Structural properties as a research area focuses on the characterization, quantification, and modeling of how the arrangement and connectivity of components within a system determine its behavior and performance. This includes investigating geometric, topological, and symmetry-related attributes in materials, molecules, biological assemblies, or engineered structures, and relating these features to mechanical, electronic, optical, or functional responses. Research typically integrates experimental probing (e.g., diffraction, microscopy, spectroscopy) with theoretical and computational methods (e.g., continuum mechanics, graph theory, atomistic simulations) to establish structure–property relationships that enable prediction, optimization, and rational design of systems with targeted structural performance.
The genomes of phages—viruses that infect bacteria—are largely composed of "dark matter": genes that encode proteins whose functions remain unknown. Less than four years ago, a team led by Prof. Rotem Sorek at the Weizmann ...
Cell & Microbiology
Mar 16, 2026
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A team of US researchers has gained new insights into how large protein molecules consistently fold themselves into useful shapes. Using a new approach to fluorescence microscopy, Hoi Sung Chung and colleagues at the National ...
Alzheimer's disease affects millions of people around the world. To study this condition, researchers must peer inside the distinctive environment of the human brain. but for scientists to get the most accurate picture of ...
Molecular & Computational biology
Mar 12, 2026
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13
Most materials, especially metals and ceramics, are crystals. Their atoms are arranged in three-dimensional lattices that repeat the same exact pattern, over and over again. But there's a well-known saying in materials science: ...
Nanophysics
Mar 12, 2026
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Researchers at Utrecht University have quantitatively mapped the three-dimensional structure of photonic supraparticles for the first time. Supraparticles are microscopic spheres composed of thousands of smaller colloidal ...
Nanophysics
Mar 10, 2026
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Blow up a long balloon and two things happen: it gets longer and it gets wider. Now imagine a living cell that inflates itself under enormous pressure and yet only grows longer, never adding width. That is exactly what rod-shaped ...
Cell & Microbiology
Mar 10, 2026
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11
Every time we feel a gentle tap on the skin, specialized nerve cells convert that physical force into an electrical signal the brain can interpret as touch. While scientists have long known that a protein called PIEZO2 acts ...
Molecular & Computational biology
Mar 7, 2026
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28
Scientists at the University of Manchester have discovered that placing magnetic films on atomically thin molybdenum disulfide (MoS₂) fundamentally changes how they lose energy, a finding that could bring 2D‑material spintronics ...
Condensed Matter
Mar 6, 2026
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After decades of intense research, surprises in the realm of semiconductors—materials used in microchips to control electrical currents—are few and far between. But with a pair of published papers, materials engineers at ...
Condensed Matter
Mar 5, 2026
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145
New research from the Department of Energy's Oak Ridge National Laboratory, in collaboration with The Ohio State University and Amphenol Corporation, challenges conventional understanding about controlling heat flow in solid ...
Condensed Matter
Mar 5, 2026
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