Perched atop a seven-story building at the U.S. Department of Energy’s Brookhaven National Laboratory, the “Quantum Lighthouse” is a key pillar of the free-space optical (FSO) link spanning Brookhaven Lab, the State University of New York at Stony Brook and Yale University.
Space & AstronomyTechnology & Innovation#Brookhaven National Laboratory#astronomy#astrophysics#advanced materials#innovation#NSF–DOE Vera C. Rubin Observatory
DOE’s Brookhaven National Laboratory will lead one of the newly funded Quantum Outpost projects, called “Quantum Information Signatures at Colliders,” in collaboration with the University of Pittsburgh.
Particle PhysicsTechnology & Innovation#Brookhaven National Laboratory#Particle Physics#High Energy Physics#advanced materials#innovation
A partnership spanning chemistry, engineering, and quantum device design has yielded a millisecond-coherent transmon, proving that smarter materials may hold the key to the next quantum leap.
Space & AstronomyTechnology & Innovation#Brookhaven National Laboratory#astronomy#astrophysics#advanced materials#innovation
NSF transformed materials science from isolated research efforts into a powerful scientific enterprise that drives innovation across industry and everyday life
Medical ResearchTechnology & Innovation#U.S. National Science Foundation#Science Matters#medical research#clinical research#advanced materials#innovation
Brookhaven National Laboratory and PsiQuantum today announced a collaboration that will leverage PsiQuantum’s software platform “Construct” to support Brookhaven Lab scientists.
Technology & Innovation#Brookhaven National Laboratory#advanced materials#innovation
Researchers will develop an AI model to accelerate electric grid expansion planning with optimal accuracy, affordability, and efficiency in operations.
Energy InfrastructureTechnology & Innovation#Brookhaven National Laboratory#grid#energy security#advanced materials#innovation
Researchers have successfully transmitted light particles containing quantum information through open air between Brookhaven Lab and Stony Brook University.
Space & AstronomyEnergy InfrastructureTechnology & Innovation#Brookhaven National Laboratory#astronomy#astrophysics#grid#energy security#advanced materials#innovation
A University of Nebraska–Lincoln researcher is leading a team contributing to the U.S. Department of Energy’s Genesis Mission, an ambitious effort to build the world’s most powerful integrated science discovery platform.
News & InformationUncategorizedTechnology & Innovation#University of Nebraska–Lincoln#computing#News & Information#Uncategorized#advanced materials#innovation#Brookhaven National Laboratory
Quantum sensors can measure physical properties thousands of times more precisely than current methods, advancing fields including medicine, defense, navigation, energy and manufacturing
Space & AstronomyMedical ResearchTechnology & Innovation#U.S. National Science Foundation#Science Matters#astronomy#astrophysics#medical research#clinical research#advanced materials#innovation
Michele Simoncelli’s group introduces a new benchmark to evaluate how well machine learning models for atomic interactions translate quantum characteristics into macroscopic physical properties.
Researchers from the Ningbo Institute of Materials Technology and Engineering (NIMTE) of the Chinese Academy of Sciences (CAS), in collaboration with researchers from the Technical Institute of Physics and Chemistry of CAS, have developed a coumarin-linked covalent organic framework (COF) that enables high-efficiency photocatalytic water splitting for hydrogen production. The study was published i
Technology & InnovationGreen Energy#Chinese Academy of Sciences#Research News#Green Energy#advanced materials#innovation
Michele Simoncelli’s group introduces a new benchmark to evaluate how well machine learning models for atomic interactions translate quantum characteristics into macroscopic physical properties.
Micro-electromechanical systems (MEMS) are tiny devices used in technologies such as microphones, accelerometers, and biosensors. MEMS are highly useful, but prone to physical stress that affects their performance, stability, and reliability. Tracking this interference is important, but attaching a separate sensor to such a miniscule structure is no easy task. Researchers at Tohoku University deve
From targeted cancer treatments to self-healing materials and microscopic robots, many emerging technologies depend on molecules that can be controlled with light. Researchers at Tohoku University have now developed a way to make these light-responsive molecules much more sensitive to visible light by using a molecular antenna. The breakthrough gives scientist better control over molecular photosw
Medical ResearchTechnology & Innovation#Tohoku University#Research Releases#medical research#clinical research#advanced materials#innovation
Topological quantum materials combine unusual electronic states with properties such as magnetism or superconductivity, offering possibilities for future electronics and quantum technologies. Researchers at Tohoku University have now shown that changing the number of layers in a crystal can provide a systematic way to design topological magnets. The strategy builds on homologous series, families o
Medical ResearchTechnology & Innovation#Kennesaw State University#research#News Releases#medical research#clinical research#advanced materials#innovation
Industry had the floor at Materials and Manufacturing Innovation Days (M2IND), where more than 350 leaders from industry, government and the research community gathered on Aug. 19–20 at the Department of Energy’s (DOE) Oak Ridge National Laboratory (ORNL). Discussions focused on barriers slowing the deployment of advanced manufacturing technologies and on how national laboratory capabilities and p
Energy InfrastructureTechnology & InnovationEnergy Policy#Oak Ridge National Laboratory#grid#energy security#advanced materials#innovation#energy policy
