Fine-tuning device performance with swarms of swimming cells

Scientists use acoustic microfluidic devices to separate and sort components in fluids, such as red and white blood cells, platelets and tumor cells in blood, to better understand diseases or to develop new treatments. However, ...

Vibrating 2-D materials

Current electronic components in computers, mobile phones and many other devices are based on microstructured silicon carriers. However, this technology has almost reached its physical limits and the smallest possible structure ...

The force to shape an organ

Carnegie Mellon University professor of biomedical engineering and materials science and engineering Adam Feinberg, along with postdoctoral fellow Dan Shiwarski and graduate student Joshua Tashman, have created a novel biosensor ...

New metamaterial offers reprogrammable properties

Over the past 20 years, scientists have been developing metamaterials, or materials that don't occur naturally and whose mechanical properties result from their designed structure rather than their chemical composition. They ...

A new regime for analyzing properties of topological materials

Two recent studies demonstrate that there is a topological origin of two related metal alloys' ability to convert light into electrical current. New fundamental research on rhodium monosilicide (RhSi), published in NPJ Quantum ...

Reverse engineering 3-D chromosome models for individual cells

Genome analysis can provide information on genes and their location on a strand of DNA, but such analysis reveals little about their spatial location in relation to one another within chromosomes—the highly complex, three-dimensional ...

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