Scientists at the Hebrew University of Jerusalem have successfully demonstrated a fully-integrated nanoscale photonic device that can analyze a single fluorescent bacterial cell. Such a unique system could result in the creation of on-chip sensors with the capability of analyzing cells and chemicals in real-time.
Japanese scientists have developed a unique water-repellent nanomaterial that can be wrapped around biological tissue to visualize high-quality images for a longer period of time.
Choosing the right video interface may mean the difference between success and failure for vision system designers. Although the video interface is a small part of the overall vision system, it has a large impact on the cost and usability of the final product.
Researchers have developed a fast and practical molecular-scale imaging technique that could let scientists view never-before-seen dynamics of biological processes involved in neurodegenerative diseases such as Alzheimer’s disease and multiple sclerosis.
Electrical engineers at the University of California San Diego have developed a temperature sensor that runs on only 113 picowatts of power — 628 times lower power than the state of the art and about 10 billion times smaller than a watt.
Liquid water exists in two different forms – at least at very low temperatures. This is the conclusion drawn from X-ray experiments carried out at DESY and at the Argonne National Laboratory in the US. An international team of researchers headed by the University of Stockholm now reports its findings in the Proceedings of the National Academy of Sciences (PNAS).
Scientists have used an ultra-bright pulse of X-ray light to turn an atom in a molecule briefly into a sort of electromagnetic black hole.
A new remote sensing method devised by researchers at the University of Central Florida (UCF) using fluctuations in optical "noise" could one day complement existing technologies to track hidden objects, such as Light Detection and Ranging (LIDAR).
University of Glasgow researchers have developed a layer of graphene that can harvest sunlight to power 'electronic skin,' whose development holds much promise in the fields of prosthetics and robotics.
By substituting a glass surgical needle for the endoscope, a proof-of-concept study in mice has demonstrated technology that might lead to a minimally invasive method for imaging deep brain tissue, one that could provide a better understanding of neurological conditions.
Functional near infrared spectroscopic (fNIRS) imaging (pronounced f-nears) has led to a breakthrough in communication with ALS patients who are "Locked-In," meaning they are in advanced stages of the disease where the brain is conscious and functioning, but they are unable to move any muscles, including the eyes.
Like DNA, ribonucleic acid (RNA) is a type of polymeric biomolecule essential for life, playing important roles in gene processing. Short lengths of RNA called microRNA are more stable than longer RNA chains, and are found in common bodily fluids.
Using fiber optics, University of Central Florida (UCF) researchers have developed a technique to monitor, in real time, the formation of dangerous blood clots during cardiovascular procedures.
Novel needle technology developed at the University of Adelaide (UA) uses a tiny fiber optic camera and infrared light to guide neurosurgeons through dangerous procedures. Computer software connected to the needle can recognize blood vessels and alert the surgeon, preventing a potentially life-threatening bleed.
Marco Snikkers wrapped up our Photonics West 2016 coverage by introducing us to a pixel sensor that acts as an 8-channel spectrometer for biomedical, fluorescence marking, and colorimeter applications, as well as a multi-spectral camera that can monitor specific wavelengths in real-time.
This year at Photonics West, Jason Palidwar with Iridian Spectral Technologies gave us insight into the three optical filtering solutions his company is focusing on in 2016.
The new Fiber-QTM Fiber is a fiber coupled acousto-optic modulator (FCAOM) solution for fiber laser modulation and frequency shifting. These devices can directly control the timing, intensity, and temporal characteristics of the active output from a fiber laser, offering a wider variety of pulse shapes.
At this year’s exhibition, Leonardo DRS’ business development director, Doug VanDover, introduced us to the newest entry in the Tamarisk thermal IR camera family — the Tamarisk precision series
This year at Photonics West, we had the pleasure of speaking with both Chuck Gerlowski and Richard Cyr of Precision Optics Corporation. Watch the video for information on their micro-optics capabilities, micro-optic components, sub-assemblies, and finished devices.
On the last day of the MD&M East exhibition, Chuck Gerlowski with Precision Optics Corporation discussed their micro lenses, micro prisms, and more. These components can be used to design CMOS sensors for imaging systems and illumination systems in medical devices.
Jay Schell of Leonardo DRS tells us about the unique features of the Tamarisk thermal cameras, and how they're used in applications involving integration into UAVs, medical imaging equipment, analytic devices, man-portable imaging devices, robotic ground vehicles, unmanned sensors, security and surveillance, and more.
In this video, Justin Turner from Zygo introduces the ZeGage optical profiler. The system measures precision surfaces of implantable medical devices that require non-contact metrology, such as bone screws and dental implants.
In this video, Precision Optics Corp president Joe Forkey gives us a brief overview of his company and then gives us a closer look at some of the things they featured at their Photonics West booth.
This video gives insight on a dental medical device’s journey from the prototype phase to production. The device needed to be small enough to image rear teeth, robust enough to replace physical impressions, and had to make precision measurements for prosthetics. The process involved complex optics, steps to ensure hygienic sterilization, high resolution 3D imaging, and more. Download the video to see how it was done.
In this video, Chris Bainter introduces the FLIR A6700SC IR (infrared) camera. This camera is ideal for electronics inspection, medical thermography, manufacturing, and non-destructive testing applications. Watch the video to learn about its unique features and specifications.
Piezo electronic drives from Physik Instrumente are ideal for meeting the equipment needs for therapy diagnosis and the administration of medication which impairs the patient as little as possible.
Ross Overstreet of FLIR Systems gives us an introduction to several different cameras. We see a megapixel infrared camera for demanding applications that require high sensitivity, high frame rate, and the optics flexibility; a high performance NIR camera for solar cell testing, medical research, and astronomy; and a low-cost microbolometer camera for entry-level applications.
In this video, Jim Sullivan, director of sales and marketing for Schneider Optics, tells us about his company’s C-mount lenses, emerald ruby lenses, and xenon emerald lenses at Photonics West 2013.