Explore

Rapid Read Rapid Read
Researchers Demonstrate Preservation of Helium-3 Ion Polarization in Laser-Plasma Accelerators

Researchers Demonstrate Preservation of Helium-3 Ion Polarization in Laser-Plasma Accelerators

A team of researchers led by Professor Markus Büscher at Heinrich Heine University (HHU) has successfully demonstrated that the polarization of Helium-3 ions is preserved during laser-plasma acceleration. This breakthrough was achieved using a compact laser-plasma accelerator, which offers a cost-effective alternative to traditional large-scale particle accelerators like those at CERN. The study, published in High Power Laser Science and Engineering, involved generating pre-polarized Helium-3 gas at Forschungszentrum Jülich and transporting it to GSI Helmholtzzentrum für Schwerionenforschung in Darmstadt for acceleration using the PHELIX laser. The preservation of polarization is crucial for various scientific applications, including controlled nuclear fusion, where aligned spins of fusing nuclei can significantly increase reaction probabilities and energy output.
Rapid Read Rapid Read
International Research Team Achieves Record-Low Energy Nuclear Reactions, Advancing Astrophysics

International Research Team Achieves Record-Low Energy Nuclear Reactions, Advancing Astrophysics

An international research team has successfully measured nuclear reactions at extremely low energies for the first time, using the CRYRING@ESR storage ring at GSI/FAIR in Darmstadt. This experiment mirrors the conditions inside stars, allowing scientists to decode the formation of elements in the universe with greater precision. The team managed to lower the energy available for nuclear reactions to 403 kiloelectron volts, marking a new record for low-energy nuclear reactions in a heavy-ion storage ring. The experiment involved nitrogen ions colliding with protons, and the results aligned perfectly with theoretical predictions, demonstrating the effectiveness of the experimental method.
Rapid Read Rapid Read
Oxford Physicists Achieve Breakthrough in Quantum Interaction with Quadsqueezing

Oxford Physicists Achieve Breakthrough in Quantum Interaction with Quadsqueezing

Researchers at the University of Oxford have demonstrated a new kind of quantum interaction using a single trapped ion, achieving a breakthrough in quantum physics. This involves a fourth-order effect known as quadsqueezing, which was previously considered too weak to observe. The method allows for the generation of complex quantum interactions 100 times faster than expected, opening new possibilities for advanced quantum simulation, sensing, and computing. The findings, published in Nature Physics, highlight a new way to engineer these interactions, potentially making them widely useful across various quantum platforms.
Trendline Trendline
ZettaJoule Advances High-Temperature Nuclear Reactor Technology in Texas

ZettaJoule Advances High-Temperature Nuclear Reactor Technology in Texas

ZettaJoule Advances High-Temperature Nuclear Reactor Technology in Texas
Trendline Trendline
Researchers Develop Solar-Powered Trigeneration System for Enhanced Energy Efficiency

Researchers Develop Solar-Powered Trigeneration System for Enhanced Energy Efficiency

Researchers Develop Solar-Powered Trigeneration System for Enhanced Energy Efficiency
Rapid Read Rapid Read
Oxford Scientists Achieve Quantum Effect 100 Times Faster Than Expected

Oxford Scientists Achieve Quantum Effect 100 Times Faster Than Expected

Oxford researchers have achieved a significant milestone in quantum physics by demonstrating quadsqueezing, a complex fourth-order quantum interaction, 100 times faster than previously anticipated. This breakthrough was accomplished by applying two simple linear forces to a single trapped ion, utilizing noncommutativity to amplify the ion's motion and generate a stronger interaction. The method overcomes noise that typically destroys high-order quantum states, opening new possibilities for ultra-sensitive gravitational sensors and advanced quantum computing.
Trendline Trendline
Fusion Energy's Promise and the Necessity of Robust Energy Policy

Fusion Energy's Promise and the Necessity of Robust Energy Policy

Fusion Energy's Promise and the Necessity of Robust Energy Policy
Rapid Read Rapid Read
Fusion Energy Advances with Stable Plasma Achieved in Tokamak

Fusion Energy Advances with Stable Plasma Achieved in Tokamak

A research team led by Professor Xu Guosheng from the Institute of Plasma Physics, Chinese Academy of Sciences, has achieved a significant milestone in nuclear fusion research. The team demonstrated a plasma regime that maintains stability while reducing heat loads on divertor plates in a metal-wall environment. This regime, achieved on the EAST tokamak, involves partial divertor detachment and an edge-localized-mode (ELM)-free high-confinement mode. By controlling the injection of light impurity gases, the team was able to sustain this regime for one minute, marking a major step toward stable, long-pulse fusion operation. The research addresses the challenge of managing extreme heat loads while maintaining plasma stability, a key goal in the pursuit of controllable nuclear fusion.
Trendline Trendline
Commonwealth Fusion Systems Advances Towards Grid-Connected Fusion Power

Commonwealth Fusion Systems Advances Towards Grid-Connected Fusion Power

Commonwealth Fusion Systems Advances Towards Grid-Connected Fusion Power
Rapid Read Rapid Read
Mekorot and nT-Tao Collaborate on Fusion Energy Pilot for Water Infrastructure

Mekorot and nT-Tao Collaborate on Fusion Energy Pilot for Water Infrastructure

Mekorot, Israel's national water company, and nT-Tao, a developer of compact fusion energy systems, have signed a memorandum of understanding to explore the establishment of a research and development center and pilot facility. This collaboration aims to test the application of fusion energy systems in powering critical water and wastewater infrastructure. The initiative seeks to address the high electricity consumption and operational continuity required by modern water facilities, such as desalination and wastewater treatment plants. The pilot facility will enable testing of fusion energy systems under real-world conditions, potentially offering a stable and resilient power source for these energy-intensive operations.
Trendline Trendline
Fragmentation in Small Modular Reactor Designs Challenges Nuclear Scaling

Fragmentation in Small Modular Reactor Designs Challenges Nuclear Scaling

Fragmentation in Small Modular Reactor Designs Challenges Nuclear Scaling
Trendline Trendline
Mekorot and nT-Tao Collaborate on Fusion Energy Pilot for Water Infrastructure

Mekorot and nT-Tao Collaborate on Fusion Energy Pilot for Water Infrastructure

Mekorot and nT-Tao Collaborate on Fusion Energy Pilot for Water Infrastructure