
Deep learning tool to revolutionize microscopy
Researchers have developed a deep learning tool that offers new opportunities for analyzing images taken with microscopes.
Researchers have developed a deep learning tool that offers new opportunities for analyzing images taken with microscopes.
In a new study, researchers have demonstrated a novel and non-invasive way to manipulate cells through microrobotics.
The neural network detects anomalies in medical images more successfully than general-purpose solutions.
Scientists have leveraged artificial intelligence to train computers to keep up with the massive amounts of X-ray data taken at the Advanced Photon Source.
Conquering a chemical challenge to control the structure of a polymer opens a path to better biosensors.
Researchers describe a method they developed for growing tiny “brains on chips” from human cells that enabled them to track the physical and biological mechanisms underlying the wrinkling process.
Using fluoresence images from live cells, researchers have trained an artificial neural network to reliably recognize cells that are infected by adenoviruses or herpes viruses.
Scientists have captured the real-time electrical activity of a beating heart, using a sheet of graphene to record an optical image of the faint electric fields generated by the rhythmic firing of the heart's muscle cells.
A 3D printer that rapidly produces large batches of custom biological tissues could help make drug development faster and less costly.
Researchers have developed a holographic technique that can rapidly reconstruct microscopic images of samples with up to 50-fold acceleration compared to existing methods.
Scientists have developed a new microscopic imaging approach to take a closer look at 3D printing for developing future patient implants, as well as improved disease modelling and drug screening.
Machine learning helps some of the best microscopes to see better, work faster, and process more data.
Scientists at The German Primate Center want to use genetic engineering methods to improve cochlear implants.
Researchers used nanophotonic technology to develop a brain-implantable tool that can aid in the optical imaging of brain activity.
A new method called tensor holography could enable the creation of holograms for virtual reality, 3D printing, medical imaging, and more — and it can run on a smartphone.
We spoke with Prof. Dominic Zerulla, whose company PEARlabs is developing an imaging technique that sets out to push the boundaries once more – by looking at in-vivo nano-scale processes in motion.
Researchers at the Indian Institute of Science and SigTuple Technologies have developed a method to measure hemoglobin levels in small-volume blood samples.
AI is helping researchers decipher images from a new holographic microscopy technique needed to investigate a key process in cancer immunotherapy “live” as it takes place.
Researchers have found a way to use quantum-entangled photons to encode information in a hologram.
Researchers have successfully designed and tested a system for rapid testing of large numbers of potential immunotherapy drugs.
Experiments revealed that TALEN is up to five times more efficient than CRISPR-Cas9 in parts of the genome that are densely packed.
Scientists have discovered a new way to analyse microscopic cells, tissues and other transparent specimens, through the improvement of an almost 100-year-old imaging technique.
Researchers have developed a new method to better understand how nanomedicines interact with patients' biomolecules.
Revealing details of the internal structure of 'mini-brains' could help accelerate drug studies and may offer alternatives to some animal testing.
The open-source system from the 3D printer delivers high-resolution images like commercial microscopes at hundreds of times the price.
Researchers have shown that graphene quantum dots – a form of graphene with applications in both diagnostics and therapy – are biodegradable by two enzymes found in the human body.
Virtual reality software which allows researchers to 'walk' inside and analyse individual cells could be used to develop new treatments for disease.
A new approach using holographic imaging to detect both viruses and antibodies has the potential to aid in medical diagnoses and, specifically, those related to the COVID-19 pandemic.
Scientists have showed that applying "temporal pressure" to the skin of mice can create a new way to deliver drugs.
Researchers have developed an AI algorithm that uses computer vision to analyze tissue samples from cancer patients.
Scientists have developed a technique for visualising the structures of all the brain's blood vessels including any pathological changes.
Researchers demonstrated a methodology that combines the bioprinting and imaging of glioblastoma cells in a way that more closely models what happens inside the human body.
Researchers at the University of Connecticut have developed a lensless microscope that allows an observer to enjoy an enormous field of view.
By adding infrared capability to the ubiquitous, standard optical microscope, researchers hope to bring cancer diagnosis into the digital era.
Researchers have devised a technique that extends the capabilities of fluorescence microscopy, which allows scientists to precisely label parts of living cells and tissue with dyes that glow under special lighting.
Revolutionary material could lead to 3D-printable magnetic liquid devices for the fabrication of artificial cells that deliver targeted drug therapies to diseased cells.
Researchers are pairing a nanoscale imaging technique with virtual reality technology to create a method that allows researchers to “step inside” their biological data.
Artificial organs: researchers are developing a lithography method that relies on light sheet illumination and on special photosensitive hydrogels that are mixed with living cells.
The deep learning algorithm maps active neurons as accurately as humans in a fraction of the time.
Researchers have built a set of magnetic ‘tweezers’ that can position a nano-scale bead inside a human cell in three dimensions with unprecedented precision.
UCLA-led team produces images on a laptop that match the quality of those from high-end equipment.
Cool tools for scientists: Researchers view cells for hearing in 3D using virtual reality