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  • Bradbury Science Museum, Los Alamos, NM. Displays of Manhatten Project that developed the world's first atomic bombs during WWII.
    USA_101002_274_x.jpg
  • Carlos Barbaro tests hair drier circuits at the Underwriters test Lab in Northbrook (Chicago) IL.
    USA_SCI_UWRL_07_xs.jpg
  • Bradbury Science Museum, Los Alamos, NM. Displays of Manhatten Project that developed the world's first atomic bombs during WWII.
    USA_101002_277_x.jpg
  • Vesterbro district porn shop. Vesterbro is the red light district of Copenhagen. Denmark.
    DEN_01_xs.jpg
  • A weapons and ammunition vendor at the Bekara market, the main public outdoor market in the South sector of Mogadishu, the war-torn capital of Somalia. March 1992.
    SOM_09_xs.jpg
  • Site Trinity, ground zero, on the White Sands Missile Range in S. New Mexico. Site of the world's first atomic explosion on July 16, 1945. The atomic bomb was developed by the Manhatten Project. The Manhattan Project refers to the effort during World War II by the United States, in collaboration with the United Kingdom, Canada, and other European physicists, to develop the first nuclear weapons. Formally designated as the Manhattan Engineering District (MED), it refers specifically to the period of the project from 1942-1946 under the control of the U.S. Army Corps of Engineers, under the administration of General Leslie R. Groves, with its scientific research directed by the American physicist J. Robert Oppenheimer. The project succeeded in developing and detonating three nuclear weapons in 1945: a test detonation on July 16 (the Trinity test) near Alamogordo, New Mexico; an enriched uranium bomb code-named "Little Boy" detonated on August 6 over Hiroshima, Japan; and a plutonium bomb code-named "Fat Man" on August 9 over Nagasaki, Japan. (http://en.wikipedia.org/wiki/Manhattan_Project)
    USA_101002_029_x.jpg
  • Crop dusting. Spraying orange orchards with pesticides at Cameo Ranch, Lancaster, California, USA. The helicopter is landing on a platform on top of the tanker trunk to reload. A flagger, who keeps track of the rows that have been sprayed, is at right.
    USA_AG_CRPD_22_xs.jpg
  • Clark's Harbor on Cape Sable Island. Nova Scotia, Canada.
    CAN_02_xs.jpg
  • Operation by a California veterinarian on a valued young Koi fish. Koi are a variety of the common carp, Cyprinus carpio. Today Koi are bred in nearly every country and considered to be the most popular fresh-water ornamental pond fish. They are often referred to as being "living jewels" or "swimming flowers". If kept properly, koi can live about 30-40 years. Some have been reportedly known to live up to 200 years. The Koi hobbyists have bred over 100 color varieties. Every Koi is unique, and the patterns that are seen on a specific Koi can never be exactly repeated. The judging of Koi at exhibitions has become a refined art, which requires many years of understanding the relationship between color, pattern, size and shape, presentation, and a number of other key traits. Prize Koi can cost several thousand dollars  USA. MODEL RELEASED.
    USA_KOI_11_xs.jpg
  • Operation by a California veterinarian on a prize-winning Koi fish. Koi are a variety of the common carp, Cyprinus carpio. Today Koi are bred in nearly every country and considered to be the most popular fresh-water ornamental pond fish. They are often referred to as being "living jewels" or "swimming flowers". If kept properly, koi can live about 30-40 years. Some have been reportedly known to live up to 200 years. The Koi hobbyists have bred over 100 color varieties. Every Koi is unique, and the patterns that are seen on a specific Koi can never be exactly repeated. The judging of Koi at exhibitions has become a refined art, which requires many years of understanding the relationship between color, pattern, size and shape, presentation, and a number of other key traits. Prize Koi can cost several thousand dollars  USA. MODEL RELEASED.
    USA_KOI_10_xs.jpg
  • Crop dusting. Spraying pesticides on agricultural crops in California.  The worker holding the flag (known as a "flagger") marks the row where the duster needs to spray next. Flagman at the end of rice field, with seeder plane approaching.
    USA_AG_CRPD_27_xs.jpg
  • Crop dusting. Spraying pesticides on agricultural crops in California. The worker holding the flag (known as a "flagger") marks the row where the duster needs to spray next. Flagman at the end of rice field, with seeder plane approaching.
    USA_AG_CRPD_27_xs.jpg
  • Crop dusting. Spraying orange orchards with pesticides at Cameo Ranch, Lancaster, California, USA. The helicopter is landing on a platform on top of the tanker trunk to reload. A flagger, who keeps track of the rows that have been sprayed, is at right.
    USA_AG_CRPD_22_xs.jpg
  • Condumex telephone cable factory. Queretaro, Mexico.
    MEX_105_xs.jpg
  • An unexploded rockeye submunition (cluster bomb), in the Al-Burgan Oil Field. After finding these rockeye submunitions all over Kuwait, the British Explosive Ordinance Disposal Team detonate them with plastic explosives from a safe distance. Nearly a million land mines were deployed on the beaches and along the Saudi and Iraqi border. In addition, tens of thousands of unexploded bomblets (from cluster bombs dropped by Allied aircraft) littered the desert. July 1991. More than 700 wells were set ablaze by retreating Iraqi troops creating the largest man-made environmental disaster in history.
    KUW_095_xs.jpg
  • An unexploded rockeye submunition (cluster bomb), in the Al-Burgan Oil Field. After finding these rockeye submunitions all over Kuwait, the British Explosive Ordinance Disposal Team detonate them with plastic explosives from a safe distance. .
    KUW_088_xs.jpg
  • A robotic waiter rolls up with an order of spaghetti and clams at a Tokyo, Japan restaurant. MODEL RELEASED.
    Japan_JAP_21_xs.jpg
  • The world's largest solar furnace in the French Pyrenees. Odeillo Font-Remu, France.
    FRA_024_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
  • Scripps Medical Center: Brain magnetic response: MEG Squid: Superconducting Quantum interference Device. Computer Screen shows the brain of a woman undergoing a brain scan with a neuromagnetometer, to measure normal brain function. The non-invasive scanner is positioned above her head while she views an object. This scan technique is called magneto encephalography (MEG). The neuromagnetometer measures magnetic fields generated from nerve cell activity within the brain. The scanner contains sensitive magnetic field detectors known as SQUIDS (Superconducting Quantum Interference Devices). MEG enables high- speed nerve cell activity to be detected, to show the brain working in rapid "real" time. It assists researchers to understand the normal brain. (1990)
    USA_SCI_MED_12_xs.jpg
  • Scripps Medical Center: Brain magnetic response. A woman undergoing a brain scan with a neuromagnetometer, to measure normal brain function. The non-invasive scanner is positioned above her head while she views an object. This scan technique is called magneto encephalography (MEG). The neuromagnetometer measures magnetic fields generated from nerve cell activity within the brain. The scanner contains sensitive magnetic field detectors known as SQUIDS (Superconducting Quantum Interference Devices). MEG enables high- speed nerve cell activity to be detected, to show the brain working in rapid "real" time. It assists researchers to understand the normal brain. MODEL RELEASED (1990)
    USA_SCI_MED_09_xs.jpg
  • First generation face robot from the Hara-Kobayashi Lab in Tokyo. Lit from behind to reveal the machinery beneath the skin. The machinery will change the contours of the robot's skin to create facial expressions. It does this by using electric actuators, which change their shape when an electric current is passed through them. The devices will return to their original shape when the current stops. This robot face was developed at the Laboratory of Fumio Hara and Hiroshi Kobayashi at the Science University, Tokyo, Japan.
    Japan_Jap_rs_2A_120_xs.jpg
  • Scripps Medical Center: Brain magnetic response. A woman undergoing a brain scan with a neuromagnetometer, to measure normal brain function. The non-invasive scanner is positioned above her head while she views an object. This scan technique is called magneto encephalography (MEG). The neuromagnetometer measures magnetic fields generated from nerve cell activity within the brain. The scanner contains sensitive magnetic field detectors known as SQUIDS (Superconducting Quantum Interference Devices). MEG enables high- speed nerve cell activity to be detected, to show the brain working in rapid "real" time. It assists researchers to understand the normal brain. MODEL RELEASED (1990)
    USA_SCI_MED_10_xs.jpg
  • At the MIT Media Lab in Cambridge, MA, Joshua Bers models virtual reality gloves and tracking devices while calibrating them. Bers is working on his master's thesis under Richard Bolt. He is seen wearing the equipment detailed above for calibration purposes. Once programmed and calibrated, he can move virtual objects around in a virtual room. Bolt is working on multi-modal interaction using speech, gesture, and gaze. He is attempting to program computers to interact with their users by non-standard (keyboard, mouse) methods.
    Usa_rs_105_xs.jpg
  • First generation face robot from the Hara-Kobayashi Lab in Tokyo. Lit from behind to reveal the machinery beneath the skin. The machinery will change the contours of the robot's skin to create facial expressions. It does this by using electric actuators, which change their shape when an electric current is passed through them. The devices will return to their original shape when the current stops. Unfortunately these actuators proved very slow at returning to their original shape, causing an expression to remain on the face for too long. This robot face was developed at the Laboratory of Fumio Hara and Hiroshi Kobayashi at the Science University, Tokyo, Japan. The robot head is lit from within by a pencil light strobe cloaked in a yellow gel.
    Japan_Jap_rs_1a_120_xs.jpg
  • Micro Technology: Steve Jacobsen, at the University of Utah's micromechanics laboratory with the undressed frame of a Disneyland robot. He is holding a silicon wafer in his left hand; This contains many micro motors and micro-actuators that could soon revolutionize robot design. Micromechanic devices, like silicon microcircuits, operate with static electrical charges, and so would require only one power cable, replacing the 200 that he is holding in his right hand. Model Released [1990]
    USA_SCI_MICRO_03_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
  • According to Hans Moravec of Carnegie Mellon University, advanced manufacturing techniques will enable the creation of machines that will far surpass the dexterity of conventional mechanical manipulators and even human hands. Equipped with molecule-sized "nano-fingers," these devices will be able to create any physical structure, atom by atom. Pittsburgh, PA. From the book Robo sapiens: Evolution of a New Species, page 33.
    USA_rs_330_qxxs.jpg
  • Seeming to touch the objects on his screen, Peter Berkelman, then a graduate student at the Carnegie Mellon Robotics Institute in Pittsburgh, PA, scoops up virtual blocks with a special device that communicates the sensation of touching them. The device, which has a handle suspended in powerful magnetic fields, can move with all six possible degrees of freedom: up and down, side to side, back and forth, yaw, pitch, and roll. Used with special "haptic" software the device has force-feedback. From the book Robo sapiens: Evolution of a New Species, page 136.
    USA_rs_27A_120_qxxs.jpg
  • Medicine: VA (Veteran's Affairs) Hospital in Long Beach, California - Dr. K.G. Lehmann, surgeon, preparing to perform a cardiac catheterization (diagnostic heart catheterization). The catheter, about the same thickness as a fine fishing line, is passed into a vein in the patient's arm. The catheter is then fed through the blood vessels to the heart. The surgeon keeps track of the catheter's position using an x-ray video camera. A tiny pressure measuring device, micro manometer, is at the end of the catheter, and is used to take blood pressure readings at both sides of a heart valve. This micro sensor device was made using the same technology as is used in the manufacture of silicon 'chips', allowing minute sensors to be built for such invasive diagnostic techniques. MODEL RELEASED (1990).
    USA_SCI_MED_08_xs.jpg
  • Medicine: VA (Veteran's Affairs) Hospital in Long Beach, California - Dr. K.G. Lehmann, surgeon, preparing to perform a cardiac catheterization. The catheter, about the same thickness as a fine fishing line, is passed into a vein in the patient's arm. The catheter is then fed through the blood vessels to the heart. The surgeon keeps track of the catheter's position using an x-ray video camera. A tiny pressure measuring device, a micro manometer, is at the end of the catheter, and is used to take blood pressure readings at both sides of a heart valve. This micro sensor device was made using the same technology as is used in the manufacture of silicon 'chips', allowing minute sensors to be built for such invasive diagnostic techniques. MODEL RELEASED (1990)
    USA_SCI_MED_07_xs.jpg
  • Medicine: VA (Veteran's Affairs) Hospital in Long Beach, California - Dr. K.G. Lehmann, surgeon, preparing to perform a cardiac catheterization (diagnostic heart catheterization). The catheter, about the same thickness as a fine fishing line, is passed into a vein in the patient's arm. The catheter is then fed through the blood vessels to the heart. The surgeon keeps track of the catheter's position using an x-ray video camera. A tiny pressure measuring device, a micro manometer, is at the end of the catheter, and is used to take blood pressure readings at both sides of a heart valve. This micro sensor device was made using the same technology as is used in the manufacture of silicon 'chips', allowing minute sensors to be built for such invasive diagnostic techniques. MODEL RELEASED (1990)
    USA_SCI_MED_06_xs.jpg
  • Medicine: VA (Veteran's Affairs) Hospital in Long Beach, California - Dr. K.G. Lehmann, surgeon, preparing to perform a cardiac catheterization. The catheter, about the same thickness as a fine fishing line, is passed into a vein in the patient's arm. The catheter is then fed through the blood vessels to the heart. The surgeon keeps track of the catheter's position using an x-ray video camera. A tiny pressure measuring device, a micro manometer, is at the end of the catheter, and is used to take blood pressure readings at both sides of a heart valve. This micro sensor device was made using the same technology as is used in the manufacture of silicon 'chips', allowing minute sensors to be built for such invasive diagnostic techniques. MODEL RELEASED (1990)
    USA_SCI_MED_05_xs.jpg
  • Boston Museum of Science electrostatic display operator, Don Salvatore, demonstrates the safety of a Faraday cage as he is protected from a 2.5-million-volt Van de Graaff static electricity generator. A Faraday cage is an earthed screen made of metal wire that surrounds an electric device in order to shield it from external electrical fields. Artificial lightning passes through the metal frame. Physicist Robert J. Van de Graaff invented this model in 1931. MODEL RELEASED (1992)
    USA_SCI_LIG_06_xs.jpg
  • Boston Museum of Science electrostatic display operator, Don Salvatore, demonstrates the safety of a Faraday cage as he is protected from a 2.5-million-volt Van de Graaff static electricity generator. A Faraday cage is an earthed screen made of metal wire that surrounds an electric device in order to shield it from external electrical fields. Artificial lightning passes through the metal frame. Physicist Robert J. Van de Graaff invented this model in 1931. MODEL RELEASED (1992).
    USA_SCI_LIG_05_xs.jpg
  • Boston Museum of Science electrostatic display operator, Don Salvatore, demonstrates the safety of a Faraday cage as he is protected from a 2.5-million-volt Van de Graaff static electricity generator. A Faraday cage is an earthed screen made of metal wire that surrounds an electric device in order to shield it from external electrical fields. Artificial lightning passes through the metal frame. Physicist Robert J. Van de Graaff invented this model in 1931. MODEL RELEASED (1992)
    USA_SCI_LIG_04_xs.jpg
  • Boston Museum of Science electrostatic display operator, Don Salvatore, demonstrates the safety of a Faraday cage as he is protected from a 2.5-million-volt Van de Graaff static electricity generator. A Faraday cage is an earthed screen made of metal wire that surrounds an electric device in order to shield it from external electrical fields. Artificial lightning passes through the metal frame. Physicist Robert J. Van de Graaff invented this model in 1931. MODEL RELEASED (1992)
    USA_SCI_LIG_03_xs.jpg
  • FINAL CONTACT: "GRAVEWATCH".  Photo Illustration for the Future of Communication GEO (Germany) Special issue. Fictional Representation and Caption: Interactive gravestones became quite popular in the 21st century. Adding snippets of video of the diseased was quite easy to program since nearly every family had extensively documented their family time with small digital videocams. AI (artificial intelligence) computer programs made conversations with the dead quite easy. These virtual visits to the underworld became passé within a decade however, and graveyard visits became less common. By mid-century many people wanted to insure that their relatives would continue paying their respects, and keeping their memory alive. New technology insured regular visits to the gravesite to pick up a monthly inheritance check issued electronically by a built-in device with wireless connection to the living relative's bank account. Face recognition (and retinal scanners on high-end models) insured that family members were present during the half-hour visits. A pressure pad at the foot of the grave activated the system and after 30 minutes of kneeling at the grave, watching videos or prerecorded messages or admonitions, a message flashed on the screen, indicating that a deposit had been made electronically to their bank account. For the Wright family of Napa, California, there is no other way to collect Uncle Eno's inheritance other than by monthly kneelings. ["Gravewatch" tombstones shown with "Retscan" retinal scanning ID monitors.] MODEL RELEASED
    USA_SCI_COMM_07_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
  • Human Genome Project: Portrait of Leroy Hood, Caltech scientist. Leroy Hood is an American biologist. He won the 2003 Lemelson-MIT Prize for inventing "four instruments that have unlocked much of the mystery of human biology" by helping decode the genome. Hood also won the 2002 Kyoto Prize for Advanced Technology, and the 1987 Albert Lasker Award for Basic Medical Research. His inventions include the automated DNA sequencer, a device to create proteins and an automated tool for synthesizing DNA. Hood co-founded the Institute for Systems Biology. MODEL RELEASED (1989).
    USA_SCI_HGP_25_xs.jpg
  • Future kitchen. Professor Mike Hawley (middle) and colleagues from the Massachusetts Institute of Technology (MIT), USA, in the 'kitchen of the future' prototype. Here, one of Hawley's colleagues (at left) is holding a 'digital nose' device. This analyses smells from the bowl's contents. It then tells the user (via the computer at centre right) how fresh the food is and suggests further ingredients. This is all part of MIT's Counter Intelligence project which includes using computers in food preparation and laying the table, as well as the inclusion of computer-simulated dinner guests. MODEL RELEASED. (1999)
    USA_SCI_MIT_07_120_xs.jpg
  • MODEL RELEASED. Immunodeficiency research. Dr Don Mosier counts mouse and human cells in a SCID (severe combined immunodeficiency) mouse that he implanted with a human immune system. The device at right is a fluorescence-activated cell sorter. The rare genetic mutation of SCID, found in both mice and humans, destroys the immune system and the body is unable to fight infection. Dr Mosier managed to implant disease-fighting human white blood cells into SCID mice giving them a permanent human immune system. This breakthrough enables researchers at the Scripps Research Institute in California, USA, to study human immune disorders such as SCID, AIDS, leukemia and allergies. MODEL RELEASED.[1995]
    USA_SCI_BIOT_04_xs.jpg
  • This is the "iodine cell," a device developed and perfected by Butler, Marcy, and instrument specialist Steven Vogt of the University of California, Santa Cruz. When light from a star passes through the iodine, molecules in the hot vapor absorb parts of the light at very specific energies. Then, a specially etched slab of glass spreads the starlight into a glorious rainbow spectrum?like a prism held up to the sun, but with exquisitely fine detail. Because the iodine has subtracted bits of the light, a forest of dark black lines covers the spectrum like a long supermarket bar code. "It's like holding the star up to a piece of graph paper," McCarthy says. "The iodine lines never move. So if the star moves, we use the iodine lines as a ruler against which to measure that motion."  Iodine cell.  Lick Observatory on Mt. Hamilton. San Jose, California. 120-inch telescope. Exoplanets & Planet Hunters.
    USA_Lick_060513_032_B_rwx.jpg
  • This is the "iodine cell," a device developed and perfected by Butler, Marcy, and instrument specialist Steven Vogt of the University of California, Santa Cruz. When light from a star passes through the iodine, molecules in the hot vapor absorb parts of the light at very specific energies. Then, a specially etched slab of glass spreads the starlight into a glorious rainbow spectrum?like a prism held up to the sun, but with exquisitely fine detail. Because the iodine has subtracted bits of the light, a forest of dark black lines covers the spectrum like a long supermarket bar code. "It's like holding the star up to a piece of graph paper," McCarthy says. "The iodine lines never move. So if the star moves, we use the iodine lines as a ruler against which to measure that motion."  Iodine cell.  Lick Observatory on Mt. Hamilton. San Jose, California. 120-inch telescope. Exoplanets & Planet Hunters.
    USA_Lick_060513_031_rwx.jpg
  • Professor Ron Fearing and his students at the University of California at Berkeley are using Dickinson's information to build a micromechanical fly. In the photo a 30% larger than final size scale mockup of the Micromechanical Flying Insect (MFI) is compared with its inspiration, the blow fly Calliphora erythrocephala. Researchers expect the stainless steel MFI to be flying in the lab by 2003. The main problem to be overcome in such a small device is an adequate power supply.
    Usa_rs_627_xs.jpg
  • Michael Dickinson of the University of California at Berkeley's email address is revealing: FlymanD. Dickinson is a biologist specializing in the study of the aerodynamics of flapping flight. His studies of fruit fly flight are fascinating. In one small room sits a Plexiglas tank filled with two metric tons of mineral oil. Suspended in the oil are giant mechanical models of fruit fly wings: RoboFly.  RoboFly enables Dickinson to study similar forces when the giant wings are flapping in oil. Thousands of tiny bubbles that act as visual tracers are forced into the oil from an air compressor making all the swirling turbulence visible. The device has been used to identify the unusual aerodynamic mechanisms that insects use to fly and maneuver. UC Berkeley, CA, USA.
    Usa_rs_612_xs.jpg
  • t the University of Utah in Salt Lake City, computer scientist John M. Hollerbach puts a lab staff member on the SARCOS Treadport, a device that mimics the tug and pull of acceleration. Walking on a treadmill, the staffer is surrounded by a projected simulation of a Western mountainside. On a real hill, hikers must struggle with their own inertia to surmount the slope, a sensation no ordinary treadmill can provide. The Treadport uses force-feedback to push or pull at the user, uncannily evoking the sensation of climbing, a new dimension of realism for this type of simulation. From the book Robo sapiens: Evolution of a New Species, page 137 top.
    USA_rs_432_120_qxxs.jpg
  • Researcher Tim Leuth and surgeon Martin Klein with a medical robot called a "SurgiScope" at the Virchow Campus Clinic, Humboldt University, Berlin, Germany. The SurgiScope is an image guided surgery support device comprised of a robotic tool holder, advanced image handling software and a position sensor. The robotic system can be used for surgical planning and interoperative guidance.
    Ger_rs_229_xs.jpg
  • In the Cambodian town of Siem Reap, the gateway to the ruins of Angkor Wat, an ingenious device is popular among the townspeople for catching crickets. A black light is hung above a plastic sheet that glows with an ultraviolet hue attractive to insects. The crickets are attracted to the light, land on the sheet, and slip down into a bucket of water, where they promptly drown. The Liemh family deep-fries the crickets and sells them in the local market for 6,000 riels, $2.50 US, per small basket.  Siem Reap, Cambodia. (Man Eating Bugs: The Art and Science of Eating Insects page 50)
    CAM_meb_14_xxs.jpg
  • Boston Museum of Science electrostatic display operator, Don Salvatore, demonstrates the safety of a Faraday cage as he is protected from a 2.5-million-volt Van de Graaff static electricity generator. A Faraday cage is an earthed screen made of metal wire that surrounds an electric device in order to shield it from external electrical fields. Artificial lightning passes through the metal frame. Physicist Robert J. Van de Graaff invented the generator in 1931. (1992)
    USA_SCI_LIG_49_xs.jpg
  • FINAL CONTACT: "GRAVEWATCH".  Photo Illustration for the Future of Communication GEO (Germany) Special issue. Fictional Representation and Caption: Interactive gravestones became quite popular in the 21st century. Adding snippets of video of the diseased was quite easy to program since nearly every family had extensively documented their family time with small digital videocams. AI (artificial intelligence) computer programs made conversations with the dead quite easy. These virtual visits to the underworld became passé within a decade however, and graveyard visits became less common. By mid-century many people wanted to insure that their relatives would continue paying their respects, and keeping their memory alive. New technology insured regular visits to the gravesite to pick up a monthly inheritance check issued electronically by a built-in device with wireless connection to the living relative's bank account. Face recognition (and retinal scanners on high-end models) insured that family members were present during the half-hour visits. A pressure pad at the foot of the grave activated the system and after 30 minutes of kneeling at the grave, watching videos or prerecorded messages or admonitions, a message flashed on the screen, indicating that a deposit had been made electronically to their bank account. For the Wright family of Napa, California, there is no other way to collect Uncle Eno's inheritance other than by monthly kneelings. ["Gravewatch" tombstones shown with "Retscan" retinal scanning ID monitors.] MODEL RELEASED
    USA_SCI_COMM_06_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
  • Future kitchen. Professor Mike Hawley (middle) and colleagues from the Massachusetts Institute of Technology (MIT), USA, in the 'kitchen of the future' prototype. Here, one of Hawley's colleagues (at left) is holding a 'digital nose' device. This analyses smells from the bowl's contents. It then tells the user (via the computer at center right) how fresh the food is and suggests further ingredients. This is all part of MIT's Counter Intelligence project which includes using computers in food preparation and laying the table, as well as the inclusion of computer-simulated dinner guests. MODEL RELEASED. (1999)
    USA_SCI_MIT_06_120_xs.jpg

Peter Menzel Photography

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