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  • John S. Weber looking at a model of himself by German artist Karin Sander. Museum Of Modern Art (MOMA) San Francisco, California. USA. MODEL RELEASED.
    USA_MUSE_3_xs.jpg
  • Nano Technology: Molecular bearing. Computer scientist Ralph Merkle models a molecular bearing designed on computer. Merkle is head of Computational Nanotechnology at Xerox Parc (Palo Alto Research Center) in California, USA. Using desktop simulations he builds tiny machines atom by atom, such as this frictionless bearing, which would be too small to see even with the world's most powerful microscope. Although still on the frontiers of science, nanotechnology could one day lead to a host of revolutionary miniature inventions, such as microscopic nanorobots that patrol the human body in search of cancer tumors. Model Released [1995]
    USA_SCI_NANO_04_120_xs.jpg
  • Nano Technology: Molecular bearing. Computer scientist Ralph Merkle models a molecular bearing designed on computer. Merkle is head of Computational Nanotechnology at Xerox Parc (Palo Alto Research Center) in California, USA. Using desktop simulations he builds tiny machines atom by atom, such as this frictionless bearing, which would be too small to see even with the world's most powerful microscope. Although still on the frontiers of science, nanotechnology could one day lead to a host of revolutionary miniature inventions, such as microscopic nanorobots that patrol the human body in search of cancer tumors. [1995]
    USA_SCI_NANO_02_120_xs.jpg
  • Nano /Micro Technology: Molecular bearing. Computer scientist Ralph Merkle models a molecular bearing designed on a computer. Merkle is head of Computational Nanotechnology at Xerox Parc (Palo Alto Research Center) in California, USA. Using desktop simulations he builds tiny machines atom by atom, such as this frictionless bearing, which would be too small to see even with the world's most powerful microscope. Although still on the frontiers of science, nanotechnology could one day lead to a host of revolutionary miniature inventions, such as microscopic Nan robots that patrol the human body in search of cancer tumors. Model Released [1995]
    USA_SCI_NANO_01_120_xs.jpg
  • Micromechanics: Motorola, Inc., Phoenix, Arizona - the design team works on MPX4100D pressure ex-ducer engine manifold p. [1990]
    USA_SCI_MICRO_18_xs.jpg
  • The Holy Land Experience is a Christian theme park in Orlando, Florida. The theme park recreates the architecture and themes of the ancient city of Jerusalem in 1st century Israel. The Holy Land Experience was founded and built by Marvin Rosenthal, a Jewish born Baptist minister but is now owned by the Trinity Broadcasting Network. Rosenthal is also the chief executive of a ministry devoted to 'reaching the Jewish people for the Messiah' called Zion's Hope. Beside the theme park architectural recreations, there are church services and live presentations of biblical stories, most notably a big stage production featuring the life of Jesus. There are several restaurants and gift shops in the theme park. The staff dresses in biblical costumes. Admission is $40 for adults and $25 for youths, aged 6-18.
    USA_121027_311_x.jpg
  • David Scharf, US electron microscopist and photographer. He was educated in physics in New Jersey, and then worked at a variety of electronics and aerospace companies using conventional photography. He first used a scanning electron microscope (SEM) while at an aerospace company. Shortly after this he decided to become a photographer specializing in images of the very small. Scharf has his own SEM, linked to a computer for control and coloring of his images. He has been published in journals such as Life, National Geographic and Geo. He has published a book of his SEMs entitled Magnifications. Photographed at his home in Los Angeles, Model Released 1994.
    USA_SCI_PHO_01_xs.jpg
  • Micro Technology: Micromechanics: Image showing the small size of the micro- accelerometer used to trip a car 'air-bag' safety device. The micro-accelerometer is seen as the small black dot in the middle of the hand. In a collision, the micro-accelerometer detects the sudden slowing down of the car. This triggers a circuit, which rapidly inflates a plastic bag with air. The air bag deploys between the driver and the steering wheel, preventing serious facial injury as the driver is thrown forward. The air- bag inflates fully in about 0.2 seconds. Micro- accelerometers are mechanical devices made by the same processes that are used in the manufacture of conventional silicon microcircuits.
    USA_SCI_MICRO_20_xs.jpg
  • Micro Technology: Micromechanics at the University of California, Berkeley. Micro fabrication Lab: Brett Warneck and Bryan Atwood (part of the Pister Group working on "smart dust".) Model Released
    USA_SCI_MICRO_17_xs.jpg
  • Micro Technology: Micromechanics at the University of California, Berkeley. In the microelectromechanical system (MEMS) lab at Cory Hall a researcher at a micromanipulator probe station testing a micro machined chip. Model Released [2000]
    USA_SCI_MICRO_12_xs.jpg
  • Micro Technology: Micromechanics: A processed silicon wafer containing hundreds of micro mechanic pressure sensors. Tweezers are being used to remove faulty sensors, labeled by an automatic test device with a black dot of ink.
    USA_SCI_MICRO_11_xs.jpg
  • Micro Technology: Micromechanics at the University of California, Berkeley. Brett Warneck with autonomous sensing communication device built on a watch battery. Model Released. [2000]
    USA_SCI_MICRO_10_xs.jpg
  • Micro Technology: Tai Yu-Chong of U. C. Berkeley with a synchronous micromotor under a video microscope. Model Released.[1989]
    USA_SCI_MICRO_09_xs.jpg
  • Micro Technology: At the University of Utah, Professor Michael Mladejovsky with an S.E.M. image of a micromotor in the background. Model Released [1990]
    USA_SCI_MICRO_08_xs.jpg
  • Micromechanics: Motorola, Inc., Phoenix, Arizona - the design team works on MPX4100D pressure ex-ducer: a chip for measuring pressure in an engine manifold. Model Released [1990]
    USA_SCI_MICRO_04_xs.jpg
  • The Holy Land Experience is a Christian theme park in Orlando, Florida. The theme park recreates the architecture and themes of the ancient city of Jerusalem in 1st century Israel. The Holy Land Experience was founded and built by Marvin Rosenthal, a Jewish born Baptist minister but is now owned by the Trinity Broadcasting Network. Rosenthal is also the chief executive of a ministry devoted to 'reaching the Jewish people for the Messiah' called Zion's Hope. Beside the theme park architectural recreations, there are church services and live presentations of biblical stories, most notably a big stage production featuring the life of Jesus. There are several restaurants and gift shops in the theme park. The staff dresses in biblical costumes. Admission is $40 for adults and $25 for youths, aged 6-18.
    USA_121027_315_x.jpg
  • Redwood Logs, Northern California, USA. MODEL RELEASED.
    USA_FRST_05_xs.jpg
  • David Scharf, US electron microscopist and photographer. He was educated in physics in New Jersey, and then worked at a variety of electronics and aerospace companies using conventional photography. He first used a scanning electron microscope (SEM) while at an aerospace company. Shortly after this he decided to become a photographer specializing in images of the very small. Scharf has his own SEM, linked to a computer for control and coloring of his images. He has been published in journals such as Life, National Geographic and Geo. He has published a book of his SEMs entitled Magnifications. Photographed at his home in Los Angeles, 1994. Images on a light table in his basement lab.
    USA_SCI_PHO_02_xs.jpg
  • David Scharf, US electron microscopist and photographer. He was educated in physics in New Jersey, and then worked at a variety of electronics and aerospace companies using conventional photography. He first used a scanning electron microscope (SEM) while at an aerospace company. Shortly after this he decided to become a photographer specializing in images of the very small. Scharf has his own SEM, linked to a computer for control and coloring of his images. He has been published in journals such as Life, National Geographic and Geo. He has published a book of his SEMs entitled Magnifications. Photographed at his home in Los Angeles. Model Released. 1994.
    USA_SCI_PHO_01_120_xs.jpg
  • Nano / Micro Technology: Eric Drexler. Portrait of US nanotechnologist and author Eric Drexler. He is seated in front of a computer simulation of a diamondoid molecular bearing model of a robot he designed. This nanotechnology robot is so tiny it is made up of a precise number of atoms (orange and grey spheres). Although still on the frontiers of science, a robot like this may one day assemble molecules one-by-one, eat up pollutants, function as computers the size of a virus, or patrol the human body in search of cancer tumors. Eric Drexler developed the concept of nanotechnology in his books The Engines of Creation and Nanosystems. Model Released [1996]
    USA_SCI_NANO_03_120_xs.jpg
  • Nano / Micro Technology: Eric Drexler. Portrait of US nanotechnologist and author Eric Drexler. Drexler developed the concept of nanotechnology in his books The Engines of Creation and Nanosystems. Model Released [2002]
    USA_SCI_NANO_01_xs.jpg
  • Micro Technology: Micromechanics at the University of California, Berkeley, Cory Hall. Display of micrographs of micro electrical manipulators at the microelectromechanical system (MEMS) lab. [2000]
    USA_SCI_MICRO_16_xs.jpg
  • Micro Technology: Micromechanics: Scanning electron micrograph (SEM) of a mite (Acarimetaseiulus occidentalis) on the surface of a silicon micro-resonator 'chip'. The micro- resonator, or 'semaphore structure', is a product of micromechanics. Micro-resonators are use to make tiny vibration sensors for engineering use. The comb-like detector ends of the micro- resonators are seen here, a thin strand of silicon running from the left detector toward top left is attached to a large resonant mass. The absence of a resonant mass fixed to the right detector indicates a fault in manufacture. To give an idea of scale, the silicon strand is 2 microns thick and 2 microns wide. Reid Brennan's semaphore structure with mite. [1990]
    USA_SCI_MICRO_15_xs.jpg
  • At U.C. Berkeley, graduate student Bill Tand holds a wafer with thousands of micromotors like the one he designed seen on the video and rear-screen projected behind him: a 200 micron linear resonator. Model Released [1990]
    USA_SCI_MICRO_07_xs.jpg
  • Micro Technology: Micromechanics: Scientist looking at a processed wafer of silicon through an optical microscope. In the background is a highly magnified image of a micro motor. The wafer being studied contains over 7,000 such micro motors on its surface, made by the same process as is used to manufacture microcircuits. In the background is a 130 Micron Rotor. Model Released [1990]
    USA_SCI_MICRO_13_xs.jpg
  • Micro Technology: Micromechanics: Dale Emery at the controls of a scanning electron microscope (SEM). The image from the microscope is displayed on the TV-type screens. The subject under the microscope is a 250 micron-diameter wobble motor, a micromechanical device. Just visible in the display running diagonally across the right of the screen is a human hair included for comparison. University of Utah, Salt Lake City, USA. Model Released
    USA_SCI_MICRO_19_xs.jpg
  • Micro Technology: Micromechanics: Light micrograph of the detector 'teeth' of a micro-resonator. This is a tiny mechanical resonating structure, made by the same silicon deposition process used in the manufacture of microcircuits. The 'teeth' seen here detect the motion of the resonator, the central buff-colored object. The dark vertical lines running above and below the resonator are the strands of silicon connecting the sensor to the resonant masses. The strands are only two microns thick, but at this scale silicon has a greater mechanical strength than steel. Micro-resonators have a variety of uses in detecting very small amplitude motions. [1989]
    USA_SCI_MICRO_14_xs.jpg
  • Professor Robert J. Full, in front of a poster of a ghost crab, in his Poly-PEDAL biology lab at UC Berkeley. Full studies animal locomotion on miniaturized treadmills, using hi-speed imaging and force measurements to map out how these creatures actually propel themselves. Cockroaches, crabs, geckos, centipedes have all been studied intently. Full's Poly-PEDAL Lab at UC Berkeley has been working with roboticists for years, supplying them with information on small animal locomotion that is used to construct innovative robots. UC Berkeley, CA, USA.
    Usa_rs_663_xs.jpg
  • Designed as a miniature reconnaissance airplane capable of flying at 40 mph for up to 20 minutes, AeroVironment is building the tiny Black Widow, which ultimately will be able to fly for an hour?or should be, if engineers can figure out how to pack more energy into its batteries. Zipping along at treetop level, the 15-cm-long, 58-gram Black Widow could spot details missed by even the sharpest satellite cameras. AeroVironment, Simi Valley, California. From the book Robo sapiens: Evolution of a New Species, page 158 bottom..
    USA_rs_418_qxxs.jpg
  • Artist Douglas Johnson (painter of miniatures, born 1946) at home in Coyote, New Mexico, USA. MODEL RELEASED.
    USA_NM_14_xs.jpg
  • Rod MacGregor, president and CEO of NanoMuscle, Inc. standing behind Life cycle testers: NanoMuscles are cycled continuously on these testers for months at a time to prove reliability. NanoMuscles are rated at one million cycles, but some samples have exceeded 12 million cycles and are still running. NanoMuscle, a California company headed by Scotsman Rod MacGregor, makes miniature motors, which are smaller and lighter than the conventional electric devices that go into everyday products such as digital cameras and CD players. Model Released
    USA_SCI_BIOT_02_xs.jpg
  • Metallic flakes wafting from his hand, Kris Pister of the University of California at Berkeley demonstrates one possible offshoot of robotics research: Smart Dust. Miniature machines, each the size of a dust mite, may eventually saturate the environment, invisibly performing countless tasks. From the book Robo sapiens: Evolution of a New Species, page 26-27.
    USA_rs_11B_120_qxxs.jpg

Peter Menzel Photography

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