Banner
A New Path For Killing Pathogenic Bacteria

Bacteria that cause tuberculosis, leprosy and other diseases, survive by switching between two...

A Brain Circuit To Push Past Nutritional Stress

When we go hungry, we have the ability to ignore the urge to eat such that we can carry out the...

First Randomized Trial Shows IVF Culture Media Affect The Outcomes Of Embryos And Babies

Fertility experts are calling on the companies who make the solutions in which embryos are cultured...

Direct And Active Parent Involvement Key To Healthy Living For Kids

Parents who directly and actively engage their children in healthy living behaviour - instead of...

User picture.
News StaffRSS Feed of this column.

News Releases From All Over The World, Right To You... Read More »

Blogroll

Two molecules, cholic acid and 24,25-EC, play an important role in the survival and production of nerve cells in the brain, including nerve cells that produce dopamine, according to a new study.  

Receptors known as "liver X receptors", or LXR, are necessary for the production of different types of nerve cells, or neurons, in the developing ventral midbrain. One these types, the midbrain dopamine-producing neurons play an important role in a number of diseases, such as Parkinson's disease.  


Scientists have found three new and relatively rare genetic variants that influence insulin production, offering new clues about the genetic factors behind diabetes.

Diabetes, which affects more than 25 million people in the United States, results from problems with the body's ability to produce or use insulin. Rather than pinpointing one gene behind the disease, scientists believe there are a whole host of genes that interact with health and lifestyle factors to influence a person's chances of getting the disease.

The study revealed that certain variants of three genes — called TBC1D30, KANK1 and PAM — are associated with abnormal insulin production or processing, even in people without diabetes. The genes may predispose such individuals to developing the disease.


Current thinking on how the Toxoplasma gondii parasite invades its host is incorrect, according to a study published today in Nature Methods describing a new technique to knock out genes. 

Toxoplasma gondii is a parasite that commonly infects cats - and therefore people who own a lot cats- but is also carried by other warm-blooded animals. Up to a third of the UK population are chronically infected with the parasite, according to estimates. In most cases the acute infection causes only flu-like symptoms but women who become infected during pregnancy can pass the parasite to their unborn child which can result in serious health problems for the baby such as blindness and brain damage. 


Researchers have completed the first genome sequence of domestic goat by integrating next-generation sequencing (NGS) and whole-genome mapping (WGM) technologies. The goat genome is the first reference genome for small ruminant animals and may help to advance the understanding of distinct ruminants' genomic features from non-ruminant species.

This work also yields a valuable experience for facilitating the de novo assemblies of large, complex genomes in the future. 


A research team has tested a popular zinc hypothesis in paleo-ocean chemistry and concluded it is false.


A study into newborn screening for fragile X syndrome (FXS) demonstrates that testing for mutations in the gene FMR1 can be done on a large scale, according to a paper published in Genome Medicine which shows that the number of carrier babies who carry the form of the gene known as the "premutation" is higher than previously estimated.

Fragile X syndrome (FXS) is the most common cause of inherited intellectual disability and autism, or autism spectrum disorder, and is caused by mutations in the gene FMR1.

The mutation which causes FXS is not actually in the gene but is due to the addition of extra CGG repeats in the promoter region that controls whether the gene is switched on or off.