Researchers have introduced a revolutionary imaging technology, DEEPscope, that promises to reshape our understanding of the brain. This innovative microscope overcomes the limitations of traditional multiphoton microscopy, enabling deep and wide-field visualization of neural activity at unprecedented resolution.Multiphoton microscopy, a gold standard for deep-tissue imaging, faces significant hurdles. As imaging depth increases, the field of [..]
Read MoreTraditional computers rely on electrons to transmit information, which can limit their processing speed. However, a new frontier in computing is emerging – photonics – which utilizes light for data transmission. A recent breakthrough in 3D integrated photonics has paved the way for a new generation of photonic processors that can tackle complex problems significantly [..]
Read MoreLead exposure is a serious public health concern, particularly for children. Traditional methods for detecting lead exposure can be time-consuming and expensive. This research highlights two promising advancements in lead exposure detection that utilize innovative applications of optics and photonics. The first technique leverages portable X-ray fluorescence (XRF) analyzers. XRF spectroscopy is a non-destructive analytical [..]
Read MoreA groundbreaking discovery has the potential to revolutionize non-invasive medical diagnostics. Researchers have harnessed the power of orbital angular momentum (OAM) light to improve imaging and data transmission through biological tissues. OAM light is a special light beam with a unique spatial structure, often described as a “twisted” light beam. Unlike traditional light beams, it [..]
Read MoreChalcogenide glasses, composed of elements like sulfur, selenium, or tellurium, are emerging as a promising material for infrared (IR) optics. These glasses offer unique properties, including transparency in the IR spectrum and the ability to be tailored for specific applications. Recent research has unveiled an extraordinary property of chalcogenide glasses: self-healing chalcogenide glasses. These glasses [..]
Read MoreContactless hand biometrics, a technology that captures 3D images of hands for identification purposes, has gained significant attention in recent years. While it offers the potential for more secure and convenient authentication, its application in forensic investigations is still in its early stages. A recent study has highlighted the limitations of contactless hand biometrics in [..]
Read MoreA new technique has been developed to improve illumination uniformity in direct-drive inertial confinement fusion. This technique is more efficient than previous methods and can be applied to other pellet geometries and at other facilities. Inertial confinement fusion is a fusion power that uses lasers to compress and heat a target fuel pellet, causing it [..]
Read MoreA groundbreaking study introduces a revolutionary technique for noninvasive, high-resolution imaging through highly scattering media. Researchers developed this method, which leverages computational holography to overcome the limitations of traditional optical imaging. The key innovation lies in using computational optimization to emulate wavefront shaping experiments. By optimizing multiple “virtual SLMs” simultaneously, the researchers could reconstruct high-quality [..]
Read MoreA recent study has shed new light on the early stages of substance use. Researchers used a specialized type of MRI, called neuromelanin-sensitive MRI, to examine the brains of young adults who had a history of extensive alcohol and drug use. Neuromelanin is a pigment in certain brain areas, including the midbrain, where dopamine is [..]
Read MoreMetasurfaces, a class of artificially engineered materials, have revolutionized the field of optics by offering unprecedented control over light at the nanoscale. However, until recently, metasurfaces faced limitations in achieving asymmetric optical responses, where the behavior of light differs depending on its direction of incidence. A team of researchers has successfully overcome this hurdle by [..]
Read MoreOptical tweezers are powerful tools that use light to trap and manipulate microscopic objects. They have a wide range of applications in biology and medicine, but current integrated optical tweezers have limitations. New research discusses a new approach that uses integrated optical phased arrays (OPAs) to overcome these limitations. The OPA system can trap and [..]
Read MoreEvent-based cameras, also known as neuromorphic sensors, have garnered significant attention in machine vision due to their energy efficiency and high temporal resolution. However, a critical limitation has hindered their widespread adoption: their inability to capture information on the edges of objects parallel to the camera’s motion. This issue can significantly impact the performance of [..]
Read MoreMid-infrared (Mid-IR) fiber lasers and amplifiers have gained significant attention due to their potential applications in various fields, including spectroscopy, sensing, and materials processing. However, the efficient coupling of pump light into these Mid-IR fibers remains a critical challenge. Traditional pump combiners often involve complex fabrication processes and can suffer from low coupling efficiencies. New [..]
Read MoreHave you ever wondered why some people are tall, and others are short? Scientists have been chipping away at this question for decades, and a new study has shed new light on the genetics that influence human height. This study employed a powerful whole-genome sequencing technique to pinpoint rare genetic variations associated with height. Whole-genome [..]
Read MoreResearchers have developed a wearable device that uses light to kill bacteria in chronic wounds. The ACEL mPDT device is powered by the wearer’s movements and designed to be safe and effective for treating wounds infected with MRSA. The device is made of a flexible material that conforms to the body. It contains a hydrogel [..]
Read MoreIn a groundbreaking collaboration, researchers developed a novel fluorescent 3D printing process incorporating fluorescent ring-shaped molecules. This innovation can potentially revolutionize the field of biomedical implants by creating intricate, glowing structures that are easier to track and monitor within the body. The team combined their expertise in engineering and chemistry to create a technique that [..]
Read MoreA team of researchers has developed a promising new method for measuring stroke risk. This non-invasive device, which uses speckle contrast optical spectroscopy for early stroke detection, akin to a cardiac stress test, could revolutionize stroke care by enabling early detection and prevention. Strokes, a leading cause of neurological disability, occur when blood flow to [..]
Read MoreNew research describes a new, fast, all-optical 3D photoacoustic scanner for clinical vascular imaging. The scanner uses a novel photoacoustic tomography (PAT) technique to capture high-resolution 3D images of microvasculature within a few seconds or even milliseconds. This innovation paves the way for significantly faster imaging compared to conventional methods. The scanner’s core lies in [..]
Read MoreGenerating laser light in the green spectrum has traditionally been challenging due to the limitations of conventional laser designs. This spectral region, known as the green gap, lies between the more easily achievable red and blue wavelengths. A recent study presents a groundbreaking technique for overcoming this hurdle. Researchers have successfully employed Kerr optical parametric [..]
Read MoreIn integrated photonics, achieving high-coherence parallelization is a topic that has garnered significant interest. A new study presents a novel approach to accomplishing this feat. The researchers leverage self-injection locked microcombs to injection lock distributed feedback (DFB) lasers. This ingenious strategy paves the way for creating high-coherence channels boasting linewidths as low as 10 Hz [..]
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