
Researchers have shown that chip-based biosensor devices that identify or evaluate chemicals have significantly improved. The accomplishments lay the foundation for highly sensitive portable integrated optofluidic sensing devices that could conduct different medical tests simultaneously, even if they involve very different bioparticles at different concentrations, like viral particles and DNA. Researchers gave an optofluidic chip-based [..]
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By merging terahertz (THz) spectroscopy with real-time monitoring, scientists are putting forth a ground-breaking strategy to speed up the discovery of new materials. Electromagnetic waves, known as terahertz waves, can expose the mysteries of matter. They are capable of capturing quick changes in materials that are hidden from other radiation kinds. Scientists can now utilize [..]
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The gold-standard technique for determining the quantity of replication-competent lytic virions, the plaque assay, necessitates staining and typically takes longer than 48 hours to complete. Researchers have demonstrated how deep learning and lens-free holographic imaging may be used to speed up and automate the test. The small imaging device measures the amount of infected tissue [..]
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According to studies, blood biomarkers can enhance risk prediction for twelve illnesses over utilizing genetics alone. The study shows that ‘metabolomic’ risk scores created from these blood markers are often better disease risk indicators than genetic data alone. The study used over 200 biomarkers gathered from around half a million people across three large-scale biobanks. [..]
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The “breathing,” or mechanical vibration that occurs between two layers of atoms, has been harnessed by a research team to create a new quantum technology building block. The research team found that by examining the type of light that those atoms released when triggered by a laser, they could identify atomic breathing or the mechanical [..]
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With the powerful imaging technology of in-vivo corneal confocal microscopy, researchers and doctors may now view the microstructures at the ocular surfaces in great detail. The cornea, a transparent dome-shaped tissue that makes up the front of the eye, is particularly densely innervated with sensory nerves. A method that can image corneal microstructures at various [..]
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In addition to a large global network of communication cables, the ocean’s depths are home to a rich ecosystem of marine animals. These vital wires are susceptible to damage from earthquakes and tsunamis. Scientists that track this seismic activity encounter a hurdle since the Earth’s surface is more than 70% water. However, the wires present [..]
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Retrospective cohort research found that an AI-driven automated optical coherence tomography angiography (OCTA) review system accurately predicted the development of diabetic macular ischemia (DMI) by more than 90%. At baseline, the DMI of the superficial capillary plexus more than quadrupled, and the DMI of the deep capillary plexus more than tripled the risk of diabetic [..]
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Researchers have found a brand-new, inexpensive material that may be used to create thermal imaging lenses, opening up advanced manufacturing uses for this potent technology. Many sectors employ thermal and infrared imaging, including defense, security and surveillance, medical and electrical engineering, space exploration, and autonomous vehicle operation. However, the materials are expensive and must be [..]
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An innovative low-temperature technique for 3D printing optical-grade glass has been created by a research team, paving the way for microelectronic devices with high-resolution visible-light nanophotonics capabilities. High-precision optics and microelectronics might allow new navigation, communications, remote sensing technologies, and other applications. The materials that make up those platforms would be harmed by the high-temperature [..]
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Researchers have developed the first flexible, transparent augmented reality (AR) display screen using 3D printing and inexpensive materials. Creating the new display screen is expected to improve the usage of augmented reality in several fields and applications. By superimposing digital material over the physical world, augmented reality (AR) technology improves how users see and interact [..]
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Scalable photonic quantum computing architectures require photonic processing devices. Such platforms rely on low-loss, high-speed, reconfigurable circuits and near-deterministic resource state generators. In a new report, a research team has developed an integrated photonic platform with thin-film lithium niobate. The scientists integrated the platform with deterministic solid-state single photon sources using quantum dots in nanophotonic [..]
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Over the past ten years, computational imaging has made significant advancements. The method combines cutting-edge hardware and algorithms to create photos that conventional cameras can’t catch. Researchers have created a revolutionary method called sparse holography that converts two-dimensional holograms into three-dimensional images using computational imaging techniques. They created a set of algorithms and techniques to [..]
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An innovative endoscopic imaging system with a design that could speed up the deployment of multi-tracer fluorescence-guided surgery (FGS) was described by a research team. The unique hexa-chromatic bioinspired imaging sensor (BIS), which the researchers based on the visual system of the mantis shrimp, is at the core of this design. The sensor consists of [..]
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The tiny visual systems of flying insects have inspired researchers to develop optoelectronic graded neurons for perceiving dynamic motion, enriching the functions of vision sensors for an agile response. With excellent energy efficiency, biological visual systems can accurately detect motion in a complex environment. In particular, flying insects can see objects moving quickly and have [..]
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Researchers have created a brand-new category of integrated photonic devices called “leaky-wave metasurfaces” that can transform the light that was once constrained in an optical waveguide into any optical pattern in free space. These devices’ simultaneous control of all four optical degrees of freedom—amplitude, phase, polarization ellipticity, and polarization orientation—is a global first. The devices [..]
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With the aid of colloidal quantum dot technology, scientists have achieved tremendous advancements in developing high-intensity light emitters, producing dual-function devices with previously unheard-of brightness levels. This development puts practical quantum dot laser diodes closer to reality and has potential applications in integrated electronics, photonics, and medical diagnostics. To create high-intensity light emitters that are [..]
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A research team has put forth a new approach to controlling dispersion. Using a single metasurface device created with a unique lens model, they could control the dispersion and create an ultra-thin spectrometer with a nanoscale resolution. The new lens design used in this method, which enables both wavelength splitting and light focusing, makes it [..]
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A well-known incoherent digital holography method is Fresnel incoherent correlation holography (FINCH). In FINCH, a light source divides into two beams of light that are then modified variably by two diffractive lenses with various focal distances and interfered with, creating a self-interference hologram. The hologram recreates the picture of the object at various depths via [..]
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As a replacement for intrusive glucose detection technology, the combination of mid-infrared and photoacoustic spectroscopy has shown significant advancements. A dual single-wavelength quantum cascade laser system has been developed using photoacoustic spectroscopy for noninvasive glucose monitoring. As test models for the setup, biomedical skin phantoms with characteristics similar to human skin have been created using [..]
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