellite - The European Cryosat-2 satellite is being tested at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany, in September 2009. This satellite is intended to study polar ice. CryoSat - 2 undergoing testing at the Space Test Centre at IABG (Industrieanlagen - Betriebsgesellschaft mbH) in Ottobrunn, Germany in September 2009. CryoSat will be the third of ESA's Earth Explorer satellites in orbit. The 700 kg CryoSat spacecraft whose name comes from the Greek kryos meaning cold or ice carries the first all - weather microwave radar altimeter. The instrument has been optimised for determining changes in the thickness of both floating sea ice, which can be up to several meters, and polar land ice sheets, which in Antarctica can be close to 5 km thick. The mission will deliver data on the rate of change of the ice thickness accurate to within one centimetre

S. Corvaja

PIX4644081

Satellite in polar orbit - Satellite in polar orbit - Artist's view of the Earth observation satellite Spot - 5 in quasi-polar, circular, heliosynchronous and phasee orbit. Artwork of Spot - 5 observation satellite in orbit polar, circular, sun - synchronous, and phased

Satellite in polar orbit - Satellite in polar orbit - Artist's view of the Earth observation satellite Spot - 5 in quasi-polar, circular, heliosynchronous and phasee orbit. Artwork of Spot - 5 observation satellite in orbit polar, circular, sun - synchronous, and phased

D. Ducros

PIX4643970

Polar orbit of the Jason satellite - 1 - Polar orbit of Jason - 1 - Description of the polar orbit on which the Jason satellite is located - 1. Artwork showing the polar orbit where the satellite Jason - 1 is

Polar orbit of the Jason satellite - 1 - Polar orbit of Jason - 1 - Description of the polar orbit on which the Jason satellite is located - 1. Artwork showing the polar orbit where the satellite Jason - 1 is

D. Ducros

PIX4644407

Le Flux et le Reflux (no. 6), from Tableaux du Systeme Planetaire, pub. Paris, 1839 (stipple engraving)

Le Flux et le Reflux (no. 6), from Tableaux du Systeme Planetaire, pub. Paris, 1839 (stipple engraving)

Visconti, Sigismond (fl.1839) (after)

STC2655277

METOP-SG satellite orbits: Artist's view of METOP-SG satellites in orbit around the Earth. European MetOp second generation satellites will form a family of three pairs of meteorological satellites by 2020. Building on the current series of MetOp weather satellites, the family of Metop-second Generation missions will comprise three pairs of satellites to secure essential information for weather forecasting through the decades beyond 2020

METOP-SG satellite orbits: Artist's view of METOP-SG satellites in orbit around the Earth. European MetOp second generation satellites will form a family of three pairs of meteorological satellites by 2020. Building on the current series of MetOp weather satellites, the family of Metop-second Generation missions will comprise three pairs of satellites to secure essential information for weather forecasting through the decades beyond 2020

PIX4644758

Satellites Galileo - Galileo constellation. Artwork - Artist's view of the European satellite network Galileo consists of 30 satellites at about 24,000 km of altitude (27 operationals, 3 reserve). The satellite positioning system is expected to be operational in 2011. Artwork of the european navigation satellites constellation

Satellites Galileo - Galileo constellation. Artwork - Artist's view of the European satellite network Galileo consists of 30 satellites at about 24,000 km of altitude (27 operationals, 3 reserve). The satellite positioning system is expected to be operational in 2011. Artwork of the european navigation satellites constellation

J. Huart

PIX4643018

Satellite orbits METOP - SG - MetOp Second Generation satellites orbits - Artist view of METOP satellites - SG in orbit around the Earth. European MetOp second generation satellites will form a family of three pairs of meteorological satellites by 2020. Building on the current series of MetOp weather satellites, the family of MetOp - Second Generation missions will comprise three pairs of satellites to secure essential information for weather forecasting through the decades beyond 2020

Satellite orbits METOP - SG - MetOp Second Generation satellites orbits - Artist view of METOP satellites - SG in orbit around the Earth. European MetOp second generation satellites will form a family of three pairs of meteorological satellites by 2020. Building on the current series of MetOp weather satellites, the family of MetOp - Second Generation missions will comprise three pairs of satellites to secure essential information for weather forecasting through the decades beyond 2020

P. Carril

PIX4644818

Geostationary orbit and polar orbit - Geostationary orbit and polar orbi

Geostationary orbit and polar orbit - Geostationary orbit and polar orbi

D. Ducros

PIX4642792

The lunar orbit - Artist's view - The lunar orbit - Artwork - Inclination of the lunar orbit in relation to the ecliptic. The orbit of the Moon is inclined about 5* from the plane of the Earth's orbit (ecliptic). The lunar orbit around the Earth

The lunar orbit - Artist's view - The lunar orbit - Artwork - Inclination of the lunar orbit in relation to the ecliptic. The orbit of the Moon is inclined about 5* from the plane of the Earth's orbit (ecliptic). The lunar orbit around the Earth

Sebastien Beaucourt

PIX4575998

INTERBALL satellites - Artist's view of the satellites Tail probe and Auroral probe, the two pairs of satellites studying the magnetosphere of the sovietic program Interball. INTERBALL is the solar - terrestrial programme aimed to study various plasma processes in the Earth magnetosphere by the system of spacecraft consisting of Tail probe and Auroral probe, two pairs (satellite - subsatellite) above the polar aurora and in the magnetospheric tail respectively

INTERBALL satellites - Artist's view of the satellites Tail probe and Auroral probe, the two pairs of satellites studying the magnetosphere of the sovietic program Interball. INTERBALL is the solar - terrestrial programme aimed to study various plasma processes in the Earth magnetosphere by the system of spacecraft consisting of Tail probe and Auroral probe, two pairs (satellite - subsatellite) above the polar aurora and in the magnetospheric tail respectively

D. Ducros

PIX4644782

Satellite METOP - A - Artist's view of the European satellite METOP - A in orbit around the Earth. Launch on October 19, 2006, it is the first European meteorological satellite in polar orbit; it includes twelve meteorological instruments. MetOp is a series of three meteorological operational polar orbiting satellites, the first of which, MetOp-1 is the prototype. The instruments on MetOp will produce high - resolution images, vertical temperature and humidity profiles, and temperatures of the land and ocean surface on a global basis. Also on board the satellites will be instruments for monitoring ozone and wind flow over the oceans. The first launch was on October 19 2006

Satellite METOP - A - Artist's view of the European satellite METOP - A in orbit around the Earth. Launch on October 19, 2006, it is the first European meteorological satellite in polar orbit; it includes twelve meteorological instruments. MetOp is a series of three meteorological operational polar orbiting satellites, the first of which, MetOp-1 is the prototype. The instruments on MetOp will produce high - resolution images, vertical temperature and humidity profiles, and temperatures of the land and ocean surface on a global basis. Also on board the satellites will be instruments for monitoring ozone and wind flow over the oceans. The first launch was on October 19 2006

D. Ducros

PIX4644752

Coverage of a communication satellite - Footprint of a communication satellite - Artist view representing the coverage areas of a telecommunication satellite. Footprint of a satellite communication. Artwor

Coverage of a communication satellite - Footprint of a communication satellite - Artist view representing the coverage areas of a telecommunication satellite. Footprint of a satellite communication. Artwor

D. Ducros

PIX4643263

Satellite METOP - A - Artist's view of the European satellite METOP - A in orbit around the Earth. Launch on October 19, 2006, it is the first European meteorological satellite in polar orbit; it includes twelve meteorological instruments. MetOp is a series of three meteorological operational polar orbiting satellites, the first of which, MetOp-1 is the prototype. The instruments on MetOp will produce high - resolution images, vertical temperature and humidity profiles, and temperatures of the land and ocean surface on a global basis. Also on board the satellites will be instruments for monitoring ozone and wind flow over the oceans. The first launch was on October 19 2006

Satellite METOP - A - Artist's view of the European satellite METOP - A in orbit around the Earth. Launch on October 19, 2006, it is the first European meteorological satellite in polar orbit; it includes twelve meteorological instruments. MetOp is a series of three meteorological operational polar orbiting satellites, the first of which, MetOp-1 is the prototype. The instruments on MetOp will produce high - resolution images, vertical temperature and humidity profiles, and temperatures of the land and ocean surface on a global basis. Also on board the satellites will be instruments for monitoring ozone and wind flow over the oceans. The first launch was on October 19 2006

D. Ducros

PIX4644760

Satellite METOP - A - Artist's view of the European satellite METOP - A in orbit around the Earth. Launch on October 19, 2006, it is the first European meteorological satellite in polar orbit; it includes twelve meteorological instruments. MetOp is a series of three meteorological operational polar orbiting satellites, the first of which, MetOp-1 is the prototype. The instruments on MetOp will produce high - resolution images, vertical temperature and humidity profiles, and temperatures of the land and ocean surface on a global basis. Also on board the satellites will be instruments for monitoring ozone and wind flow over the oceans. The first launch was on October 19 2006

Satellite METOP - A - Artist's view of the European satellite METOP - A in orbit around the Earth. Launch on October 19, 2006, it is the first European meteorological satellite in polar orbit; it includes twelve meteorological instruments. MetOp is a series of three meteorological operational polar orbiting satellites, the first of which, MetOp-1 is the prototype. The instruments on MetOp will produce high - resolution images, vertical temperature and humidity profiles, and temperatures of the land and ocean surface on a global basis. Also on board the satellites will be instruments for monitoring ozone and wind flow over the oceans. The first launch was on October 19 2006

D. Ducros

PIX4644746

Back to the Moon: artist's view from the start to the Moon - The Orion spacecraft onward to Moon - Lunar program Constellation. The module inhabited Orion is secured to the planing module in Earth orbit and propels to the moon through a stage of the Ares 5 rocket. Ares 5 is a cargo rocket that will be used around 2020 to carry the landing module as well as the various elements needed to build a base on the Moon. This is a NASA artist's rendering of the Orion crew exploration vehicle docking with the Altair lunar lander, contained within the earth departure stage of an Ares V rocket. This rendezvous will take place in low earth orbit before the earth departure stage, Orion and Altair make the transit towards the moon. The earth departure stage will be discarded on the way

Back to the Moon: artist's view from the start to the Moon - The Orion spacecraft onward to Moon - Lunar program Constellation. The module inhabited Orion is secured to the planing module in Earth orbit and propels to the moon through a stage of the Ares 5 rocket. Ares 5 is a cargo rocket that will be used around 2020 to carry the landing module as well as the various elements needed to build a base on the Moon. This is a NASA artist's rendering of the Orion crew exploration vehicle docking with the Altair lunar lander, contained within the earth departure stage of an Ares V rocket. This rendezvous will take place in low earth orbit before the earth departure stage, Orion and Altair make the transit towards the moon. The earth departure stage will be discarded on the way

PIX4639036

Trajectory of the Ulysses probe, launched by Europeans to study the Sun.: The Ulysses probe - Ulysses spacecraft trajectory- Artwork

Trajectory of the Ulysses probe, launched by Europeans to study the Sun.: The Ulysses probe - Ulysses spacecraft trajectory- Artwork

L. Bret

PIX4643812

Back to the Moon: the Orion module in lunar orbit - The Orion spacecraft in lunar orbit - Artist view - The module lives in Orion orbit around the Moon. Orion should be able to take a crew of four astronauts to the Moon in 2020 and could be used to take men to Mars. Artist's view. The Orion manned spacecraft in lunar orbit. The Nasa's Project Constellation plans to send human explorers back to the Moon by 2020, and then onward to Mars; each Orion spacecraft will carry a crew of four to six astronauts

Back to the Moon: the Orion module in lunar orbit - The Orion spacecraft in lunar orbit - Artist view - The module lives in Orion orbit around the Moon. Orion should be able to take a crew of four astronauts to the Moon in 2020 and could be used to take men to Mars. Artist's view. The Orion manned spacecraft in lunar orbit. The Nasa's Project Constellation plans to send human explorers back to the Moon by 2020, and then onward to Mars; each Orion spacecraft will carry a crew of four to six astronauts

PIX4639027

Back to the Moon: the Orion module in lunar orbit - Artist view - The Orion spacecraft in lunar orbit - Lunar program Constellation. The module lives in Orion orbit around the Moon. Orion should be able to take a crew of four astronauts to the Moon in 2020 and could be used to take men to Mars. Artist's concept of the Orion manned spacecraft in lunar orbit. The Nasa's Project Constellation plans to send human explorers back to the Moon by 2020, and then onward to Mars; each Orion spacecraft will carry a crew of four to six astronauts

Back to the Moon: the Orion module in lunar orbit - Artist view - The Orion spacecraft in lunar orbit - Lunar program Constellation. The module lives in Orion orbit around the Moon. Orion should be able to take a crew of four astronauts to the Moon in 2020 and could be used to take men to Mars. Artist's concept of the Orion manned spacecraft in lunar orbit. The Nasa's Project Constellation plans to send human explorers back to the Moon by 2020, and then onward to Mars; each Orion spacecraft will carry a crew of four to six astronauts

PIX4639037

Satellite de communication en orbit - A communication satellite in orbit - View by artist showing the setting up of a satellite telecommunication. Illustration showing different phases of a communication satellite from launch to orbit

Satellite de communication en orbit - A communication satellite in orbit - View by artist showing the setting up of a satellite telecommunication. Illustration showing different phases of a communication satellite from launch to orbit

D. Ducros

PIX4643281

Satellite Galileo - Artist view - Galileo Satellite - Artist view - Galileo Full Operational Capability (FOC) satellite artist view. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). The working nucleus of Galileo, Europe's independent satellite navigation system, is already in place and active. The first satellites in space and a world - spanning ground segment have come together to perform the very first solely European navigation fixes, and validate the design of the Galileo system. To turn Galileo into something that everyone can use freely comes down to expanding its scale: for receivers to fix location a minimum of four satellites must be visible for anywhere on the planet, which means launching many more satellites and expanding Galileo's ground infrastructure. The complete Galileo constellation will consist of 30 satellites along three orbital planes in medium Earth orbit (including two

Satellite Galileo - Artist view - Galileo Satellite - Artist view - Galileo Full Operational Capability (FOC) satellite artist view. The Galileo network of European satellites will consist of 30 satellites at approximately 24,000 km of altitude (27 operationals, 3 reserve). The working nucleus of Galileo, Europe's independent satellite navigation system, is already in place and active. The first satellites in space and a world - spanning ground segment have come together to perform the very first solely European navigation fixes, and validate the design of the Galileo system. To turn Galileo into something that everyone can use freely comes down to expanding its scale: for receivers to fix location a minimum of four satellites must be visible for anywhere on the planet, which means launching many more satellites and expanding Galileo's ground infrastructure. The complete Galileo constellation will consist of 30 satellites along three orbital planes in medium Earth orbit (including two

P. Carril

PIX4643176

Back to the Moon: Artist view from the departure to the Moon - The Orion spacecraft onward to Moon - Artist view - The module inhabit Orion is docked to the planing module in Earth orbit and propels to the moon through a stage of the Ares 5 rocket. Ares 5 is a cargo rocket that will be used around 2020 to carry the landing module as well as the various elements needed to build a base on the Moon. The Orion manned spacecraft, docked to the lunar module in lunar orbit, propelled by an Ares 5 stage rocket towards the Moon. The Nasa's Project Constellation plans to send human explorers back to the Moon by 2020, and then onward to Mars; each Orion spacecraft will carry a crew of four to six astronauts

Back to the Moon: Artist view from the departure to the Moon - The Orion spacecraft onward to Moon - Artist view - The module inhabit Orion is docked to the planing module in Earth orbit and propels to the moon through a stage of the Ares 5 rocket. Ares 5 is a cargo rocket that will be used around 2020 to carry the landing module as well as the various elements needed to build a base on the Moon. The Orion manned spacecraft, docked to the lunar module in lunar orbit, propelled by an Ares 5 stage rocket towards the Moon. The Nasa's Project Constellation plans to send human explorers back to the Moon by 2020, and then onward to Mars; each Orion spacecraft will carry a crew of four to six astronauts

PIX4638967

Back to the Moon: artist's view from the start to the Moon - The Orion spacecraft onward to Moon - Artist view - Lunar program Constellation. The module inhabited Orion is secured to the planing module in Earth orbit and propels to the moon through a stage of the Ares 5 rocket. Ares 5 is a cargo rocket that will be used around 2020 to carry the landing module as well as the various elements needed to build a base on the Moon. Nasa's Constellation Program is getting to work on the new spacecraft that will return humans to the moon and blaze a trail to Mars and beyond. This artist's rendering represents a concept of departure stage engines firing to take a crew exploration vehicle (CEV) and a lunar lander out of Earth's orbit

Back to the Moon: artist's view from the start to the Moon - The Orion spacecraft onward to Moon - Artist view - Lunar program Constellation. The module inhabited Orion is secured to the planing module in Earth orbit and propels to the moon through a stage of the Ares 5 rocket. Ares 5 is a cargo rocket that will be used around 2020 to carry the landing module as well as the various elements needed to build a base on the Moon. Nasa's Constellation Program is getting to work on the new spacecraft that will return humans to the moon and blaze a trail to Mars and beyond. This artist's rendering represents a concept of departure stage engines firing to take a crew exploration vehicle (CEV) and a lunar lander out of Earth's orbit

PIX4638999

Galileo satellites - Artist's view of the European satellite network Galileo consists of 30 satellites at about 24,000 km of altitude (27 operationals, 3 reserve). This satellite positioning system is expected to be operational in 2016. The complete Galileo constellation will consist of 30 satellites along three orbital planes in medium Earth orbit (including two spares per orbit). The result will be Europe's largest ever fleet of satellites, operating in the new environment of medium - Earth orbit, providing worldwide navigation coverage

Galileo satellites - Artist's view of the European satellite network Galileo consists of 30 satellites at about 24,000 km of altitude (27 operationals, 3 reserve). This satellite positioning system is expected to be operational in 2016. The complete Galileo constellation will consist of 30 satellites along three orbital planes in medium Earth orbit (including two spares per orbit). The result will be Europe's largest ever fleet of satellites, operating in the new environment of medium - Earth orbit, providing worldwide navigation coverage

P. Carril

PIX4643063

Geostationary orbit - Geostationary orbit - Schema showing the principle of geostationary orbit where telecommunication satellites and meteorological satellites are located

Geostationary orbit - Geostationary orbit - Schema showing the principle of geostationary orbit where telecommunication satellites and meteorological satellites are located

D. Ducros

PIX4642770

Satellite Sentinel - 1 - Illustration - Artist's view of the European satellite Sentinel - 1 in orbit around the Earth. This satellite has a five-metre resolution radar, is the first of a series of satellites forming the Earth monitoring network of the Copernicus programme (formerly GMES), and together they will study the changes in the Earth's environment. The Sentinel-1 mission consists of two satellites in polar orbit. Sentinel - 1 carries an advanced synthetic aperture radar that works in several specialised modes to provide detailed imagery for Europe's Copernicus programme. These data will be used for applications such as monitoring the oceans, including shipping lanes, sea ice and oil spills. It also provides data to map changing land cover, ground deformation, ice shelves and glaciers, and can be used to help emergency response when disasters such as floods strike and to support humanitarian relief efforts at times of crisis. The SENTINEL - 1 mission comprises a constellation o

Satellite Sentinel - 1 - Illustration - Artist's view of the European satellite Sentinel - 1 in orbit around the Earth. This satellite has a five-metre resolution radar, is the first of a series of satellites forming the Earth monitoring network of the Copernicus programme (formerly GMES), and together they will study the changes in the Earth's environment. The Sentinel-1 mission consists of two satellites in polar orbit. Sentinel - 1 carries an advanced synthetic aperture radar that works in several specialised modes to provide detailed imagery for Europe's Copernicus programme. These data will be used for applications such as monitoring the oceans, including shipping lanes, sea ice and oil spills. It also provides data to map changing land cover, ground deformation, ice shelves and glaciers, and can be used to help emergency response when disasters such as floods strike and to support humanitarian relief efforts at times of crisis. The SENTINEL - 1 mission comprises a constellation o

PIX4644310

Back to the Moon: artist's view from the start to the Moon - The Orion spacecraft onward to Moon - Lunar program Constellation. The module inhabited Orion is secured to the planing module in Earth orbit and propels to the moon through a stage of the Ares 5 rocket. Ares 5 is a cargo rocket that will be used around 2020 to carry the landing module as well as the various elements needed to build a base on the Moon. This is a NASA artist's rendering of the Orion crew exploration vehicle docking with the Altair lunar lander, contained within the earth departure stage of an Ares V rocket. This rendezvous will take place in low earth orbit before the earth departure stage, Orion and Altair make the transit towards the moon. The earth departure stage will be discarded on the way

Back to the Moon: artist's view from the start to the Moon - The Orion spacecraft onward to Moon - Lunar program Constellation. The module inhabited Orion is secured to the planing module in Earth orbit and propels to the moon through a stage of the Ares 5 rocket. Ares 5 is a cargo rocket that will be used around 2020 to carry the landing module as well as the various elements needed to build a base on the Moon. This is a NASA artist's rendering of the Orion crew exploration vehicle docking with the Altair lunar lander, contained within the earth departure stage of an Ares V rocket. This rendezvous will take place in low earth orbit before the earth departure stage, Orion and Altair make the transit towards the moon. The earth departure stage will be discarded on the way

PIX4638985

Satellite Sentinel - 1 - Illustration - Artist's view of the European satellite Sentinel - 1 in orbit around the Earth. This satellite has a five-metre resolution radar, is the first of a series of satellites forming the Earth monitoring network of the Copernicus programme (formerly GMES), and together they will study the changes in the Earth's environment. The Sentinel-1 mission consists of two satellites in polar orbit. Sentinel - 1a was launched on April 3, 2014. Sentinel - 1 carries an advanced synthetic aperture radar that works in several specialised modes to provide detailed imagery for Europe's Copernicus programme. These data will be used for applications such as monitoring the oceans, including shipping lanes, sea ice and oil spills. It also provides data to map changing land cover, ground deformation, ice shelves and glaciers, and can be used to help emergency response when disasters such as floods strike and to support humanitarian relief efforts at times of crisis. The SEN

Satellite Sentinel - 1 - Illustration - Artist's view of the European satellite Sentinel - 1 in orbit around the Earth. This satellite has a five-metre resolution radar, is the first of a series of satellites forming the Earth monitoring network of the Copernicus programme (formerly GMES), and together they will study the changes in the Earth's environment. The Sentinel-1 mission consists of two satellites in polar orbit. Sentinel - 1a was launched on April 3, 2014. Sentinel - 1 carries an advanced synthetic aperture radar that works in several specialised modes to provide detailed imagery for Europe's Copernicus programme. These data will be used for applications such as monitoring the oceans, including shipping lanes, sea ice and oil spills. It also provides data to map changing land cover, ground deformation, ice shelves and glaciers, and can be used to help emergency response when disasters such as floods strike and to support humanitarian relief efforts at times of crisis. The SEN

PIX4644317

Satellite METOP - A - Artist's view of the European satellite METOP - A in orbit around the Earth. Launch on October 19, 2006, it is the first European meteorological satellite in polar orbit; it includes twelve meteorological instruments. MetOp is a series of three meteorological operational polar orbiting satellites, the first of which, MetOp-1 is the prototype. The instruments on MetOp will produce high - resolution images, vertical temperature and humidity profiles, and temperatures of the land and ocean surface on a global basis. Also on board the satellites will be instruments for monitoring ozone and wind flow over the oceans. The first launch was on October 19 2006

Satellite METOP - A - Artist's view of the European satellite METOP - A in orbit around the Earth. Launch on October 19, 2006, it is the first European meteorological satellite in polar orbit; it includes twelve meteorological instruments. MetOp is a series of three meteorological operational polar orbiting satellites, the first of which, MetOp-1 is the prototype. The instruments on MetOp will produce high - resolution images, vertical temperature and humidity profiles, and temperatures of the land and ocean surface on a global basis. Also on board the satellites will be instruments for monitoring ozone and wind flow over the oceans. The first launch was on October 19 2006

D. Ducros

PIX4644893

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