Discovery of over 100 genomic loci linked to hypertension
The study’s findings explain the genetic differences in people’s blood pressure, which could lead to personalised medicine approaches.
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Genomics is the branch of molecular biology concerned with the structure, function, evolution, and mapping of genomes.
The study’s findings explain the genetic differences in people’s blood pressure, which could lead to personalised medicine approaches.
The discovery that genomic deletions cause altBRAFs can help develop new therapies to overcome drug resistance in BRAF-mutant melanoma.
Whole genome sequencing identified 17 significant variants associated with AD risk in five genomic regions.
Researchers find that the RAD51 protein prevents genomic duplications that could arise from reactivated origins.
Researchers highlight the need for considering biomarkers alongside other health outcomes, as well as the need for omic data standardisation.
Researchers have discovered potential biomarkers to identify paediatric sepsis progression stage, enabling more targeted treatment.
Researchers explored the effects of loops and 3D genome organisation on gene silencing, and found that ‘cohesinopathies’ may be linked it.
RBM5 removal from cells meant that HOXA9 mRNA levels were greatly reduced, which could lead to therapies targeting HOXA9-driven leukaemia.
Dr Ketan Patel, Clarivate, shares his insights about the use of Real-World Data and genomic biomarker data and discusses how researchers can use these to better detect and diagnose diseases.
Disruptions in TP53 and RB1 are key influencers that cause changes in the risk of mutations across chromosomes.
Using bioinformatics analyses, HK-CREs impact on cellular processes was studied, including their potential as housekeeping tumour suppressors.
Using saturation genome editing, researchers have created a map of disease-causing mutations for neurodevelopmental disorders and cancer.
A discovery about the mutated protein DECTIN-1, that limits the production of T regulatory cells, could lead to more effective drugs.
By mapping the genome, scientists have discovered how IKAROS enables differentiation of hematopoietic stem cells into B cells.
Researchers, using high-resolution mapping and mathematical modelling, have found mechanisms controlling mutation-driven diseases.