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A recently developed method by the Wei Lab at Institute for Systems Biology (ISB) and University of California, Riverside provides new insights into cancer biology by allowing researchers to show how fatty acids are absorbed by single cells. This work was published in the Journal of the American Chemical Society.
To improve the efficacy of neoadjuvant immune checkpoint blockade against glioblastoma, researchers are looking for vulnerabilities in surgically removed tissues – a difficulty due to the vast differences within the tumor and between patients. To address this, ISB researchers and their collaborators developed a new way to study tumors.
Researchers from ISB’s Baliga Lab recently published a paper in the journal Frontiers in Marine Science, in which they identified a diatom-specific gene that may play a key role in predicting when diatoms might transition from a low/moderate to a high carbon dioxide environment.
ISB researchers and their collaborators looked at the electronic health records of nearly 630,000 patients who were tested for SARS-CoV-2, and found stark disparities in COVID-19 outcomes — odds of infection, hospitalization, and in-hospital mortality — between White and non-White minority racial and ethnic groups.
ISB research sheds light on how interspecies interactions arise, evolve and are maintained. The results, published in The ISME Journal, provide a new window to understand the key roles of these interactions in industrial applications, and in the health and disease of humans, animals and plants.
ISB researchers have found that a small, persistent increase in the expression of NOD1 could be responsible for higher cancer risks. The research team found that a slight 1.5-fold uptick in NOD1 expression can activate the protein and downstream signaling pathways in a manner similar to vast (30- to 200-fold) overexpression.
ISB researchers Dr. Nitin Baliga, Dr. Eliza Peterson and Dr. Vivek Srinivas have developed a new cell sorting technology, called PerSort, that isolates and characterizes dormant persisters that exist in cultures of Mycobacterium tuberculosis, the pathogen that causes tuberculosis.
ISB researchers and their collaborators are looking beyond the one-drug, one-solution approach that has thus far failed in Alzheimer’s disease research. Instead, they are focusing on other promising research avenues, such as the possible role of the gut microbiome in dementia.
While scientists have long studied bacterial infections, less attention has been paid to how the host immune response affects bacterial gene expression in the body. In a just-published paper in PNAS, ISB researchers detailed how the bacterium Salmonella conceals itself from the host immune system.
Findings from the ISB-Swedish COVID-19 Immune Response Study suggest that treatments aimed at arresting the infection at the stage of moderate severity may be most effective. The team studied 139 patients and found that mild COVID-19 is very distinct from the moderate or severe forms of disease, which appear surprisingly similar.
Diseases develop gradually over years, sometimes decades, before symptoms appear, and are due to malfunctioning physiological processes brought about by our genes and environment. In research published in the journal Proceedings of the National Academy of Sciences (PNAS), ISB researchers have shown how an individual’s genetic risk for disease is often reflected in their blood.
There is a dichotomy between Bacteroides- and Prevotella-dominated guts — two common gut bacterial genera — and there is a significant barrier when it comes to transitioning from one to the other.
In findings published in the journal Nature Communications, researchers show that cancer cells can take more than one path to reach a drug-resistant cell state. These findings could have promising implications for the future of cancer care.
ISB researchers have unveiled new insights on how Mycobacterium tuberculosis, the pathogen that causes tuberculosis, enters and exits a dormant state in human hosts. About a quarter of the world’s population has latent TB, so these important findings will enable and accelerate the discovery of more effective TB drugs.
In the cellular process of differentiation, information about the concentrations of an important class of proteins residing in a cell’s nucleus has been lacking, a missing link needed for scientists to fully understand how the process works. ISB researchers have quantified this important class of proteins that play a key role in the formation of red blood cells.