Page 3: Research news on Polymer behavior

Polymer behavior as a research area examines how polymeric materials respond to external and internal stimuli across multiple length and time scales, integrating polymer physics, chemistry, and materials science. It encompasses the study of chain conformation, segmental dynamics, entanglements, and relaxation processes, as well as phase behavior, crystallization, glass transition, and viscoelasticity in melts, solutions, gels, and solid states. Researchers investigate how molecular architecture (e.g., linear, branched, crosslinked, block copolymers), interactions, and processing conditions govern mechanical, rheological, thermal, and transport properties, using theoretical models, simulations, and experiments to predict and tailor macroscopic performance from molecular-level structure and dynamics.

The hidden physics of knot formation in fluids

Knots are everywhere—from tangled headphones to DNA strands packed inside viruses—but how an isolated filament can knot itself without collisions or external agitation has remained a longstanding puzzle in soft-matter physics.

A universal law explains the chaotic motion of chromosomes

Researchers from Skoltech, the University of Potsdam, and the Massachusetts Institute of Technology have discovered a fundamental physical law that governs the seemingly chaotic motion of chromosomes inside a living cell. ...

Scientists see shape memory activation in 'smart' plastic

Researchers from the Skoltech Engineering Center's Hierarchically Structured Materials Laboratory, in collaboration with colleagues from MISIS University and the Joint Institute for Nuclear Research, have for the first time ...

Hidden turbulence discovered in polymer fluids

Turbulence, the chaotic, irregular motion that causes the bumpiness we sometimes experience on an airplane, has intrigued scientists for centuries. At the Okinawa Institute of Science and Technology (OIST), researchers are ...

Mixing regolith with polymer saves mass for 3D printing

3D printing is going to be a critical technology in space exploration, both for its ability to create almost any object, but also because it can utilize in-situ resources, at least in part. However, the more of those space ...

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