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Building 3D Nanoscale Structures Through DNA-Assembly and Templating Using DNA scaffolding, scientists developed a universal method for producing a wide variety of functional, 3D metallic and semiconductor nanostructures
Gaining Control of Spin in Optoelectronics By combining a chiral semiconductor with an LED, scientists controlled the orientation of electron spin.
Revealing Buried Layers: Exploring the Metal-Substrate Interface Layer in Superconducting Films Researchers used a multimodal approach to determine the metal-substrate interface in a superconducting qubit material.
Improving Computing Memory Performance for Scientific Discovery A new framework employs usage patterns to improve data placement.

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Image of a Wigner crystal captured by a high resolution ultra-low temperature scanning tunneling microscope. The periodic sites (blue) form a triangular structure with each consisting of exactly one electron separated by 40 billionths of a meter.

Visualizing an Elusive Quantum Crystal

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Left: Scanning tunnel microscopy image of an atomic layer of bismuth/bismuthene (green) on a tin-selenium substrate (black). The inset shows Weyl fermions’ electronic signature. Right: It shows that bismuthene has robust electrical currents at its edges.

Unusual Massless Particle Discovered in a 2D Material

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Cells of the green microalga Auxenochlorella protothecoides expressing a red fluorescent protein. These algae accumulate large quantities of oils stored in lipid droplets.

Not Lost in Translation: Algae Show How to Make Two Proteins from One Messenger RNA

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These plates show how genetic modifications affect yeasts’ resistance to oxidative stress. Deleting the genes responsible for building cell walls reduced resistance in one species; adding a gene that encodes a key enzyme improved resistance in another.

Machine Learning Reveals Genes That Help Yeasts Resist Stress

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Latest Highlights

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Researchers further illuminated the genetic diversity within the Aspergillus genus of fungi.

A Deeper Look into Fungal Species Reveals Biomanufacturing Potential

Researchers investigate the connections between Aspergillus species, demonstrating their usefulness for producing biofuels and bioproducts.

A guide RNA strand, in purple, guides CRISPR to a DNA strand. Scientists devised a method to identify genes that can be suppressed to customize microbes for biotechnology applications.

Investigating Cyanobacteria’s Many Paths to Adaptation

A new approach accelerates how quickly scientists can identify genes involved in environmental acclimation and understand bacterial stress.

A group of researchers in a laboratory, with four men standing up and a man and woman sitting down

Robotic Lab Revolutionizes Plant Bioengineering

A fast, automated, and high-throughput pipeline is improving the speed of plant engineering

Series of five different line graphs indicating how the code matched the experimental data fairly well

Improving Predictions for Fusion Device Transport

Researchers validate a new workflow for plasma transport models, aiding future fusion device design.

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An illustration with blue pairs of electrons on the left against a teal background and pink pairs of electrons on the right against a pink background with a honeycomb layer between them

Can a Superconductor Also Be a Magnet?

Illustration showing how different molecular surfaces result in pollutants moving through them differently, with a molecular diagram linked to a graph showing different probabilities. There is a series of three pictures above illustrating a farm, a connected power system, and a water filtration system.

Improving Continuum-Scale Models with Molecular-Scale Interface Science

Graph comparing a neutron star with a quark-matter core vs. a nuclear matter core in mass vs. radius. The quark matter core star would have less mass and radius than the nuclear matter core, as stars with smaller radii and more mass are too unstable.

New Clues on Twin Neutron Stars and the Extreme Physics Inside

Microscopy image with a zoom-in to show the layers of different substances, as well as a graph showing resistivity changes substantially depending on temperature.

Harnessing Entangled Spin Fluctuations for Advanced Spin Electronics

Illustration showing a crystal structure, with balls connected by lines and a blue ball increasing in size moving above the structure

Thin Materials and Fat Electrons: A Recipe for New Quantum Phenomena

Graphic showing how a thin film can go through compressive strain on top of a substrate to become superconducting as well as a line graph showing how the most strain induces superconductivity

Unveiling the Link Between High Pressure and Superconductivity

Illustration of alpha fusion processes in stars and reactions used on Earth floating above an image of the Earth

Predictive Theory Revises Understanding of Alpha Processes During the Big Bang and in Massive Stars

An interaction that governs triton decay (left) is also critical to proton-proton fusion (right). Extracting information from the well-measured triton decay provides a prediction for the rate of proton-proton fusion.

Understanding How the Sun Shines: From Triton Decay to Proton-Proton Fusion

Steps in terbium-161 (Tb-161) production. The University of Utah TRIGA reactor induces thermal neutron capture on gadolinium-160 (Gd-160), which decays to Tb-161. Separating the Gd-160 target yields high-purity Tb-161 for cancer therapy and diagnosis.

To Advance Cancer Therapy, University Starts Producing Terbium-161

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