Articles tagged with Laser Systems
Researchers have developed a micromirror-based beam steering system that can precisely control individual atoms using tiny laser pulses. This technology has the potential to enable more efficient and accurate quantum computing applications.
Researchers have developed nano-sized optical gyroscopes that can fit on the head of a pin, improving rotation rates and accuracy in smartphones and medical equipment. These devices will enable enhanced tracking capabilities, including GPS system improvements and navigation for small capsules within the body.
Researchers at Georgia Tech Research Institute developed a system to measure high-energy laser beam power and spatial energy distribution. The reusable target board and beam diagnostic system enables simultaneous measurement of power and energy distribution, optimizing lasers for national security.
Researchers introduced quantum dots into fully epitaxial nitride laser structures, eliminating the need for hybrid systems. This advancement paves the way to further optimization of lasers and single photon emitters in the visible spectrum region.
Severe adverse effects, such as burns and scarring, have been reported from untrained laser hair removal operators. The Canadian Medical Association Journal recommends setting minimum training standards for operators to ensure safe and effective procedures.
Dr. Jacob Scheuer's new invention transmits binary lock-and-key information in light pulses, ensuring secure communication without eavesdropping. The system uses a special laser to send different signals that can be distinguished by the sender and receiver but appear identical to an attacker.
Researchers have made significant breakthroughs in developing practical phonon lasers, which could enable new medical imaging devices and precision measurement tools. Two separate teams, one in the US and the UK, have reported advancements in phonon laser development, using different approaches to overcome technical challenges.
Wim Leemans, a physicist at the U.S. Department of Energy's Lawrence Berkeley National Laboratory, has won the 2009 E.O. Lawrence Award for his pioneering work in developing laser plasma wakefield accelerator technology. The award recognizes his scientific leadership and innovative contributions to advancing accelerator development.
AOptix Technologies successfully completed a two-phase flight test program for the Enhanced Air-to-Ground Lasercom System (EAGLS) Program. The tests demonstrated AOptix's capabilities in Pointing, Acquisition, and Tracking (PAT) and ultra-high bandwidth real-time communications.
A new generation of high-energy lasers has been developed to study fast ignition and high energy density physics. Using the OMEGA EP laser, researchers have demonstrated strong laser-matter coupling with intense 2.1kJ, 15ps laser pulses, enabling significant laser powers to be produced.
A Kansas State University physicist is awarded a National Science Foundation grant to study atomic collisions in ultracold quantum gasses, which could improve experiment design and interpretation. The research has the potential to affect phenomena like superconductivity and quantum computing.
Engineers at NASA's Goddard Space Flight Center use a laser ranging system to track the Lunar Reconnaissance Orbiter (LRO) spacecraft as it orbits the moon. The system provides distance measurements accurate to four inches, improving map accuracy and navigation.
The University of Texas at San Antonio has received a $2.7 million grant from the National Science Foundation to study nanomaterials and their biomedical applications. The research will focus on six areas, including rare earth-based nanoparticles, medical applications, and new materials in biology and neuroscience.
Scientists at National Ignition Facility will focus on limitless energy production through nuclear fusion, a potential game-changer for electricity generation. The symposium aims to advance nuclear chemistry and provide new insights into the universe.
Dr. Charles W. Clendening received the 2009 AIAA Plasmadynamics and Lasers Award for his work on scalable high energy chemical oxide-iodine lasers. He has spent over thirty years developing high power laser technology, previously working for the US Air Force and TRW.
Researchers at NIST have developed a laser ranging system that can pinpoint objects with nanometer precision over distances up to 100 kilometers. The novel LIDAR system combines the best of two approaches and features rapid updates from multiple reference points simultaneously every 200 microseconds.
Scientists create microfluidic system using laser tweezers to test individual cell responses to stress, providing insights into cellular behavior and survival strategies.
A new nanotube-coated power measurement device has been developed at NIST, enabling faster and more accurate calibration of high-power laser systems. The device uses a sprayed-on coating of carbon nanotubes to conduct heat hundreds of times better than conventional materials.
Researchers at Purdue University developed a technique using laser and holograms to precisely position numerous tiny particles within seconds. This potential new tool can analyze biological samples or create devices using nanoassembly.
The Stevens Institute of Technology team will conduct a 24-month research project to develop an image-fused multi-wavelength sensor system for target acquisitions and tracking. The proposed system combines different energy spectrums to produce superior resultant images, increasing the war fighter's lethality.
Engineers at Lehigh University have developed a laser-based technology to detect coal ash buildup in power plants, allowing operators to make rapid adjustments. This innovation uses artificial intelligence to predict ash fusion temperatures and prevent costly downtime.
Researchers developed a new set of non-linear equations that fit both conventional and non-conventional lasers, predicting important properties from simple inputs. This unifying theory solves the long-standing problem in laser physics, providing a substantially broader perspective on laser structures.
Researchers developed a device to measure complex ultrashort light pulses in space and time at the focus of lenses, addressing distortions caused by optical components. The SEA TADPOLE system uses interferometry to determine pulse shape and intensity changes in space and time, enabling accurate correction for aberrations.
Iowa State engineer Terry Meyer is developing high-speed laser-based sensors to capture images of combustion chambers at thousands of frames per second. These sensors record data on pollutants, fuel sprays, and energy release, aiming to reduce pollutant emissions and enable alternative fuels.
Researchers developed an independent measurement system using cameras, microphones, and laser scanners to evaluate the performance of advanced collision warning systems. The NIST technology detected objects within eight-tenths of a meter from up to 60 meters away at speeds of up to 56 mph.
University of Michigan researchers have made a significant breakthrough in accelerating quantum computers by harnessing the power of pulses of light. This innovation has the potential to foil national and personal security threats by rapidly deciphering encrypted codes and strengthening information protections.
VictorTango, a Virginia Tech engineering and geography student team, is among semi-finalists competing in DARPA's Urban Challenge for $2 million. Their custom-designed drive-by-wire control system and navigation software enable the vehicle to make driving decisions almost human-like.
Researchers at Kansas State University are developing a new laser-like X-ray source that can capture fast motion in the atomic world. The technology could be used to quickly determine if a suspicious package contains dangerous chemicals.
Researchers at the University of Manchester used a laser scanning system to create a detailed 3D model of dinosaur tracks in Spain. The portable RIEGL LMS Z420i scanner allowed for rapid and high-resolution mapping of the fragile site, preserving important information on dinosaur locomotion.
Researchers have made the first measurements of bat wake fields, revealing a novel lift-generating mechanism. Bat wings are highly articulated and flexible, allowing for greater maneuverability than birds and insects. The findings could lead to the development of more efficient tiny flying machines.
Researchers use digital signal processing methods to eliminate echoes and scatter, enabling high-speed data transfer through the atmosphere. The approach provides fiber optic quality signals for improved air-to-air and ground-to-air communication links.
Researchers at University of Illinois create transistor laser that combines functionality of transistor and laser, enabling new signal mixing and switching capabilities. The device shows promise for replacing wiring with optical interconnects in electronic-photonic integrated circuits.
Scientists at NIST have developed an improved LIDAR system using a frequency comb to measure distance and vibration with high precision. The system resolves common problems with signal noise and dispersion, enabling accurate measurements of up to 1 kilometer away.
A team of researchers at the University of Texas at Austin has created a miniaturized silicon chip that can control laser light, enabling faster data transfer rates in high-performance computing devices. The chip uses silicon photonic crystals to slow down light travel, allowing for modulated transmission of information.
The Virginia Tech team has refined and tested their vehicles, Cliff and Rocky, for the DARPA Grand Challenge. The vehicles will navigate a 150-mile course in the Mojave Desert with no human intervention.
The NIST-F1 clock has been improved to measure time and frequency with unprecedented accuracy, recording an uncertainty of 0.53 × 10-15 seconds per measurement. This achievement is attributed to advancements in laser technology, atomic vapor management, and magnetic field control.
The recipient of the prestigious MacArthur Fellowship will be announced on September 20. The winner, a talented individual in the field of laser technology, will receive a $500,000 grant with no conditions or restrictions.
Loyola Medicine has become the first in the US to implant a new, FDA-approved defibrillator that can signal doctors of patient's irregular heartbeat or device malfunction. This innovation allows for real-time monitoring and early intervention, reducing mortality rates associated with arrhythmia.
Researchers at NIST developed a compact, vertically mounted cavity that eliminates vibrations, allowing for stable laser light with minimal environmental disturbances. The new design outperforms previous systems in size and cost, enabling widespread adoption of precise optical technologies.
The American Academy of Ophthalmology released its June 2005 journal, featuring studies and research on various aspects of ophthalmology. The journal is the world's largest association of eye physicians and surgeons with over 27,000 members.
Mechanical engineers at Purdue University have created micro-channel heat sinks that can cool electronic components, enabling faster performance and better functionality. The devices are being developed to address the growing need for efficient cooling in advanced laser systems, microwave radar, and future computers.
Researchers use genetically engineered flies to demonstrate controlled neural manipulation, offering a promising approach for studying behavior and potentially treating neurological disorders. The system involves triggering molecular lock-and-key interactions with laser light, enabling precise activation of specific nerve cells.
A team of researchers uses the Keck laser system to observe distant galaxies in unprecedented detail, finding that some systems exhibit old stars despite recent mergers. This discovery challenges prevailing theories of galaxy formation and may help explain the existence of large galaxies with little young star population.
Recent advancements in microchip lasers and optics have improved LADAR systems' speed of data acquisition, range accuracy, and reliability. LADARs are now used to generate topographic images, survey large bodies of water, and document construction sites.
A Clemson bioengineer has created a method using laser beams to align cells in a pattern, simulating tissue environments on a small scale. This technology could lead to early detection of cancer, saving lives, by detecting cellular responses to light.
Polar mesospheric clouds have been found to remove nearly all meteoric iron, a process similar to the depletion of the ozone layer. Laboratory experiments and computer modeling revealed that ice particles on the surfaces of these clouds efficiently uptake iron atoms, causing a local depletion in the metal layer.
The National Institute of Standards and Technology (NIST) has verified the accuracy of four world-class optical frequency rulers, a crucial step towards developing ultra-precise atomic clocks. These clocks are expected to be 100 times more accurate than current systems.
Researchers have taken advantage of a newly mounted laser guide star system at UC's Lick Observatory to obtain sharp, twinkle-free images of the faint dusty disks of distant massive stars. The images show that these stars form in the same way as solar-type stars inside a swirling spherical cloud.
Researchers at Cornell University have developed a playable nanoguitar that demonstrates the potential of tiny devices vibrating at extremely high frequencies. The device, made up of silicon strings, can produce audible tones when hit with a laser beam, offering a new approach to electronic circuit design.
REAl Glass has unique qualities useful for creating materials for demanding optical applications. The glass is made from Rare Earth oxides, Aluminum oxide and small amounts of silicon dioxide. It can be used to create efficient power lasers and expand coverage to new wavelengths, making it a promising material for surgical lasers.
Researchers will develop an attosecond laser system to capture electrons in motion, shedding light on atomic behavior and molecular interactions. The system's pulses will last 200 attoseconds, allowing for the first time to measure and probe dynamic processes at the atomic scale.
Scientists have made groundbreaking measurements of upper atmosphere temperatures over the South Pole, revealing a significant discrepancy with global circulation model predictions. The findings suggest that wintertime warming due to sinking air masses is weaker than assumed, leading to extreme cooling in the lower stratosphere.
Penn researchers used laser tweezers to study the strength of ligand-receptor binding in platelets, refining the paradigm of how blood clots form. They found that changes in integrin's ability to bind to fibrinogen are regulated by the cell as an all-or-none phenomenon with only one functional state compatible with binding.
Scientists have successfully synchronized two independent femtosecond lasers to generate a single pulse of light exhibiting properties of both lasers. This breakthrough enables the creation of new shapes of light pulses that could not be achieved individually.
Researchers at Clemson University have developed a new laser imaging system that provides more detailed views of breast tissue than traditional mammograms. The system uses 16 laser points to detect growths not visible on regular mammograms and predict tumor malignancy with high accuracy.
Damodar Pai, John Yanus, and Milan Stolka developed a new photoconductor made from small molecules that turns light into an electrically charged template with near-perfect efficiency. Their innovation led to practical commercial devices for home and office use, making laser printers more durable and affordable.
Gallium nitride is used to produce very bright light emitting diodes and lasers, and very high power transistors that can operate at high temperatures. The technology has potential applications in mobile phone base stations, surgery, and dentistry, promising huge energy savings and CO2 reductions.
The device uses tiny polymer and electrode films to control light transmission, protecting military equipment from disabling laser attacks. It also has potential consumer applications, such as programmable sunglasses and improved cameras.
Researchers at Oregon Stroke Center have successfully treated five stroke patients with laser clot-busting, achieving complete vessel re-opening in some cases. The study aims to examine the safety of the technique and explore its potential as a next wave of acute stroke treatment.
A team of MIT researchers has successfully created an atom amplifier, increasing the intensity of a beam of atoms while maintaining their precise quantum mechanical wave formation. This achievement completes the laser analogy and has significant implications for precision sensors in navigation, geological exploration, and atomic clocks.