Although it may seem simple to calculate, snowfall cannot be well measured by simply placing a yardstick in the ground. In actuality, snow measurement is much more complicated and oftentimes the most accurate snow measurement devices are costly. However, two Notre Dame graduate students are working to improve the snow measurement process in an effective and affordable manner.
When it comes to battling disease and maintaining healthy environments, DNA sequencing can be imperative to success. At the University of Notre Dame, the Genomics and Bioinformatics Core Facility (GBCF) supports research in many areas that increasingly rely on DNA sequencing, including cancer biology, vector-borne diseases, the development of drug and antibiotic resistance, monitoring invasive species, and much more.
Malcolm Fraser Jr., the University of Notre Dame’s Rev. Julius A. Nieuwland, C.S.C., Professor of Biological Sciences, is conducting research that utilizes the silkworm caterpillar’s silk gland to conduct mammalian-like protein production with the end goal of producing cost-effective biotherapeutic products, or therapeutic materials created utilizing recombinant DNA technology, that can be used to treat life-threatening and chronic diseases.
New research completed at the University of Notre Dame’s Environmental Research Center (UNDERC) – West indicates that as sinking brine shrimp cysts remain while many floating cysts are removed, the brine shrimp population is shifting to contain more sinking cysts.
The University of Notre Dame will attend the 2016 BIO International Convention, which is hosted by the Biotechnology Innovation Organization (BIO) from June 6 - 9, 2016 in San Francisco. Represented Notre Dame Research groups at the event include the Harper Cancer Research Institute (HCRI), the Center for Nano Science and Technology (NDnano), as well as Technology Transfer.
Today, April 25, is the annual World Malaria Day. This year’s theme – End Malaria for Good – seeks to build upon past successes in combatting this deadly disease, which killed over 435,000 people in 2015, and sustain this progress in order to truly “end malaria for good.” At the University of Notre Dame, Neil Lobo, a research associate professor of biological sciences and an Eck Institute for Global Health faculty member, is working to end malaria for good by focusing on the vectors that transmit the disease and how certain methods or interventions reduce malaria transmission.
When Europeans came to the New World in the 16th century, they brought measles and smallpox with them. Without the immunity Europeans had cultivated over the years, the native people in America quickly fell ill. Millions died as a result. Today, trees in the New World are also dying from diseases that were introduced through global trade started by the Europeans. However, trees are much more vulnerable than humans.
New research from the University of Notre Dame will be used to generate maps that provide time-sensitive, mosquito-to-human ratios that determine patterns of mosquito population dynamics for the Zika virus. The model outputs will be available online to provide users with the ability to find reported cases and estimated incidences by location of the virus to improve disease transmission and prevalence forecasts, which is critical to making accurate predictions and translating results into effective public health strategies.