Quantum Networkpowered by

searchSubscribe

Quantum Network

News, research, careers and the quantum industry, in one place.

Explore

Editorial
Research Hub
Events
Opportunities
About Us

Community

Join the Community
Learning Resources
Contact Us

Contact

A-307, Kailash Business Park,
Vikhroli (W), Mumbai – 400079

[email protected]

Newsletter
India Quantum Pulse

DOE’s Argonne Lab gets $1M to link quantum sensors to particle physics | Quantum Network

Quantum Networkpowered by

searchSubscribe

ECOSYSTEM·Aug 18, 2026·1 MIN READ

DOE’s Argonne Lab gets $1M to link quantum sensors to particle physics

Argonne’s $1 million project merges quantum information science with particle physics, developing diamond-based sensors.

Source

Quantumzeitgeist

Author: Physics News

Published Aug 18, 2026

Summarised/rewritten with AI from Quantumzeitgeist

Read original articlearrow_forward

Argonne’s $1 million project merges quantum information science with particle physics, developing diamond-based sensors.

PHYSICSQUANTUM SENSORSDIAMOND MATERIALSNV CENTERSPARTICLE PHYSICS

Report a problem / takedown

ABOUT THIS STORY

Source: Quantumzeitgeist
Published: Aug 18, 2026
Category: ECOSYSTEM

Read original articlearrow_forward

More from Quantum Network

Relativistic Heavy Ion Collider Can Test Detector Coherence

Relativistic Heavy Ion Collider Can Test Detector Coherence

Testing Lorentz invariance violation (LIV) is notoriously difficult, as its characteristic energy scale typically lies beyond current experimental reach. Applying this to the polymer-quantized scalar field theory, results show detector’s quantum coherence exhibits a pronounced dependence on rapidity and undergoes a sharp transition near a critical rapidity, a value within reach of existing facilities like the Relativistic Heavy Ion Collider.

Aug 15, 2026

WSe2 bilayers reveal quantum photocurrent linked to single dopants

WSe2 bilayers reveal quantum photocurrent linked to single dopants

Researchers linked a measurable photocurrent in WSe2 bilayers to individual dopants, revealing how localized fields impact charge separation.

Aug 15, 2026

Wikipedia details Von Neumann expanded Koopman’s 1931 Hilbert-Space work

Wikipedia details Von Neumann expanded Koopman’s 1931 Hilbert-Space work

Hilbert-space techniques are used for both quantum theory and classical physics, with the Koopman–von Neumann formulation and the method of “classical” wave functions being important examples. In 1931, Bernard Koopman published a paper outlining a method for identifying functions representing observables as vectors in Hilbert space, and in 1932, John von Neumann published follow-up papers further developing this method.

Aug 13, 2026

South China Normal University Achieves Sensing Beyond Exceptional Points

South China Normal University Achieves Sensing Beyond Exceptional Points

Researchers at South China Normal University, including those from the School of Physics in Guangzhou and the School of Electronic Science and Engineering in Foshan, achieved quantum sensing beyond exceptional points via a hidden symmetry-protected vacuum-noise fixed point. This work involved the Guangdong Provincial Engineering Research Center for Optoelectronic Instrument, and the Quantum Science Center of Guangdong-HongKong-Macao Greater Bay Area(Guangdong), Shenzhen.

Aug 7, 2026

Quantum Network

News, research, careers and the quantum industry, in one place.

Explore

Editorial
Research Hub
Events
Opportunities
About Us

Community

Join the Community
Learning Resources
Contact Us

Contact

A-307, Kailash Business Park,
Vikhroli (W), Mumbai – 400079

[email protected]

Newsletter
India Quantum Pulse