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Making sense of Marfan syndrome

A recent study reveals that mutations in the FBN1 gene can cause Marfan syndrome by disrupting an exonic splicing enhancer, leading to exon skipping and compromised fibrillin protein activity. This understanding may help explain other human diseases associated with exon skipping.

SourceCold Spring Harbor Laboratory·JournalGenes & Development·DateJul 14, 2002

Mouse model of alopecia

Researchers created genetically engineered mice lacking keratin 17, a structural protein found in hair follicles, to investigate its role in hair growth. The results show that K17 knockout mice display temporary baldness due to hair fragility and premature cell death, but eventually regrow fur at around three weeks old.

SourceCold Spring Harbor Laboratory·JournalGenes & Development·DateMay 31, 2002

Progress in the genetics of autism

Studies reveal connections between the serotonin transporter gene SLC6A4 and autism, as well as a potential link between the glutamate receptor 6 (GluR6) gene and the syndrome. The findings contribute to a deeper understanding of the genetic underpinnings of autism.

SourceMolecular Psychiatry·JournalMolecular Psychiatry·DateApr 1, 2002

UCLA team maps how genes affect brain structure, intelligence; dramatic images shed light on brain diseases, personality differences

A new study by UCLA researchers has created images showing how an individual's genes affect their brain structure and intelligence. The findings, published in Nature Neuroscience, reveal that genetic differences can significantly impact brain regions controlling language and reading skills.

SourceUniversity of California - Los Angeles·JournalNature Neuroscience·DateNov 4, 2001

The genetics behind hair loss

Researchers have determined the function of the Hairless protein, revealing its role in regulating gene expression dependent on the thyroid hormone receptor. The discovery provides molecular insight into congenital hair loss disorders and represents a stepping stone for designing therapeutic agents.

SourceCold Spring Harbor Laboratory·JournalGenes & Development·DateOct 14, 2001

Stalking a Parkinson’s protein

Researchers have discovered a crucial genetic element that regulates alpha-synuclein protein activity, which is involved in both inherited and non-inherited forms of Parkinson's disease. By identifying this element, scientists hope to gain insights into the underlying mechanisms of the devastating disease.

SourceCold Spring Harbor Laboratory·JournalGenome Research·DateJan 11, 2001

Role of key protein that may stave off inherited form of Alzheimer's disease discovered by UC Irvine researchers

Researchers at UC Irvine have discovered a protein called calsenilin that can offset calcium imbalances in brain cells, which contribute to the development of early-onset familial Alzheimer's disease. This finding may lead to pharmaceutical therapies and preventive measures to halt the progression of this neurological disorder.

SourceUniversity of California - Irvine·JournalProceedings of the National Academy of Sciences·DateJul 31, 2000

Gene discovery provides link between neurological disorders

Researchers discovered a new gene, neurofilament light, associated with Charcot-Marie-Tooth disease, which affects peripheral nerves and leads to progressive weakness. The defect is linked to demyelination, resulting in axonal loss and muscle denervation, also seen in other neurological disorders like Parkinson's and Alzheimer's diseases.

SourceThe American Journal of Human Genetics·JournalAmerican Journal of Human Genetics·DateJun 12, 2000

New technique improves accuracy of gene tests

Researchers at Ohio State University have developed a new technique to improve the accuracy of genetic testing for cancer and inherited diseases. The method separates human chromosomes and allows for independent analysis of each copy, detecting key mutations that were previously missed.

SourceOhio State University·JournalNature·DateMar 2, 2000

Gene located for rare fat disorder

A team of international researchers has identified the gene responsible for congenital generalized lipodystrophy, a severe form of lipodystrophy characterized by selective loss of body fat from birth. The discovery is expected to provide insights into common obesity and metabolic disorders.

SourceUT Southwestern Medical Center·JournalThe Journal of Clinical Endocrinology & Metabolism·DateSep 14, 1999