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A toad sitting on a Lotus leaf laying eggs just below the bulbous pods of a Water Hyacinth plant. Toad refers to a number of species of amphibians. A distinction is often made between frogs and toads by their appearance, prompted by the convergent adaptation among so-called toads to dry environments, which often entails a brown skin for camouflage which is also dry and leathery for better water retention. Many so-called toads also burrow, which requires further adaptations. However, these adaptations merely reflect the environment a species has adapted to, and are not reliable indicators of its ancestry. Since taxonomy reflects only evolutionary relationships, any distinction between frogs and toads is irrelevant to their classification. Nepal, May 13, 2007. (photo)

A toad sitting on a Lotus leaf laying eggs just below the bulbous pods of a Water Hyacinth plant. Toad refers to a number of species of amphibians. A distinction is often made between frogs and toads by their appearance, prompted by the convergent adaptation among so-called toads to dry environments, which often entails a brown skin for camouflage which is also dry and leathery for better water retention. Many so-called toads also burrow, which requires further adaptations. However, these adaptations merely reflect the environment a species has adapted to, and are not reliable indicators of its ancestry. Since taxonomy reflects only evolutionary relationships, any distinction between frogs and toads is irrelevant to their classification. Nepal, May 13, 2007. (photo)

UIG798528

James Webb Space Telescope (JWST) - JWST in clean room: Curvature measurements of the JWST Space Telescope (James Webb Space Telescope) at Nasa's Goddard Space Center. The JWST will replace the Hubble Space Telescope in 2018. Equipped with a 6.5 m mirror, he will observe the universe mainly in infrared. Engineers and technicians working on the James Webb Space Telescope successfully completed the first important optical measurement of Webb's fully assembled primary mirror, called a Center of Curvature test. Taking a “” before””” optical measurement of the telescope's deployed mirror is crucial before the telescope goes into several stages of rigorous mechanical testing. These tests will simulate the violent sound and vibration environments the telescope will experience inside its rocket on its way out into space. This environment is one of the most stressful structurally and could alter the shape and alignment of Webb's primary mirror, which could degrade or, in the worst case, ruin it

James Webb Space Telescope (JWST) - JWST in clean room: Curvature measurements of the JWST Space Telescope (James Webb Space Telescope) at Nasa's Goddard Space Center. The JWST will replace the Hubble Space Telescope in 2018. Equipped with a 6.5 m mirror, he will observe the universe mainly in infrared. Engineers and technicians working on the James Webb Space Telescope successfully completed the first important optical measurement of Webb's fully assembled primary mirror, called a Center of Curvature test. Taking a “” before””” optical measurement of the telescope's deployed mirror is crucial before the telescope goes into several stages of rigorous mechanical testing. These tests will simulate the violent sound and vibration environments the telescope will experience inside its rocket on its way out into space. This environment is one of the most stressful structurally and could alter the shape and alignment of Webb's primary mirror, which could degrade or, in the worst case, ruin it

PIX4645835

E.DEORBIT: a satellite to clean space - E.Deorbit grabbing debris - An artist's view of the e.deorbit satellite (left) catching a satellite with a robotic arm to take it to consume itself in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would remove the larger objects with his arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown left, using a robotic arm to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and

E.DEORBIT: a satellite to clean space - E.Deorbit grabbing debris - An artist's view of the e.deorbit satellite (left) catching a satellite with a robotic arm to take it to consume itself in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would remove the larger objects with his arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown left, using a robotic arm to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and

D. Ducros

PIX4605494

E.DEORBIT: a satellite to clean space - E.Deorbit grabbing debris - An artist's view of the e.deorbit satellite (left) catching a satellite with a robotic arm to take it to consume itself in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would remove the larger objects with his arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown left, using a robotic arm to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and

E.DEORBIT: a satellite to clean space - E.Deorbit grabbing debris - An artist's view of the e.deorbit satellite (left) catching a satellite with a robotic arm to take it to consume itself in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would remove the larger objects with his arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown left, using a robotic arm to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and

D. Ducros

PIX4605498

Star Formation in the Southern Cross - Star Formation in the Southern Cross - Part of the lactee route in the constellation of the Southern Cross seen in infrared by the Herschel space telescope. The hottest dust appears in blue, the coldest ones appear in red, the new stars will be born. Composite images obtained by SPIRE and PACS instruments on September 3, 2009. Some of the coldest and darkest dust in space shines brightly in this infrared image from the Herschel Observatory, a European Space Agency mission with important participation from NASA. The image is a composite of light captured simultaneously by two of Herschel's three instruments - - the photodetector array camera and spectrometer, and its spectral and photometric imaging receiver. The image reveals a cold and turbulent region where material is just beginning to condense into new stars. It is located in the plane of our Milky Way galaxy, 60 degrees from the center. Blue shows warmer material, red the coolest. The red fil

Star Formation in the Southern Cross - Star Formation in the Southern Cross - Part of the lactee route in the constellation of the Southern Cross seen in infrared by the Herschel space telescope. The hottest dust appears in blue, the coldest ones appear in red, the new stars will be born. Composite images obtained by SPIRE and PACS instruments on September 3, 2009. Some of the coldest and darkest dust in space shines brightly in this infrared image from the Herschel Observatory, a European Space Agency mission with important participation from NASA. The image is a composite of light captured simultaneously by two of Herschel's three instruments - - the photodetector array camera and spectrometer, and its spectral and photometric imaging receiver. The image reveals a cold and turbulent region where material is just beginning to condense into new stars. It is located in the plane of our Milky Way galaxy, 60 degrees from the center. Blue shows warmer material, red the coolest. The red fil

PIX4621141

James Webb Space Telescope Mirrors (JWST) - Testing of the JWST's mirrors - Six of the 18 JWST (James Webb Space Telescope) mirrors seen at Nasa's Marshall Space Center. These mirrors will be tested there to ensure they will withstand the extreme temperatures of space vacuum. The JWST will replace the Hubble Space Telescope in 2014. Equipped with a 6.5 m mirror, he will observe the universe mainly in infrared. Six of the 18 James Webb Space Telescope mirror segments are being moved into the X - ray and Cryogenic Facility, or XRCF, at Nasa's Marshall Space Flight Center in Huntsville, Ala., to eventually experience temperatures dipping to a chilling - 414 degrees Fahrenheit to ensure they can withstand the extreme space environments. The test chamber takes approximately five days to cool a mirror segment to cryogenic temperatures. Marshall's X - ray & Cryogenic Facility is the world's largest X - ray telescope test facility and a unique, cryogenic, clean room optical test location. The

James Webb Space Telescope Mirrors (JWST) - Testing of the JWST's mirrors - Six of the 18 JWST (James Webb Space Telescope) mirrors seen at Nasa's Marshall Space Center. These mirrors will be tested there to ensure they will withstand the extreme temperatures of space vacuum. The JWST will replace the Hubble Space Telescope in 2014. Equipped with a 6.5 m mirror, he will observe the universe mainly in infrared. Six of the 18 James Webb Space Telescope mirror segments are being moved into the X - ray and Cryogenic Facility, or XRCF, at Nasa's Marshall Space Flight Center in Huntsville, Ala., to eventually experience temperatures dipping to a chilling - 414 degrees Fahrenheit to ensure they can withstand the extreme space environments. The test chamber takes approximately five days to cool a mirror segment to cryogenic temperatures. Marshall's X - ray & Cryogenic Facility is the world's largest X - ray telescope test facility and a unique, cryogenic, clean room optical test location. The

PIX4645745

James Webb Space Telescope Mirrors (JWST) - Testing of the JWST's mirrors - Six of the 18 JWST (James Webb Space Telescope) mirrors seen at Nasa's Marshall Space Center. These mirrors will be tested there to ensure they will withstand the extreme temperatures of space vacuum. The JWST will replace the Hubble Space Telescope in 2014. Equipped with a 6.5 m mirror, he will observe the universe mainly in infrared. Six of the 18 James Webb Space Telescope mirror segments are being moved into the X - ray and Cryogenic Facility, or XRCF, at Nasa's Marshall Space Flight Center in Huntsville, Ala., to eventually experience temperatures dipping to a chilling - 414 degrees Fahrenheit to ensure they can withstand the extreme space environments. The test chamber takes approximately five days to cool a mirror segment to cryogenic temperatures. Marshall's X - ray & Cryogenic Facility is the world's largest X - ray telescope test facility and a unique, cryogenic, clean room optical test location. The

James Webb Space Telescope Mirrors (JWST) - Testing of the JWST's mirrors - Six of the 18 JWST (James Webb Space Telescope) mirrors seen at Nasa's Marshall Space Center. These mirrors will be tested there to ensure they will withstand the extreme temperatures of space vacuum. The JWST will replace the Hubble Space Telescope in 2014. Equipped with a 6.5 m mirror, he will observe the universe mainly in infrared. Six of the 18 James Webb Space Telescope mirror segments are being moved into the X - ray and Cryogenic Facility, or XRCF, at Nasa's Marshall Space Flight Center in Huntsville, Ala., to eventually experience temperatures dipping to a chilling - 414 degrees Fahrenheit to ensure they can withstand the extreme space environments. The test chamber takes approximately five days to cool a mirror segment to cryogenic temperatures. Marshall's X - ray & Cryogenic Facility is the world's largest X - ray telescope test facility and a unique, cryogenic, clean room optical test location. The

PIX4645755

James Webb Space Telescope Mirrors (JWST) - Testing of the JWST's mirrors - Six of the 18 JWST (James Webb Space Telescope) mirrors seen at Nasa's Marshall Space Center. These mirrors will be tested there to ensure they will withstand the extreme temperatures of space vacuum. The JWST will replace the Hubble Space Telescope in 2014. Equipped with a 6.5 m mirror, he will observe the universe mainly in infrared. Six of the 18 James Webb Space Telescope mirror segments are being moved into the X - ray and Cryogenic Facility, or XRCF, at Nasa's Marshall Space Flight Center in Huntsville, Ala., to eventually experience temperatures dipping to a chilling - 414 degrees Fahrenheit to ensure they can withstand the extreme space environments. The test chamber takes approximately five days to cool a mirror segment to cryogenic temperatures. Marshall's X - ray & Cryogenic Facility is the world's largest X - ray telescope test facility and a unique, cryogenic, clean room optical test location. The

James Webb Space Telescope Mirrors (JWST) - Testing of the JWST's mirrors - Six of the 18 JWST (James Webb Space Telescope) mirrors seen at Nasa's Marshall Space Center. These mirrors will be tested there to ensure they will withstand the extreme temperatures of space vacuum. The JWST will replace the Hubble Space Telescope in 2014. Equipped with a 6.5 m mirror, he will observe the universe mainly in infrared. Six of the 18 James Webb Space Telescope mirror segments are being moved into the X - ray and Cryogenic Facility, or XRCF, at Nasa's Marshall Space Flight Center in Huntsville, Ala., to eventually experience temperatures dipping to a chilling - 414 degrees Fahrenheit to ensure they can withstand the extreme space environments. The test chamber takes approximately five days to cool a mirror segment to cryogenic temperatures. Marshall's X - ray & Cryogenic Facility is the world's largest X - ray telescope test facility and a unique, cryogenic, clean room optical test location. The

PIX4645744

E.DEORBIT: a satellite to clean space - E.Deorbit grabbing debris - An artist's view of the e.deorbit satellite (left) catching a satellite with a robotic arm to take it to consume itself in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would remove the larger objects with his arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown left, using a robotic arm to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and

E.DEORBIT: a satellite to clean space - E.Deorbit grabbing debris - An artist's view of the e.deorbit satellite (left) catching a satellite with a robotic arm to take it to consume itself in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would remove the larger objects with his arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown left, using a robotic arm to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and

D. Ducros

PIX4605477

E.DEORBIT: a satellite to clean up space - E.Deorbit grabbing debris - Artist view of the e.deorbit satellite (left) catching a satellite with a net to take it to consume in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would recapture the larger objects with his articulated arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown left, using a net to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and harpon. In

E.DEORBIT: a satellite to clean up space - E.Deorbit grabbing debris - Artist view of the e.deorbit satellite (left) catching a satellite with a net to take it to consume in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would recapture the larger objects with his articulated arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown left, using a net to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and harpon. In

D. Ducros

PIX4605500

E.DEORBIT: a satellite to clean up space - E.Deorbit grabbing debris - Artist view of the satellite e.deorbit (right) catching a satellite with a net to take it to consume in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would recapture the larger objects with his articulated arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown right, using a net to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and harpon.

E.DEORBIT: a satellite to clean up space - E.Deorbit grabbing debris - Artist view of the satellite e.deorbit (right) catching a satellite with a net to take it to consume in the Earth's atmosphere. e.Deorbit is a European mission project that if approved in 2019 will start in 2024. This satellite will be the first to clean up space debris. He would recapture the larger objects with his articulated arm or a net, before discharging them into the atmosphere, or they would be destroyed. ESA's proposed e.Deorbit mission, shown right, using a net to catch a derelict satellite - the baseline capture method for what would be the world's first active space debris removal mission, in 2024. The mission would first rendezvous with a large, drifting ESA satellite, then capture and secure it safely ahead of steering the combination down for a controlled burn-up in the atmosphere. As well as the baselined robot arm, additional capture technologies are being investigated, including a net and harpon.

D. Ducros

PIX4605506

James Webb Space Telescope Mirrors (JWST) - Testing of the JWST's mirrors: Six of the 18 JWST (James Webb Space Telescope) mirrors seen at Nasa's Marshall Space Center. These mirrors will be tested there to ensure they will withstand the extreme temperatures of space vacuum. The JWST will replace the Hubble Space Telescope in 2018. Team with a 6.5 m mirror, he will observe the universe mainly in infrared - Six of the 18 James Webb Space Telescope mirror segments are being moved into the X-ray and Cryogenic Facility, or XRCF, at Nasa's Marshall Space Flight Center in Huntsville, Ala., to eventually experience temperatures dipping to a chilling -414 degrees Fahrenheit to ensure they can withstand the extreme space environments. The test chamber takes approximately five days to cool a mirror segment to cryogenic temperatures. Marshall's X-ray & Cryogenic Facility is the world's largest X-ray telescope test facility and a unique, cryogenic, clean room optical test location. The James Webb

James Webb Space Telescope Mirrors (JWST) - Testing of the JWST's mirrors: Six of the 18 JWST (James Webb Space Telescope) mirrors seen at Nasa's Marshall Space Center. These mirrors will be tested there to ensure they will withstand the extreme temperatures of space vacuum. The JWST will replace the Hubble Space Telescope in 2018. Team with a 6.5 m mirror, he will observe the universe mainly in infrared - Six of the 18 James Webb Space Telescope mirror segments are being moved into the X-ray and Cryogenic Facility, or XRCF, at Nasa's Marshall Space Flight Center in Huntsville, Ala., to eventually experience temperatures dipping to a chilling -414 degrees Fahrenheit to ensure they can withstand the extreme space environments. The test chamber takes approximately five days to cool a mirror segment to cryogenic temperatures. Marshall's X-ray & Cryogenic Facility is the world's largest X-ray telescope test facility and a unique, cryogenic, clean room optical test location. The James Webb

PIX4645800

Peru Machu Picchu (photo)

Peru Machu Picchu (photo)

Sergi Reboredo

SRB3585215

Peru Machu Picchu (photo)

Peru Machu Picchu (photo)

Sergi Reboredo

SRB3585212

Peru Machu Picchu (photo)

Peru Machu Picchu (photo)

Sergi Reboredo

SRB3585213

Peru Machu Picchu (photo)

Peru Machu Picchu (photo)

Sergi Reboredo

SRB3585214

C.R. juvenile prisons for young offenders, 1970

C.R. juvenile prisons for young offenders, 1970

MOD6437276

Sonde Jupiter Icy Moon Explorer (JUICE) (2023-2030) (illustration)

Sonde Jupiter Icy Moon Explorer (JUICE) (2023-2030) (illustration)

D. Ducros

PIX8702152

Sonde Jupiter Icy Moon Explorer (JUICE) (2023-2030) (illustration)

Sonde Jupiter Icy Moon Explorer (JUICE) (2023-2030) (illustration)

D. Ducros

PIX8702153

Sonde Jupiter Icy Moon Explorer (JUICE) (2023-2030) (illustration)

Sonde Jupiter Icy Moon Explorer (JUICE) (2023-2030) (illustration)

D. Ducros

PIX8702151

Candlewick Ward Association, plate 73 from 'Loyal Volunteers of London and Environs', 1799 (litho)

Candlewick Ward Association, plate 73 from 'Loyal Volunteers of London and Environs', 1799 (litho)

Rowlandson, Thomas (1756-1827)

STC104918

Guildhall Light Infantry Volunteer, plate 33 from 'Loyal Volunteers of London and Environs', 1798 (litho)

Guildhall Light Infantry Volunteer, plate 33 from 'Loyal Volunteers of London and Environs', 1798 (litho)

Rowlandson, Thomas (1756-1827)

STC104916

View of St Andrew's Church, from Mission Row, 'Views of Calcutta and its Environs', 1826 (coloured aquatint)

View of St Andrew's Church, from Mission Row, 'Views of Calcutta and its Environs', 1826 (coloured aquatint)

Fraser, James Earle (1876-1953)

BL2652183

Southwark Cavalry, c.1799 (coloured aquatint)

Southwark Cavalry, c.1799 (coloured aquatint)

Rowlandson, Thomas (1756-1827)

NAM3062344

Lambeth Cavalry, c.1799 (colour litho)

Lambeth Cavalry, c.1799 (colour litho)

Rowlandson, Thomas (1756-1827)

NAM3062345

Clerkenwell Cavalry, c.1799 (coloured aquatint)

Clerkenwell Cavalry, c.1799 (coloured aquatint)

Rowlandson, Thomas (1756-1827)

NAM3062346

Middlesex Cavalry (coloured aquatint)

Middlesex Cavalry (coloured aquatint)

Rowlandson, Thomas (1756-1827)

NAM3062347

Westminster Cavalry, c.1799 (coloured aquatint)

Westminster Cavalry, c.1799 (coloured aquatint)

Rowlandson, Thomas (1756-1827)

NAM3062343

Heloise grotto in Clisson, 1817 (engraving)

Heloise grotto in Clisson, 1817 (engraving)

CCI1969197

View of the torrent known as La Sanguese and the ruins of the house of Abelard at the Pallet, on the road from Clisson to Nantes, illustration from 'Voyage pittoresque dans le bocage de la Vendee ou vues de Clisson et de ses environs', 1817 (aquatint)

View of the torrent known as La Sanguese and the ruins of the house of Abelard at the Pallet, on the road from Clisson to Nantes, illustration from 'Voyage pittoresque dans le bocage de la Vendee ou vues de Clisson et de ses environs', 1817 (aquatint)

Thienon, Claude (1772-1846)

XIR346160

Newgate, rebuilt in 1672 after the Fire of London, with three figures Justice, Fortitude and Prudence from the former gate built by Mayor of London Richard Wittington

Newgate, rebuilt in 1672 after the Fire of London, with three figures Justice, Fortitude and Prudence from the former gate built by Mayor of London Richard Wittington

Smith, John Thomas (1766-1833)

FLO6340500

London and Westminster Light Horse Volunteer (aquatint)

London and Westminster Light Horse Volunteer (aquatint)

Rowlandson, Thomas (1756-1827) (after)

NAM5926114

Poplar & Blackwall Volunteer, Prime & Load (last motion), 1798 (aquatint)

Poplar & Blackwall Volunteer, Prime & Load (last motion), 1798 (aquatint)

Rowlandson, Thomas (1756-1827) (after)

NAM5926113

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