Cellular atlases and omics studies, such as genomics, transcriptomics and proteomics, have become key tools for identifying the diversity of all the elements that make up the cardiovascular system. These approaches help scientists understand how cells, genes and molecules function and interact in both healthy and diseased conditions, revealing critical points where targeted interventions could not only relieve symptoms but potentially reverse the underlying pathology at its origin.

Although the causes of polycystic ovary syndrome (PCOS) are unclear, researchers know this condition leads to endometrial dysfunction in women who have hormonal imbalances, and insulin resistance. Now, a study led by scientists at the Karolinska Institutet in Sweden has revealed the cellular and genetic differences that distinguish this disorder in the first atlas of the human endometrium during the proliferative phase of the menstrual cycle.

Researchers at the University of Leipzig and ETH Zurich have used single-cell sequencing to identify differences between fat tissue of obese individuals who are metabolically unhealthy, and those who were in good metabolic health. The findings, which were published online Dec. 17, 2024, in Cell Metabolism, identify measurements that can be used to decouple obesity from metabolic disease.

An international consortium of thousands of scientists is creating the Human Cell Atlas, a three-dimensional map of all the cells in the body. The goal is to understand all the cells that make up human tissues, organs and systems, which will enable multiple medical applications. This collection of cell maps is openly available for navigation at single-cell resolution, identified through omics analyses that reveal the tridimensional distribution of each cell.

An international consortium of thousands of scientists is creating the Human Cell Atlas, a three-dimensional map of all the cells in the body. The goal is to understand all the cells that make up human tissues, organs and systems, which will enable multiple medical applications. This collection of cell maps is openly available for navigation at single-cell resolution, identified through omics analyses that reveal the tridimensional distribution of each cell.

Scientists from the PsychENCODE Consortium have analyzed the brain transcriptome in a coordinated series of studies to map all the cell types, genes, epigenetic factors, and molecular pathways involved in different psychiatric disorders. After a first set of projects based on bulk analysis, the second phase of this project included 14 simultaneous publications that revealed the cellular atlas of post-traumatic stress disorder and major depressive disorder, among others.

Scientists from the PsychENCODE Consortium have analyzed the brain transcriptome in a coordinated series of studies to map all the cell types, genes, epigenetic factors, and molecular pathways involved in different psychiatric disorders. After a first set of projects based on bulk analysis, the second phase of this project included 14 simultaneous publications that revealed the cellular atlas of post-traumatic stress disorder (PTSD) and major depressive disorder (MDD), among others.

The first cellular human and mouse map focused on muscle fibers and their microenvironment has revealed both the mechanisms of deterioration of this tissue over time and its adaptive capacity for regeneration. “We intended to map the skeletal muscle, isolating all the cell types, and characterizing how they change with age,” first author Veronika Kedlian from the Wellcome Sanger Institute in Cambridge told BioWorld.