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Exotic nuclei near and beyond the proton drip line exhibit a range of unique decay processes, including β-delayed proton emission, α decay, and direct proton radioactivity. Spectroscopic studies utilizing high-efficiency, low-threshold detection systems have become essential for exploring the intricate properties of these nuclei.

In research, play a crucial role as their characteristics can provide key clues for revealing the nature of nuclear forces and testing nuclear structure theoretical models. However, due to the extreme rarity and difficulty in measuring these decay processes, related research has always faced numerous challenges.

A research team from the Hefei Institutes of Physical Science of the Chinese Academy of Sciences has developed a novel large-scale compound cryopump (multi-stage cryopump) capable of separating fuel particles from helium ash.

Designed to meet the demanding requirements of radiation resistance and efficient gas handling, the cryopump features an innovative structural configuration and utilizes a new fabrication technique. The researchers developed a process for bonding activated charcoal to cryogenic panels using an inorganic cryo-adhesive, ensuring long-term stability under . The full-scale prototype measures 1.2 meters in diameter, includes a 0.58-meter valve opening, and weighs 4 tons.

Cryopumps based on adsorption technology are widely recognized as essential components in systems. They offer large pumping speeds, broad temperature tolerance, and strong resistance to harsh electromagnetic and nuclear conditions. These capabilities are critical for the removal of unburned and helium ash—key to maintaining plasma stability and enabling sustained fusion reactions.

Physicists propose that high-energy photon jets from collapsing stars may be secret factories of heavy elements like plutonium, challenging traditional theories and possibly explaining strange cosmic glows and metal traces in Earth’s crust. One of the biggest unanswered questions in physics is ho

Two new research studies explore how a stellar nursery in the heart of the Milky Way is affected by the region’s strong magnetic fields. Despite decades of research, the process of how stars form is still filled with unanswered questions. Because stars create nearly all the chemical elements in the

Carnegie Mellon researchers have used FRESH 3D bioprinting to create the first collagen-based microphysiologic systems, offering new hope for Type 1 diabetes treatment. Collagen is widely recognized for its role in maintaining healthy skin, but its importance extends far beyond that. As the most

Researchers at EPFL have made a breakthrough by storing and manipulating digital data using charge-free spin waves, moving toward greener, faster computing. Their latest discovery reveals that hematite, a common iron oxide, behaves in a way never before seen in magnetic materials, supporting two

Atomic-scale imaging reveals that chalcogen atoms play a crucial role in Cooper pairing in Fe-based superconductors, offering new insights into high-Tc superconductivity mechanisms. Superconductivity in quantum materials, whether the Cooper pairing on the Fermi surface is mediated by phonons or b

A novel approach that re-examines observational data without relying on prior assumptions, using the framework of lattice QCD, provides strong evidence for a positive gluon spin, ∆g. For decades, researchers have sought to unravel the complex structure of the subatomic world. One particularly cha

Noninvasive therapy seeks to enhance focus and behavior by gently stimulating a nerve associated with attention and executive functioning. Researchers at UCLA Health are initiating the first clinical trial to determine whether a wearable device that provides gentle nerve stimulation during sleep

A giant object that has been lurking in the relative galactic vicinity of the Solar System this entire time has just been unmasked in all its enormous, invisible glory.

Just 300 light-years away, at the edge of the Local Bubble of space, astronomers have discovered a huge, crescent-shaped cloud of molecular hydrogen, the basic building block of everything in the Universe.

It’s the first time scientists have managed to discover molecular material in interstellar space by looking for the glow of far-ultraviolet light. Its discoverers have named the cloud Eos, after the ancient Greek goddess of the dawn.