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A new piece to the puzzle sheds light on how UHRF1 regulates gene activity

Scientists at Helmholtz Zentrum München have discovered new details about the UHRF1 protein, which regulates gene activity and is produced at elevated levels in cancer cells. The research reveals an unexpected function of the UBL domain in DNA methylation and defines a new role for this domain in regulating gene expression.

Paternal diet and offspring health

A new study suggests that paternal diet influences offspring health by affecting sperm DNA methylation tags and seminal plasma immunological responses. Mice fed a low-protein diet had overweight offspring with dysfunctional metabolism, highlighting the importance of a healthy father's nutrition for child well-being.

SourceProceedings of the National Academy of Sciences·JournalProceedings of the National Academy of Sciences·DateAug 27, 2018

How sleep loss may contribute to adverse weight gain

A new study from Uppsala University found that one night of sleep loss can cause tissue-specific changes in gene expression and metabolism, leading to increased fat accumulation and muscle loss. This may explain why shift work and chronic sleep loss increase the risk of obesity and type 2 diabetes.

SourceUppsala University·JournalScience Advances·DateAug 23, 2018

Deep data dive helps predict cerebral palsy

A recent study published in BMC Bioinformatics has found that DNA methylation patterns in circulating blood cells can help identify children with spastic cerebral palsy. The researchers used next-generation sequencing data to analyze these patterns and identified distinct markers that distinguish children with CP from those without it.

SourceUniversity of Delaware·JournalBMC Bioinformatics·DateJun 21, 2018

UGA researchers develop new method to improve crops

Researchers at the University of Georgia have developed a new technique called epimutagenesis that allows them to selectively activate silenced genes in plants, resulting in increased resistance to drought and disease. This method has the potential to create crop varieties with improved yield and adaptability.

SourceUniversity of Georgia·JournalNature Communications·DateMar 6, 2018

Researchers at Mount Sinai and Sema4 develop powerful new method for microbiome analysis

A new method developed by Mount Sinai and Sema4 researchers accurately identifies individual microbial species and strains in communities, providing a more comprehensive approach to microbiome analysis. The technique uses DNA methylation patterns as natural barcodes to discriminate between closely related species.

The main switch

Researchers at the University of Freiburg discover that DNA folding reorganization is a key switch for defining cell types during cardiomyocyte differentiation. The study reveals that spatial genome organization determines cellular identity and provides insights into future reprogramming strategies.

SourceUniversity of Freiburg·JournalNature Communications·DateNov 21, 2017

Preventing a genetic uprising in early life

A recent study published in Cell Stem Cell has discovered a mechanism to prevent genetic chaos caused by transposons in early human development. The research found that endosiRNAs, a type of small interfering RNA, play a crucial role in regulating transposon activity during epigenetic reprogramming.

SourceBabraham Institute·JournalCell Stem Cell·DateNov 2, 2017

New kinds of brain cells revealed

Scientists have identified new subtypes of brain cells in mice and humans using DNA analysis, revealing a complex diversity of neurons. This breakthrough opens the door to understanding how many types of neurons exist, which could lead to improved treatments for brain-related diseases.

SourceSalk Institute·JournalScience·DateAug 10, 2017

Tick tock, stay ahead of the aging clock!

Researchers at Babraham Institute and European Bioinformatics Institute identified a mouse epigenetic ageing clock, which shows age-related changes in DNA methylation. The accuracy of the mouse clock is surprisingly similar to humans, with lifestyle interventions affecting ticking rate.

SourceBabraham Institute·JournalGenome Biology·DateApr 12, 2017

Obesity reprograms muscle stem cells

A new study reveals that obesity reprograms muscle stem cells through DNA methylation changes, impairing insulin sensitivity and metabolism in fully developed muscle cells. The research, conducted by doctoral student Cajsa Davegårdh at Lund University, found that pro-inflammatory genes like IL-32 play a crucial role in this process.

SourceLund University·JournalBMC Medicine·DateFeb 22, 2017

Epigenetic factors linked to obesity-related disease

A large study from Boston Children's Hospital found that epigenetic modifications to DNA, specifically DNA methylation, are linked to an increased risk of obesity-related health problems. The researchers identified 83 sites in the genome where methylation changes were associated with differences in energy balance and lipid metabolism.

SourceBoston Children's Hospital·JournalPLOS Medicine·DateJan 17, 2017

Honeybee memories: Another piece of the Alzheimer's puzzle?

Honeybee memories may hold clues to understanding human long-term memory formation and combating degenerative brain diseases. DNA methylation plays a crucial role in regulating memory specificity, with implications for treating conditions like Alzheimer's and dementia.

SourceFrontiers·JournalFrontiers in Molecular Neuroscience·DateDec 8, 2016

DNA methylation affects superiority of hybrid plants

A team of researchers discovered that maintaining DNA methylation is closely linked to hybrid vigor in Arabidopsis thaliana, a model plant for studying hybrid plant superiority. The study's findings suggest that epigenetic regulation plays a crucial role in hybrid vigor.

SourceKobe University·JournalProceedings of the National Academy of Sciences·DateOct 30, 2016

Gestational age measured via DNA methylation

Researchers developed a method estimating developmental maturity via DNA methylation patterns, which can help assess preterm newborns' care and estimate conception time. The study found gestational age accurately estimated between 24-44 weeks, with correlations to birthweight and developmental maturity.

SourceEmory Health Sciences·JournalGenome Biology·DateOct 10, 2016