Articles tagged with Laboratory Equipment
The DOE's sensor system uses a temperature sensor and radio-frequency tag to measure F-16 brake temperatures during landings. This allows ground crews to monitor the risk of hot brake emergencies, enabling pilots to take necessary precautions.
Penn State graduate student Ray Wakeland will demonstrate the fire organ, a heat-driven instrument producing musical sounds, and the daxophone, a unique sound-producing instrument. He will also showcase the Long String Instrument, a large bronze harp-type string instrument that produces ethereal music.
A new proximity sensor developed at Pacific Northwest National Laboratory could significantly reduce risks in eye surgery by detecting the location of critical retinal tissues. The sensor alerts surgeons when the endoscope's needle approaches the retina, alleviating concerns and improving precision and safety.
The Lynx SAR system can produce one-foot resolution imagery at standoff distances of up to 55 kilometers, even through clouds and light rain. It can also detect moving targets and small surface penetrations, making it a significant advancement in surveillance technology.
The University of Iowa is conducting a space shuttle experiment to study human cell growth and metabolism in space. The oxygen-sensing system developed by the university will be used to monitor oxygen levels and provide feedback control for optimal growth conditions.
After 20 years, NASA's Far Ultraviolet Spectroscopic Explorer (FUSE) satellite is nearing its scheduled June 23 launch. The project faced numerous setbacks, including the Challenger rocket explosion and budget cuts, but ultimately, Johns Hopkins University took over management and implemented cost-saving measures.
The new device measures worker exposure to carbon monoxide and is more accurate than existing methods. It can be used as an occupational dosimeter or residential passive sampler.
Sandia National Laboratories' tiny acoustic wave sensors can detect specific chemicals in the environment and alert people to potential hazards. The sensors, similar to a 'canary in a mine,' are part of a hand-held chemical detection system called 'chem lab on a chip.'
A new sensor developed by Johns Hopkins researchers can detect minute traces of nerve agents sarin and soman in water, boasting sensitivity levels a million times greater than previous reported solutions. The sensor combines molecular imprinting with optical luminescence to achieve this remarkable detection capability.
A sensor measuring raindrop energy may soon warn farmers of potential crop disease outbreaks. Early results show that the sensor can explain how rain spreads fungal spores causing some crop diseases.
A small radio-controlled aircraft equipped with a sensor developed at the Naval Research Laboratory (NRL) can monitor air for signs of biological weapons. The sensor uses fluorescent antibodies and optical fibers to detect biowar bacteria in water samples, allowing it to accumulate on probes over time.
A new environmental monitoring system, E-SMART, uses integrated optic chemical sensors to detect contaminants in soil, groundwater, and air. The system reduces health and safety risks, saves time and cost by operating in situ, and enables real-time assessments of environmental impact.
Researchers at U of T's Institute for Aerospace Studies have developed a smart structure on the Leslie Street bridge, lining columns with fibre-optic sensors and wrapping them with lightweight synthetic materials. The sensors precisely measure corrosion and hold the structure together, reducing road maintenance and closures.
Researchers have developed molecular sensors that can detect specific proteins in blood plasma or other biological fluids with high accuracy. The sensors could also be used to construct an environmental detector, giving new insights into cell functioning and promoting medical diagnostics.
The Mars 2001 Lander mission aims to investigate the geological record of ancient Martian waterways and possible biology. Cornell's Athena rover will use its integrated scientific instruments to collect data on the planet's surface, including an imager, infrared spectrometer, and Alpha-Proton-X-Ray spectrometer.
A new coating developed by Sandia National Laboratories has increased sensor sensitivity by a factor of about 500, making it ideal for detecting dangerous molecules in the air or water. This technology could aid in combatting terrorism and also benefit industries such as oil and pharmaceuticals.
Researchers have developed a technique using liposomes that can detect metal ions in solution, leading to practical sensors for heavy metals, viruses, and environmental cleanup. The technique involves entrapping liposomes in sol-gels, which increases their sensitivity, making them suitable for use in various applications.
A new sensor developed by Berkeley Lab can detect the presence of toxic E. coli bacteria instantly, providing a cost-effective solution for food companies, health inspectors, and consumers. The sensor uses a color-changing technology that can be placed on various materials, allowing for rapid detection of contaminated products.
Researchers at ORNL developed microscopic sensors using microcantilevers, detecting relative humidity, temperature, and pressure. They can also detect DNA, proteins, and natural gas, with potential as biosensors.