Lifeboat Foundation

It is the first time that synaptic density has been measured in living people with autism.

Furthermore, the research team found that the fewer synapses an individual had, the more features of autism they exhibited.

The findings appear in Molecular Psychiatry.

Continue reading “Brain difference tied to autism found in living people for 1st time” »

Repetitive transcranial magnetic stimulation offers rapid depression relief for patients unresponsive to conventional treatments.

Accelerated over just five days, this therapy targets key brain areas to adjust imbalances linked to depression, demonstrating significant effectiveness.

Transcranial magnetic stimulation to treat depression.

Summary: Scientists have successfully reprogrammed astroglia, a type of brain support cell, into neurons that mimic specific interneurons critical for brain function. By modifying the Ascl1 protein, they increased its efficiency in converting astroglia to neuron-like cells, opening new possibilities for regenerative treatments for brain disorders such as epilepsy.

The engineered neurons exhibit high-frequency firing, a signature of certain interneurons essential for regulating brain activity. This work suggests astroglia could serve as a repair mechanism, allowing us to restore lost or damaged brain circuits.

MIT researchers developed tiny wearable devices for cells that can snugly enfold neurons and neuronal processes without damaging the cell. These thin-film wearables, made from a soft polymer, could enable scientists to measure and modulate neurons at a subcellular level.

The brain is a marvel of efficiency, honed by thousands of years of evolution so it can adapt and thrive in a rapidly changing world. Yet, despite decades of research, the mystery of how the brain achieves this has remained elusive.

Our new research, published in the journal Cell, reveals how neurons – the cells responsible for your childhood memories, thoughts and emotions – coordinate their activity.

Continue reading “The Mystery of How Neurons Control The Brain Has Finally Been Solved” »

Scientists at the Centre for Genomic Regulation (CRG) in Barcelona have developed the first comprehensive blueprint of the human spliceosome, the most complex and intricate molecular machine found in every cell. This groundbreaking achievement, over a decade in the making, was published in the journal Science.

The spliceosome edits genetic messages transcribed from DNA, allowing cells to create different versions of a protein from a single gene. The vast majority of human genes – more than nine in ten – are edited by the spliceosome. Errors in the process are linked to a wide spectrum of diseases including most types of cancer, neurodegenerative conditions, and genetic disorders.

The sheer number of components involved and the intricacy of its function has meant the spliceosome has remained elusive and uncharted territory in human biology – until now.

Deep sleep could be key to forestalling slow declines in brain health that may one day lead to Alzheimer’s disease, the most common form of dementia.

In their 2023 study of 62 older, cognitively healthy adults, researchers from the University of California (UC) Berkeley, Stanford University, and UC Irvine in the US found individuals with brain changes associated with Alzheimer’s performed better on memory function tests as they got more deep sleep.

This was irrespective of education and physical activity, two factors along with social connection known to contribute to cognitive resilience in older age.

A multitude of genetic, behavioral, and environmental factors come together to create mental health problems in teens.

Using a broad genetic trawling method, scientists at Washington University identified connections between genetic risk factors and behaviors like screen time and stressful life events in youth. Their findings highlight potential areas for intervention to mitigate the risk of psychiatric disorders.

Genetic Research in Youth Behavior.

MIT researchers have uncovered two additional pathways in the brain’s striatum that modulate traditional movement control pathways by influencing dopamine production.

These pathways, connected to the brain’s striosomes, may play a crucial role in decisions with strong emotional components, potentially altering our understanding of how motivation and movement are interconnected.

In the human brain, movement is coordinated by a region called the striatum, which sends signals to motor neurons. These signals travel along two main pathways: one initiates movement (“go”), and the other inhibits it (“no-go”).