Remote particle measurement via quantum entanglement
Peer-Reviewed Publication
Updates every hour. Last Updated: 8-Sep-2025 00:11 ET (8-Sep-2025 04:11 GMT/UTC)
Quantum physics keeps challenging our intuition. Researchers at the University of Geneva (UNIGE) have shown that joint measurements can be carried out on distant particles, without the need to bring them together. This breakthrough relies on quantum entanglement — the phenomenon that links particles across distance as if connected by an invisible thread. The discovery opens up exciting prospects for quantum communication and computing, where information becomes accessible only once it is measured. The team has also compiled a ‘‘catalogue’’ classifying different types of measurements and the number of entangled particles required for each. The study is published in Physical Review X.
A new technique enables the use of, for example, cooking oil from fast-food restaurants to dissolve and separate silver. The process requires light and diluted hydrogen peroxide. The technique makes it possible to secure the supply of silver and reduce the burden on the environment.
Led by Assistant Professor Kou Li, a research group in Chuo University, Japan, has developed an all-printable device fabrication strategy to resolve the existing technical limitations of multi-functional image sensor sheets for non-destructive inspections, with a recent paper publication in npj Flexible Electronics.
While photo-thermoelectric (PTE) sensors and their ultrabroadband monitoring facilitate non-destructive testing, their conventional fabrication is insufficient for high-yield integration. Specifically, PTE devices faced challenges in their crucial spatial-misalignment for separate fabrication processes per constituent. Herein, this work demonstrates mechanically alignable and all-dispenser-printable integration of carbon nanotube (CNT) functional PTE sensor devices by designing them with solution-processable ink-materials. This technique first accurately prints CNT channels, essential in PTE conversion, using higher-concentration inks, and integrates remaining constituents (dopants and conductive pastes) into single device structures at high-yield. This work further demonstrates that employing higher-concentration CNT inks, suitable for mechanical channel printing, also designs sensitive PTE sensors. These sensors serve stably as integrated devices on diverse functional substrates, facilitating ubiquitous non-destructive monitoring depending on features. Therefore, this work designs such CNT PTE integrated devices and the associated functional inspection appropriately for structures, sizes, and external environments (e.g., temperature and humidity) of monitoring targets.Scientists from China have developed a breakthrough asynchronous optical computing accelerator based on wavelength encoding. This architecture overcomes synchronization challenges in conventional optical recurrent processors, significantly reducing both the energy consumption of electronic components and the complexity of optical layout design. The chip enables efficient computing for large-scale AI tasks, such as DNA analysis and speech recognition, while achieving high energy efficiency.
POSTECH and Sogang University unveil battery innovation with double the energy density of conventional lithium-ion cells.
Rice University’s Matteo Pasquali has been elected a fellow of The Society of Rheology (SoR). SoR is the world’s leading organization of rheology, the branch of physics that studies the flow and deformation of matter. The society has over 1,400 members with only 0.5% elected as fellows in any given year. Pasquali was recognized for outstanding research contributions and his track record in educating young rheologists and building a strong soft matter cluster at Rice.