Three hundred and sixty participants from 31 countries participated in the Malaria DREAM Challenge, a crowdsourcing effort challenging anyone in the world to develop computational models for predicting emerging drug resistance to artemisinin, a widely used therapeutic considered the “last line of defense” against multi-drug-resistant malaria.
The Jefferson Science Fellowship Program is designed to further build capacity for science, technology and engineering expertise with the U.S. Department of State and the U.S. Agency for International Development (USAID).
According to researchers at the University of Notre Dame, data from a clinical trial in Indonesia designed to evaluate the impact of a spatial repellent on reducing malaria infections showed promising results.
Tank, who also currently serves as the current president of the Society for Freshwater Science, is being recognized for her research that sits at the intersection of freshwater systems and agriculture in the Midwest.
Inside the body, disease and injury can leave behind quite the mess — a scattering of cellular debris, like bits of broken glass, rubber and steel left behind in a car accident. Inside the central nervous system (CNS), a region that includes the brain and spinal cord, it is the job of certain cells, called microglia, to clean up that cellular debris. Microglia have counterparts called macrophages that serve similar function outside the CNS in the peripheral nervous system (PNS), the region that contains most of the sensory and motor nerves.
Notre Dame will lead a five-year program to determine the efficacy of a spatial repellent product in preventing mosquito-borne diseases such as malaria, dengue and Chikungunya.
In a new study published in the Journal of Experimental Medicine, scientists at the University of Notre Dame have discovered that the pathogen Mycobacterium tuberculosis (MTB) releases RNA into infected cells.
Immunotherapy — harnessing T-cells to attack cancer cells in the body — has given hope to patients who endure round after round of treatment, including chemotherapy, to little effect. For all of its promise, however, immunotherapy still benefits only a minority of patients — a reality driving research in the field for ways to improve the relatively new approach. One method for improving efficacy is the development of bio- and activity-based markers to better predict which patients will respond to immunotherapy and identify why some don’t. In a new study in the Proceedings of the National Academy of Sciences, researchers at the University of Notre Dame studying tumors in prostate cancer models found that nitration of an amino acid can inhibit T-cell activation, thwarting the T-cell’s ability to kill cancer cells.
The reality of climate change poses a significant threat to global biodiversity. As temperatures rise, the survival of individual species will ultimately depend on their ability to adapt to changes in habitat and their interactions with other species. A new study published in the Proceedings of the National Academy of Sciences examines movement of the Eastern (Papilio glaucus) and Canadian (Papilio Canadensis) tiger swallowtail butterfly over a 32-year period within the geographic region where the two species mate, called the hybrid zone. The findings highlight the impact of changing climates and provide critical information for the protection and management of biodiversity.
Tuberculosis-causing mycobacteria use a select group of proteins known as virulence factors to transmit the disease, which infects roughly one third of the world’s population and causes 1.7 million deaths annually. Those proteins are cargo transported by molecular machinery, a microscopic gateway that promotes the survival of bacteria in the host. A new study by researchers at the University of Notre Dame and Michigan State University, published in the Proceedings of the National Academy of Sciences, reveals that mycobacteria can sense when this molecular machine is present.
According to a new study, researchers have improved their method of tracking species by using the biological material those organisms leave behind known as environmental DNA (eDNA).
Scientists at the University of Notre Dame have found that exposure to just 10 minutes of light at night suppresses biting and manipulates flight behavior in the Anopheles gambiae mosquito, the major vector for transmission of malaria in Africa, according to new research published in the journal Parasites and Vectors.
By understanding how they respond to toxic elements, scientists can look at how environmental changes caused by agriculture and road runoff or warming temperatures and climate change could impact populations in lakes, rivers and standing bodies of water.
Jennifer Tank, Galla Professor in the Department of Biological Sciences co-authored new research published in the journal Proceedings of the National Academy of Sciences.
Jeff Schorey, a world-renowned expert with pioneering work on the role of exosomes in infectious diseases, has been studying mycobacterial disease for almost two decades.
Professors in Notre Dame’s Department of Biological Sciences and members of the Eck Institute reflect on the outbreak, the challenges presented by the virus and the work yet to be done to help health professionals and key decision makers protect their citizens.