David Baker, Demis Hassabis and John Jumper share the 2024 Nobel Prize in Chemistry for their contributions to the science of protein structure. David Baker was awarded half the prize “for computational protein design,” according to the Royal Swedish Academy of Sciences. Hassabis and Jumper shared the other half “for protein structure prediction.”

David Baker, director of the Institute for Protein Design at the University of Washington School of Medicine, is a pioneer in protein design. His contributions have been recognized with countless awards, and now, a place among the 2024 Clarivate Citation Laureates. Baker’s lab has developed several open-source software applications for nanotechnology and biomedicine. With these methods, scientists build new proteins that bind to drug targets and block them or activate cellular signals.

A novel gene therapy that leads to cellular rejuvenation could restore vision after non-arteritic anterior ischemic optic neuropathy (NAION) and glaucoma. The technique is based on a reprogramming process that reverses the epigenetic DNA alterations caused by aging. Preclinical studies in glaucoma mice and nonhuman primates (NHP) models for this stroke-like disorder that affects the eye, showed an improvement of vision and restoration of the damaged axons of the optic nerve.

A strategy inspired by deficient HIV replication could be used as a treatment to reduce viral load in patients living with HIV and help control the pandemic of the retrovirus. Scientists from the University of California San Francisco want to use HIV against itself by using a parasitic version of the pathogen.

Infection or cure? Scientists from Tel Aviv University and the University of Glasgow genetically modified the Toxoplasma gondii to bring a protein inside neurons. The novelty of using a protozoan that can travel from the gut to parasitize the CNS contrasts with the possibility of causing a disease. The scientists are already working on how to avoid it.

Patients with congenital hearing loss could benefit from a gene therapy currently in development. Although there are approaches that could reverse the process in children and young people before it becomes severe, so far, adults do not have any treatment that prevents the progressive deterioration of auditory sensory cells caused by this disease.

Scientists at the University of Washington have engineered human plasma B cells modified to express long-lasting bispecific antibodies that could be used to treat leukemia without requiring continuous dosing.

New single-step genome editing techniques that enable the insertion, inversion or deletion of long DNA sequences at specified genome positions have been demonstrated in bacteria.

The success of a vaccine, a gene editing design for an untreated disease, or achieving cell engraftment after several attempts, comes from years of accumulated basic science studies, thousands of experiments, and clinical trials. Innumerable steps precede hits in gene and cell therapies before a first-time revelation, and most of them are failures at the time. At the 27th Annual Meeting of the American Society of Gene & Cell Therapy (ASGCT) in Baltimore last week, several groups of scientists presented achievements that years ago looked impossible.