Tiny Quantum Sensor to Make Big Impact
Tiny Quantum Sensor to Make Big Impact
Researchers at TMOS, the ARC Centre of Excellence for Transformative Meta-Optical Systems, and their collaborators at RMIT University have developed a new 2D quantum sensing chip using hexagonal boron nitride (hBN) that can simultaneously detect temperature anomalies and magnetic field in any direction in a new, groundbreaking thin-film format.
Novel Diamond Quantum Magnetometer for Ambient Condition Magnetoencephalography
Novel Diamond Quantum Magnetometer for Ambient Condition Magnetoencephalography
A highly sensitive diamond quantum magnetometer utilizing nitrogen-vacancy centers can achieve millimeter-scale resolution magnetoencephalography (MEG), as reported by scientists from Tokyo Tech. The novel magnetometer, based on continuous-wave optically detected magnetic resonance, marks a significant step towards realizing ambient condition MEG and other practical applications.
Wearable Brain Imaging Gives Clearest Ever Picture of Children’s Developing Brain
Wearable Brain Imaging Gives Clearest Ever Picture of Children’s Developing Brain
New research has given the clearest ever picture of young children’s developing brains, using a wearable brain scanner to map electrical brain activity. The work opens up new possibilities for tracking how critical developmental milestones, like walking and talking, are underpinned by changing brain function, and how neurodevelopmental conditions like autism emerge.
Frequency Electronics Awarded Subcontract From Leidos to Develop Advanced Nitrogen Vacancy Diamond Magnetometer for DIU’s Transition Quantum Sensing Program
Frequency Electronics Awarded Subcontract From Leidos to Develop Advanced Nitrogen Vacancy Diamond Magnetometer for DIU’s Transition Quantum Sensing Program
Frequency Electronics, Inc. (“FEI” or the “Company”) (NASDAQ-FEIM), a leading provider of precision timing and frequency technology, today announced it has been awarded a subcontract from Leidos to develop a next-generation Nitrogen Vacancy (NV) Diamond Magnetometer.
DIU’s Transition of Quantum Sensing (TQS) Field Testing to Begin Across Five Critical Areas
DIU’s Transition of Quantum Sensing (TQS) Field Testing to Begin Across Five Critical Areas
In the coming months, the Defense Innovation Unit’s (DIU’s) Transition of Quantum Sensing (TQS) program will demonstrate the military utility of quantum sensors to address strategic Joint Force competencies like positioning, navigation, and timing (PNT), as well as anomaly detection. Significant progress on the scientific understanding and product development of quantum sensors, offering the promise of significant improvements in precision, accuracy, and sensitivity compared to classical sensors, is being made, and these solutions, as well as the supporting companies advancing these technologies, are ready to proceed forward.
Journey of NQM's Quantum Sensing and Metrology Hub with lab grown technologies at IIT Bombay
Journey of NQM's Quantum Sensing and Metrology Hub with lab grown technologies at IIT Bombay
The Photonics and Quantum Sensing Technology Lab at IIT Bombay is ready with some technologies that can give the newly initiated Quantum Sensing and Metrology Hub a kick start into the world of quantum technologies.
PROtotypes of Magnetic Imaging Systems for Europe
PROtotypes of Magnetic Imaging Systems for Europe
PROMISE is a consortium that focuses on the application of Nitrogen Vacancy (NV) in diamond quantum technology for imaging. The aim is to guide the development and use of this mature and promising quantum technology, which is known for its ease of operation. PROMISE leads the NV based quantum imaging sensors to the next level of development building widefield magnetometer prototypes to measure relevant samples into operational environments (TRL7) to foster its market uptake.
Fraunhofer IAF Launches Virtual Application Lab for Quantum Sensing
Fraunhofer IAF Launches Virtual Application Lab for Quantum Sensing
To promote the use of quantum sensors in industry, Fraunhofer IAF has developed a virtual application laboratory for quantum sensing. This innovative information platform provides comprehensive technical knowledge about quantum magnetometers, applications, and measurement scenarios. It also allows interested parties from industry and research to interactively perform sample measurements and assess the potential of this groundbreaking technology for their needs.
Tiny Compasses Could Improve Navigation, Brain Imaging and More
Tiny Compasses Could Improve Navigation, Brain Imaging and More
A team of physicists and engineers at the CU Boulder has discovered a new way to measure the orientation of magnetic fields using what may be the tiniest compasses around—atoms. The group’s findings could one day lead to a host of new quantum sensors, from devices that map out the activity of the human brain to others that could help airplanes navigate the globe. The new study, published this month in the journal Optica, stems from a collaboration between physicist Cindy Regal and quantum engineer Svenja Knappe.
SandboxAQ’s AQMed Reflects on a Year of Scientific and Technical Achievements
SandboxAQ’s AQMed Reflects on a Year of Scientific and Technical Achievements
SandboxAQ is proud to announce a year of exceptional progress and innovation from its AQMed division. Combining artificial intelligence with advanced sensors, AQMed empowers clinicians to make faster and more accurate heart health decisions. This transformative work has been featured in the McKinsey report Quantum Sensing’s Untapped Potential: Insights for Leaders and highlighted by AQMed GM Dr. Kit Yee Au-Yeung during The Economist’s Commercialising Quantum Global 2024 and in the World Economic Forum’s Quantum for Society: Meeting the Ambition of the Sustainable Development Goals. Today, AQMed reflects on its technical milestones that are paving the way for improved patient care.