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Compact magnetometer innovation enables ultra-sensitive detection in high magnetic fields

A research team from the Hefei Institutes of Physical Science of the Chinese Academy of Sciences has developed a compact dynamic cantilever magnetometer with a diameter of just 22 mm, achieving magnetic moment sensitivity on the order of 10-17 A·m2.

“This breakthrough fills a technological gap in ultra-sensitive magnetic measurements for small, low-dimensional materials under ,” said Prof. Wang Ning, a member of the team.

The study was published in Review of Scientific Instruments.

AI Isn’t A Revolution—It’s A Productivity Engine

At Phobio, well-implemented AI hasn’t just made us faster—it’s made us sharper, more creative and more strategic. When routine tasks are streamlined, people have time to think deeply about customers, competition and innovation.

Closing Thoughts

AI isn’t coming to take your job. But someone who knows how to use it might.

Cambridge Physicists Pioneer Atomically-Thin Quantum Magnetic Sensors

Cambridge researchers created a quantum sensor using hBN, offering improved magnetic field detection over diamond-based sensors with new imaging possibilities. A team of physicists at the University of Cambridge has achieved a major breakthrough in quantum sensing by showing that spin defects in

“40% More Hydrogen From Sunlight”: Scientists Unleash Breakthrough Method That Could Reshape Global Green Energy Forever

IN A NUTSHELL 🌞 Solar hydrogen generation could revolutionize clean energy by converting sunlight into hydrogen fuel. 💡 Researchers discovered that elevating electrolyte temperatures boosts bismuth-vanadate electrode activity by 40%. 🔍 The study provides new insights into how temperature affects solar water splitting and metal-oxide cell performance. 🚀 Advancements in this field may accelerate the

New measurement of the mass of the Z boson from the Large Hadron Collider

The LHCb experiment has taken a leap in precision physics at the Large Hadron Collider (LHC). In a new paper submitted to Physical Review Letters and currently available on the arXiv preprint server, the LHCb collaboration reports the first dedicated measurement of the Z boson mass at the LHC, using data from high-energy collisions between protons recorded in 2016 during the collider’s second run.

The Z boson is a massive, electrically neutral particle that mediates the weak nuclear force—one of nature’s fundamental forces. With a mass of about 91 billion electronvolts (GeV), it ranks among the heaviest known elementary particles.

Discovered at CERN more than 40 years ago, alongside the W boson, the Z boson played a central role in confirming the Standard Model of particle physics—a breakthrough that led to the 1984 Nobel Prize in Physics. Measuring its mass precisely remains essential for testing the Standard Model and searching for signs of new physics.

“Lasers Just Got Unstoppable”: Quantum Trick Turns Chaotic Light Into Ultra-Stable Beams That Break the Rules of Modern Physics

IN A NUTSHELL 🔬 Researchers have developed a groundbreaking method to convert noisy lasers into stable beams using nonlinear optical fibers and spectral filters. 📉 This innovative technique achieves noise levels 30 times lower than traditional laser beams while maintaining high intensity. 💡 The discovery enables the production of intensity-squeezed light, reducing photon variation beyond

Breakthrough in search for HIV cure leaves researchers ‘overwhelmed’

A cure for HIV could be a step closer after researchers found a new way to force the virus out of hiding inside human cells.

The virus’s ability to conceal itself inside certain white blood cells has been one of the main challenges for scientists looking for a cure. It means there is a reservoir of the HIV in the body, capable of reactivation, that neither the immune system nor drugs can tackle.

Now researchers from the Peter Doherty Institute for Infection and Immunity in Melbourne, have demonstrated a way to make the virus visible, paving the way to fully clear it from the body.

The heaviest proton emitter: New type of atomic nucleus discovered

For the first time in almost 30 years, the heaviest nucleus decaying via proton emission has been measured. The previous similar breakthrough was achieved in 1996.

The radioactive decay of atomic nuclei has been one of the keystones of nuclear physics since the beginning of nuclear research. Now the heaviest nucleus decaying via proton emission has been measured in the Accelerator Laboratory of the University of Jyväskylä, Finland. The was written as part of an international research collaboration involving experts in theoretical nuclear physics and published in Nature Communications on 29 May 2025.

“Proton emission is a rare form of radioactive decay, in which the nucleus emits a proton to take a step toward stability,” says Doctoral Researcher Henna Kokkonen from the University of Jyväskylä