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Center for Genomic Regulation


The genome of Leishmania reveals how this parasite adapts to environmental changes

Scientists demonstrate that Leishmania adaptation results from frequent and reversible chromosomal amplifications, which enables the parasite to maintain genetic diversity while selecting for new alleles. This study has important consequences for understanding human Leishmania infection and identifying parasite drug resistance mechanisms.

SourceCenter for Genomic Regulation·JournalNature Ecology & Evolution·DateNov 22, 2017

Stop playing seek-and-hide with latent HIV

Researchers at Centre for Genomic Regulation develop new technology to detect latent HIV, shedding light on expression landscape of the virus in human genome. The technology shows that different HIV reactivation drugs target different locations within chromosome, leading to more selective treatment.

SourceCenter for Genomic Regulation·JournalNature Structural & Molecular Biology·DateNov 23, 2016

A new energy source within the cells

Researchers at Center for Genomic Regulation discover a new pathway generating energy in the cell nucleus to deal with stressful situations and high levels of DNA damage. The key enzyme NUDIX5 is identified as crucial for nuclear ATP synthesis, which could lead to targeted cancer medicine and biomarker development.

SourceCenter for Genomic Regulation·JournalScience·DateJun 2, 2016

The Mesoamerican bean decoded

An Ibero-American team has sequenced the Mesoamerican common bean genome, which will aid in improving production and conserving genetic varieties. The discovery has significant implications for agriculture, as it will help identify genes involved in disease resistance, drought tolerance, and seed quality.

SourceCenter for Genomic Regulation·JournalGenome Biology·DateFeb 24, 2016

A switch for health heart muscle

Researchers at the Centre for Genomic Regulation have discovered a unique genetic switch that guides stem cells into developing specialized heart muscle. The discovery of the Mel18 protein is expected to reveal underlying causes of heart defects and potentially lead to new methods for controlling stem cells in the laboratory.

SourceCenter for Genomic Regulation·JournalCell Stem Cell·DateSep 3, 2015

Discovering a new force driving cell contraction during development and organogenesis

Researchers at the Center for Genomic Regulation have identified a new mechanism that generates forces to drive cell movements during development, replacing previous theories of shape changes. This discovery contributes to understanding organ development and maintenance by highlighting the role of volume changes and programmed cell death.

SourceCenter for Genomic Regulation·JournalDevelopmental Cell·DateJun 9, 2015

Engineering bacteria to design vaccines

The EU-funded MycoSynVac project combines gene engineering and biotechnology to design a novel veterinary vaccine chassis based on Mycoplasma pneumoniae. This chassis will be used to create specific vaccines against two highly detrimental pathogens, as well as for cell therapy and infectious lung disease treatment.

Unraveling cell division

Researchers have found that Topo 2, an essential enzyme for chromosome separation, needs more time to untangle long chromosomes, which can lead to mutations and cancer. The study suggests that chromosome length affects the enzyme's action and highlights the importance of understanding cell division.

SourceCenter for Genomic Regulation·JournalJournal of Cell Biology·DateSep 16, 2014