A team of chemists from the University of Michigan, University of California, Davis, and University of California, Los Angeles has developed a novel method to capture carbon dioxide and convert it into metal oxalates—solid compounds that can serve as precursors for cement production. This breakthrough offers a promising route to reduce industrial carbon emissions and repurpose CO₂ into valuable materials.

Led by Charles McCrory, associate professor of chemistry and macromolecular science and engineering at the University of Michigan, the research is part of the Center for Closing the Carbon Cycle (4C), an Energy Frontier Research Center. The 4C initiative, directed by Jenny Yang at UC Irvine, focuses on developing methods to transform captured carbon dioxide into usable fuels and products.

A research team in South Korea has developed the world’s first fully functional electric motor constructed entirely without metal components. Replacing traditional copper coils with carbon nanotubes (CNTs), this breakthrough marks a major step toward ultra-lightweight transportation systems. The CNT motor demonstrates a 133% improvement in electrical conductivity and weighs 80% less than conventional designs.

Lightweighting remains a key challenge in the development of electric vehicles, drones, and spacecraft. Lighter components not only reduce energy consumption but also increase battery efficiency and extend operational range. The newly developed motor, created by researchers at the Korea Institute of Science and Technology (KIST), successfully powers a toy car at speeds exceeding half a meter per second, showcasing its potential in practical applications.

In the microscopic world of bacteria, survival depends on innovative defense systems that can neutralize viral invaders. While CRISPR-Cas9 has become widely known as both a bacterial immune mechanism and a revolutionary gene-editing tool, researchers continue to uncover additional layers of bacterial defense. One of the latest discoveries adds a surprising twist to how these tiny organisms protect themselves from viral attack.

Scientists at Rockefeller University and Memorial Sloan Kettering Cancer Center have identified a powerful new immune protein named Cat1. This protein belongs to a group known as CARF effectors, which are activated when viruses, particularly bacteriophages, attempt to infect a bacterial cell. CARF effectors help prevent viral spread by forcing the infected cell into a shutdown mode, effectively containing the threat before it reaches neighboring cells.

Silicon has long been the cornerstone of semiconductor technology, powering everything from smartphones and computers to electric vehicles. However, this reigning material may soon face significant competition as researchers develop new alternatives that could transform electronics in the coming years.

A research team at Penn State has successfully built a computer capable of performing simple operations using two-dimensional (2D) materials instead of silicon. These 2D materials are not only thinner at the atomic scale but also maintain their electronic properties even when scaled up, offering promising advantages over traditional silicon.

Researchers from The Grainger College of Engineering at the University of Illinois Urbana-Champaign have developed a groundbreaking nanopore sensing platform capable of detecting single biomolecules. Their work, recently published in Proceedings of the National Academy of Sciences, offers promising advancements for solid-state, label-free DNA sequencing, with far-reaching implications for precision medicine.

Nanopore sensors operate by detecting changes in ionic current as individual molecules pass through nanoscale openings. These devices come in two primary forms: biological nanopores and solid-state nanopores. While biological nanopore sequencing has already reached commercial use, engineers at Illinois Grainger aimed to develop a solid-state alternative that is more compatible with scalable manufacturing.

The Quantum Systems Accelerator (QSA) continues to make major strides toward building flexible and stable quantum computers capable of solving problems far beyond the reach of today’s classical machines. Through a series of collaborative efforts across top U.S. research institutions, QSA scientists are addressing the engineering challenges at the heart of quantum computing and making significant progress on key architectures and techniques.

Trapped-ion systems remain one of the most advanced platforms in quantum computing. These systems trap and manipulate ions using electric fields and laser pulses, offering long coherence times and precise control of quantum states. A recent achievement by QSA researchers at Sandia National Laboratories introduced the “enchilada trap,” a newly designed chip capable of storing up to 200 ions. This device incorporates innovative features such as elevated radiofrequency electrodes and the elimination of dielectric materials beneath them, significantly reducing capacitance and power loss.