An ongoing concern for scientists is that there will be across-the-board funding cuts. This is already happening in mRNA research, where reductions affected coronavirus-related projects. During the pandemic, efforts focused on this pathogen, and once the health emergency was over, grants for antivirals were eliminated. However, these drugs could stem future outbreaks. Despite the cuts, recent research continues to demonstrate the potential of mRNA, not only for the development of antivirals, but also for obtaining more effective and longer-lasting vaccines.

CSPC Pharmaceutical Group Ltd.’s SYH-2066 tablets has obtained clearance from China’s National Medical Products Administration (NMPA) to enter clinical trials for respiratory infections caused by respiratory syncytial virus (RSV).

In August, a press release from HHS announced the cancellation of 22 vaccine research projects based on mRNA, the latest available technology aimed at developing therapies for viral infections, cancer, and genetic conditions. What happens to mRNA innovation when funding dries up? This series explores how reductions in funding could impact mRNA technology, affecting innovation, research and future therapies.

A tangle of DNA can look like a knotted ball in the cell nucleus. However, the genetic machinery has a complex and regulated structure. Its long repetitive sequences also seemed to have no function. They were called junk DNA, although they were not. The same happened with proteins and low-complexity domains, disordered chains of amino acids that were poorly understood. Nevertheless, that protein noise has turned into music for the 2025 Lasker Awards. These prizes have recognized the work of scientists who were able to see order in chaos.

Researchers from the University of California, Davis have designed a novel gene therapy vector that selectively targets and kills cells infected with Kaposi’s sarcoma-associated herpesvirus (KSHV).