Salk Institute scientists developed an improved workflow for characterizing capsids (genome-containing protein cones) in HIV-1 (the most common form of HIV). This novel workflow incorporates advanced technology that will allow scientists to better understand how capsid morphology changes in response to distinct pressures and to pinpoint new, more effective ways to target capsids and treat HIV-1. Importantly, the workflow can also be used to study structural changes in other, non-HIV viruses.

Because the modern workplace is inextricably interwoven with technology, two KU communication studies researchers have proposed a new theoretical approach they call “Socio-Technical Exchange” as an improvement upon the well-worn Social Exchange Theory that has dominated the field for decades. They spell it out in a new paper.

The integration of oncolytic viruses (OVs) with immunotherapy is reshaping the landscape of tumor treatment, offering new hope for patients. This cutting-edge approach harnesses the ability of OVs to selectively infect and destroy tumor cells, while simultaneously stimulating anti-tumor immune responses. The latest advancements in genetic engineering have further optimized these therapies, leading to improved clinical outcomes and enhanced patient quality of life.

The U.S. Air Force awarded startup SkyNano, led by Innovation Crossroads alumna Anna Douglas, a $1.25 million contract to advance its CO2-to-carbon nanotube technology as part of a project to develop low-cost, battery-grade graphite. SkyNano’s partners include American Energy Technologies Company and Eonix, led by Innovation Crossroads alumnus Don DeRosa.

A team, led by researchers at Bigelow Laboratory's Single Cell Genomics Center, have published the first quantitative analysis of lateral gene transfer rates in the ocean, illuminating the adaptability of marine microbes to new environment and the significance of an essential, ongoing evolutionary process to marine life.

From waste to valuable resource: Chemists at the University of Copenhagen have developed a method to convert plastic waste into a climate solution for efficient and sustainable CO₂ capture. This is killing two birds with one stone as they address two of the world’s biggest challenges: plastic pollution and the climate crisis.From waste to valuable resource: Chemists at the University of Copenhagen have developed a method to convert plastic waste into a climate solution for efficient and sustainable CO₂ capture. This is killing two birds with one stone as they address two of the world’s biggest challenges: plastic pollution and the climate crisis.