Mechanical deformation as a research area investigates the response of materials to applied stresses and strains, focusing on the underlying mechanical, microstructural, and thermodynamic processes that govern elastic, plastic, viscoelastic, and viscoplastic behavior. It encompasses experimental, theoretical, and computational studies of phenomena such as dislocation motion, twinning, fracture, creep, fatigue, and strain localization across length scales from atomic to macroscopic. This field supports the development of constitutive models, structure–property relationships, and advanced characterization methods, enabling prediction and optimization of mechanical performance in metals, polymers, ceramics, composites, and biological or complex engineered materials under diverse loading and environmental conditions.
Biological tissues have a remarkable ability to organize and change shape, driven by forces generated by their own cells. One of the major challenges in bioengineering is harnessing this natural behavior to design synthetic ...
Cell & Microbiology
Apr 16, 2026
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A team of researchers has identified atomic distortions that may be linked with high-temperature superconductivity in a promising class of nickel-based materials, offering new insight into how next-generation superconductors ...
Condensed Matter
Apr 2, 2026
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68
Proteins are far more than nutrients we track on a food label. Present in every cell of our bodies, they work like nature's molecular machines. They walk, stretch, bend, and flex to do their jobs, pumping blood, fighting ...
Biotechnology
Mar 27, 2026
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Modern polymer materials face a fundamental challenge: they must remain strong and durable during use, yet ideally degrade when they are no longer needed. Designing materials that satisfy both requirements has long been a ...
Nanomaterials
Mar 25, 2026
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7
For decades, lab-grown cells have been studied in materials that don't reflect the softness and flexibility of human tissue. Now researchers at the University of Colorado Boulder have developed a water-rich, Jell-O-like material ...
Cell & Microbiology
Mar 16, 2026
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13
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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12
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
The unofficial soundtrack of every basketball, squash or hard-court tennis match is the constant high-pitched squeak or shriek of the players' shoes. But can this squeak be designed out of them while retaining the grip?
General Physics
Mar 6, 2026
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29
Imagine a material cracking—now imagine what happens if there are small inclusions in the material. Do they create an obstacle course for the crack to navigate, slowing it down? Or do they act as weak points, helping the ...
Condensed Matter
Feb 19, 2026
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49
Minerals form the building blocks of almost everything on Earth. They are made up of crystals—regular, repeating atomic structures that fit together like a three-dimensional pattern. When minerals deform, their normally ordered ...
Earth Sciences
Feb 12, 2026
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