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The CMS experiment at the LHC compared collisions of oxygen-16 and neon-20, showing for the first time that neon-20's bowling-pin-shaped deformation leaves a distinct imprint on collective flow. The findings point to a new way of using particle accelerators to 'image' nuclear shapes, while an unresolved discrepancy in triangular flow remains.
Christof Koch, who has led consciousness research for 30 years, now proposes that consciousness may not be something the brain produces but a fundamental property of reality itself. In a yet-unpublished essay, he links analytic idealism to Integrated Information Theory and calls for a reexamination of materialist assumptions.
During peak summer, when annual sunlight is at its strongest, solar panel efficiency can actually decline. This article explains the physical property known as the "temperature coefficient," which causes output to drop by 0.4–0.5% for every degree above the 25°C baseline, the specific voltage-drop mechanism behind it, and why manufacturers' 25°C standard differs from real-world operating conditions.
MIT researchers have demonstrated a room-temperature source of correlated microwave signals by combining a magnetic thin film with a printed circuit board resonator. By exploiting the nonlinearity of magnets instead of superconducting circuits, the device could free quantum radar and noise-resistant communication from the constraints of ultracold cryogenics.
A research team at TU Graz has succeeded in deliberately extracting oxygen atoms from the crystal lattice of lithium titanate, activating lithium-ion diffusion pathways even in the uncharged state. By controlling ion conduction purely through lattice "defects" without altering the chemical composition, this approach challenges long-held assumptions in battery material design.
In water-based zinc-ion batteries, protons have long been excluded as the 'cause of performance degradation.' Now, by having amine groups on a 2D MOF electrode accept protons in a voltage-dependent manner, researchers achieved both a capacity of 368.7 mAh/g and 16-fold faster charge/discharge. KAIST has demonstrated a new strategy that controls the 'sequence' of ion storage through molecular design.
A University of Tokyo research group has used adjacent atomic columns in a silicon crystal—spaced 136 pm apart—as a natural double slit, publishing in Nature an interferometric measurement that shrinks Young's experiment by a factor of 10 million. By reading the visibility of the interference fringes, the method quantifies the stiffness of atomic bonds and their correlated thermal vibrations, potentially offering atomic-level insight for heat-dissipation design in semiconductors.
As AI chip TDPs exceed 1 kW and liquid-cooling adoption jumps from 6% to 53% in three years, thermal management has replaced raw performance as the top constraint in semiconductor design. From imec's STCO research to Samsung's zHBM concept and KAIST's AI design agents, here's a look at the front lines of the battle against heat.
Kyoto University associate professor Akitoshi Kawamura has proven the 'density 5/6 conjecture' for pinwheel scheduling, a problem posed in 1993. Using a 'folding' operation that extends periods to real numbers, he reduced an infinite problem to a finite one and verified 61,616 instances by exhaustive computer search—a method also applied to settle the optimal bound of 1.264... for the covering variant.
Researchers at the Hebrew University of Jerusalem used millisecond light pulses to instantly heat a bismuth oxide thin film to about 2,000°C while keeping the underlying glass below 100°C, locking in a metastable beta phase at room temperature. Photocurrent rose by up to 50 times. The reversible phase-switching this achieves on transparent conductive glass was previously unreachable with furnace heating.
