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Likewise, this dataset had 4,510 cases, 212,242 controls, with 16,380,464 SNPs for psoriasis, and 2,802 cases, 212,242 controls, with 16,380,459 SNPs for psoriasis vulgaris.

The team analyzed the aggregated statistical data using an MR approach to explore the potential causal relationship between the gut microbiome and psoriasis. SNPs with a threshold P-value of 1 × 10−5 worked as genetic instrumental variables in these MR analyses.

A new study from the University of Minnesota is the first to demonstrate the ability for gene therapy to repair neural connections for those with the rare genetic brain disorder known as Hurler syndrome. The findings suggest the use of gene therapies—an entirely new standard for treatment—for those with brain disorders like Hurler syndrome, which have a devastating impact on those affected.

The research, published in Proceedings of the National Academy of Sciences, used a genetic approach to fix deafness in mice with a defective Spns2 gene, restoring their hearing abilities in low and middle frequency ranges. Researchers say this proof-of-concept study suggests that hearing impairment resulting from reduced gene activity may be reversible.

Over half of adults in their 70s experience significant hearing loss. Impaired hearing is associated with an increased likelihood of experiencing depression and cognitive decline, as well as being a major predictor of dementia. While hearing aids and cochlear implants may be useful, they do not restore normal hearing function, and neither do they halt disease progression in the ear. There is a significant unmet need for medical approaches that slow down or reverse hearing loss.


New research from the Institute of Psychiatry, Psychology & Neuroscience (IoPPN) at King’s College London has successfully reversed hearing loss in mice.

This proof-of-concept study suggests that gene therapy for this type of hearing loss in humans may be successful in the future.

Group A streptococci are one of the most common pathogens that humans are exposed to, and they can cause infections with a wide range of severities, from mild rashes and sore throats to flesh-eating and systemic infections that can be fatal. The number of these infections is also on the rise, although the reasons are unclear. Now researchers have learned more about why these pathogens can be mild in some people, and hit others hard. The findings have been reported in Nature Communications.

Scientists suspected that some interaction between a person’s genetics and the bacterial pathogen could be leading to such varied outcomes, said study co-author Fredric Carlsson, a researcher at Lund University.

A genetically modified pig kidney transplanted into a brain-dead man on life support has exhibited regular functioning for over a month, showing no signs of rejection or infection.

A new milestone in animal-to-human organ transplants in the United States has been achieved.

A gene-edited pig kidney implanted into a brain-dead man on life support has been functioning normally for over a month with no signs of rejection or infection.

Researchers from Monash University in Melbourne and The University of Western Australia have demonstrated how a reprogramming method imitates embryonic epigenetic reset. Transient naive treatment (TNT) reprogrammed human induced pluripotent stem (hiPS) cells that are molecularly and functionally more similar to human embryonic stem (hES) cells than primed hiPS cells, which are more like cells in the post-implantation embryo. This research suggests that TNT reprogramming has the potential to set a new standard for therapeutic and biomedical uses.

The research article “Transient naive reprogramming corrects hiPS cells functionally and epigenetically” was published online today in Nature.

“Our work shows that TNT reprogramming is a practical and scalable approach to overcome these intrinsic characteristics of hiPS cells, which is important for the clinical delivery of this technology,” stated the authors. “We foresee TNT reprogramming becoming a new standard for biomedical and therapeutic applications.”

Since 2014, the ALS Ice Bucket Challenge has inspired more than 17 million people to raise $115 million for The ALS Association, which has funded over 500 research projects with the money. Because of that boost, the first drug to treat ALS has been approved by the FDA, other new treatments are in testing, and scientists have been able to identify several genes that are connected to the disease.

While mutations in a gene called NEK1 have only been associated with around two percent of ALS cases, it is one of the primary genetic causes of ALS that have been revealed so far. Now investigators have learned more about how NEK1 mutations can lead to ALS, a disease in which the motor neurons that control movement degenerate and die, which causes paralysis and eventually, death. The work has been reported in Science Advances.