In this article, authors explain the creation of a high quality 3D model of human cranial vault. They also show the benefice of this medication for surgery training, education, and research. The skull models that were presented have the potential to serve as a novel method of understanding cranial anatomy with an emphasis on accuracy, completeness, and visual appeal. It has utility in educational, illustrative, and surgical training purposes. The models provide critical insight into the…"Operative Anatomy of the Human Skull: A Virtual Reality Expedition"
In this article authors present a new calibration method to increase the precision of the position for a Hololens. Using external system combined with embedded SLAM and a “hand‐eye” based approach, it could be possible to lowered uncertainty on Virtual/Real position close to 3 mm. Augmented reality (AR) allows the surgeon to represent holographic patient‐specific anatomical information and surgical instruments on the physical world. To correctly superimpose virtual and physical objects, a hand‐eye calibration method…"A Hand‐Eye Calibration Method for Augmented Reality Applied to Computer‐Assisted Orthopedic Surgery"
In this article, Martijn Roelandse introduces a “mixed-reality Hackathon” hosted by Springer Nature and dedicated to exploration of new uses of AR and VR in sciences. It’s very interesting to see that today, many 3D observations (made with confocal devices for example) are still seen on 2D screens! Immersive technologies could revolutionize it, maybe more fastly then we think. With the arrival of the fifth wave of computing, amazing techniques like artificial intelligence, blockchain and…"How Augmented Reality and Virtual Reality Can Revolutionize Science?"
Google present a great combination between Machine Learning and augmented reality to help pathologists to identify cancers. The presented device is “only” a lightly modified light microscope with real-time analyzing computer. The result is directly displayed in the pathologist field of view. Applications of deep learning to medical disciplines including ophthalmology, dermatology, radiology, and pathology have recently shown great promise to increase both the accuracy and availability of high-quality healthcare to patients around the world.…"An Augmented Reality Microscope for Cancer Detection"
At Novartis, virtual reality is used to understand complex interactions between molecules. It’s a way to facilitate communication between chemist and biologist about drug design and protein’s interactions. Viktor Hornak, an investigator in the Global Discovery Chemistry department at the Novartis Institutes for BioMedical Research (NIBR), is driving an effort to adapt VR tools for use in the drug design process. He and his colleagues recognize a potential for VR to help drug hunters more quickly…"Bringing virtual reality to the lab at Novartis"
With this very impressive installation, Pfizer R&D team explores the complexity of molecular actions in brain (and in 3D!) At Pfizer’s Research & Development hub in Cambridge, Mass., chemists, neuroscientists and other researchers use 3D VisBox technology to visualize and virtually explore the human body at the molecular level. Source: How Virtual Reality Takes Scientists Inside New Molecules (video) | Get Science"How Virtual Reality Takes Scientists Inside New Molecules"
Molecular biology produces huge amounts of data in the post-genomic era. This includes data describing metabolic mechanisms and pathways, structural genomic organization, patterns of regulatory regions; proteomics, transcriptomics, and metabolomics. On the one hand, analysis of this data uses essentially the methods and concepts of computer science; on the other hand, the range of biological tasks solved by researchers determines the range and scope of the data. Integrative Bioinformatics is a new area of research…"From Virtual Reality to Immersive Analytics in Bioinformatics Burlingame, California, 30 Jan 2018"