Proxemics and virtual reality: Study reveals how people regulate social distance in Italy and Japan
Peer-Reviewed Publication
Updates every hour. Last Updated: 22-Oct-2026 08:16 ET (22-Oct-2026 12:16 GMT/UTC)
A study by Sapienza University, the Italian Institute of Technology (IIT), EY and IRCCS Fondazione Santa Lucia used virtual reality to measure interpersonal distance in 184 Italian and Japanese participants. The research was conducted during two major international public events: Expo 2025 in Osaka, Japan, and Maker Faire Rome, Italy. The findings reveal how culture, first impressions and implicit biases shape our personal space. The study has been published in Computers in Human Behavior.
Organic clusters composed of heteroatoms and functional groups have been extensively employed to rationalize the intrinsic luminescence of nonconventional luminophores lacking aromatic structures. Nevertheless, in marked contrast to well-studied metal clusters, their structures and sizes remain poorly delineated, substantially impeding rigorous mechanistic understanding and rational performance optimization. Here, we successfully overcome this limitation by employing 3D-shaped cyclic hydrocarbon scaffolds to confine electron-rich moieties, in analogy to the ligand–metal coordination motif in metal clusters, thereby suppressing inter-cluster extended through-space conjugation (TSC) networks. This strategy enables, for the first time, the construction of organic clusters with a programmable and precisely defined number of electron-rich units (e.g., oxygen atoms). Our findings demonstrate that organic clusters with as few as four oxygen atoms can generate excitation-dependent emission with green afterglow, implying the presence of multiple emissive species with varied TSC even within these well-defined isolated clusters, likely associated with the intrinsic complexity and sensitivity of through-space electronic interactions. This strategy thus establishes a robust platform for excluding impurity-induced emission, precisely identifying organic cluster structures/sizes, and moreover providing a basis for correlating chemical structure, electronic configuration, and photophysical properties in nonconventional luminophores.
Millions of people across the UK marvelled at the spectacular Northern Lights that lit up the night sky in May 2024. But while the display captivated skywatchers, the geomagnetic storm behind it also served as the biggest test in a generation of the UK's preparedness for severe space weather. So did it pass? Unfortunately not, according to scientists from the Space Environment Impacts Expert Group (SEIEG). They identified multiple infrastructure threats that the storm exposed and made 14 recommendations to better protect British electricity supplies, satellites, aviation and other critical infrastructure from future space weather events. The group's findings were presented this week at the Royal Astronomical Society's National Astronomy Meeting in Birmingham by SEIEG Chair Professor Richard Horne, of the British Antarctic Survey.
World-first live demonstration of next-generation technology shows how repurposing scientific infrastructure can track both potentially hostile satellites and hazardous space debris.
Spectral imaging allows materials to be identified without contact, but compact systems often struggle to preserve enough information for accurate reconstruction. Researchers from Zhejiang Normal University, Zhejiang University, and Westlake University have introduced a geometry-driven spectral encoding strategy based on the Euclidean Distance of Encoding space (EDE). Instead of optimizing only the statistical properties of an encoding matrix, EDE directly maximizes the separation between encoded spectral responses in measurement space. The team combined genetic algorithms, automatic differentiation, and transfer-matrix modeling to design manufacturable TiO₂/SiO₂ multilayer thin-film encoders. The resulting system improves reconstruction performance over random, correlation-optimized, and coherence-optimized benchmarks, and enables high-fidelity spectral recovery across the visible to short-wave infrared range. The work establishes a new geometric design paradigm for compact, intelligent computational optical systems.
CAPE CANAVERAL SPACE FORCE STATION, Fla. – The Robotic Servicing of Geosynchronous Satellite (RSGS) payload, on board SpaceLogistic’s Mission Robotic Vehicle (MRV) has successfully launched from Space Launch Complex 40 at Cape Canaveral U.S. Space Force Station at about 5:15 pm on July 21, 2026. It is the first privately owned, operational robotic in-space servicing mission that extends the life and resilience of satellites in geosynchronous orbit (GEO) through on-orbit servicing.