Uviquity Announces World’s First Chip-Scale Deep-UV Laser
(Uviquity: Raleigh, NC) -- Uviquity, a deep-tech company developing integrated photonics for ultraviolet wavelengths, has announced its first product: a chip-scale laser operating at 229 nm.
Teledyne e2v Introduces Compact Imaging Solution for Low-Light Imaging
(Teledyne e2v: Grenoble, France) -- Teledyne e2v, a Teledyne Technologies company and global innovator of imaging solutions, has launched the
Hexagon Manufacturing Intelligence Launches PC-DMIS FUSION
(Hexagon: Stockholm) -- Hexagon Manufacturing Intelligence’s Stationary Metrology division announces the launch of PC-DMIS FUSION.
Astronomers Pin Down the Origins of a Planetary Odd Couple
(MIT News: Cambridge, MA ) -- Across the Milky Way galaxy, a planetary odd couple is circling a star some 190 light years from Earth.
IndySoft Empowers Technicians With Launch of Scales
(IndySoft: Charleston, SC) -- IndySoft, a global leader in calibration and asset management software, has launched IndySoft Scales, a mobile calibration app that’s touch-optimized, voice-enabled, and offline-first.
Covalent Launches Covalent Connect
(Covalent: Sunnyvale, CA) -- Covalent, a leader in advanced materials characterization and analytical services, announces the launch of
Hexagon Laser Technologies Help Aerospace Manufacturers Automate Quality Inspections
(Hexagon: Stockholm) -- Hexagon’s Manufacturing Intelligence Business Area has unveiled new laser-guided solutions that make it possible—in some cases for the first time—to automate inaccessible and large-scale quality inspections
Mapping Molecular Markers of Physical Fitness
(MIT: Cambridge, MA) -- Patterns of molecular activity in the blood may hold clues not only to how fit someone is but also to the biological processes that support physical performance.
Self-Organizing ‘Pencil Beam’ Laser Could Help Scientists Design Brain-Targeted Therapies
Large Image Caption
Under the right conditions, a chaotic mess of laser light can spontaneously self-organize into a highly focused “pencil beam.” This schematic shows the pencil-beam formation mechanism. Image courtesy of the researchers
(MIT: Cambridge, MA) -- MIT researchers discovered a paradoxical phenomenon in optical physics that could enable a new bioimaging method that’s faster and higher-resolution than existing technology.