Brandon Levy is a Health Communications Specialist for the NIH’s Intramural Research Program, where he works to increase the IRP’s public profile and ensure IRP scientists get the recognition they deserve. He particularly enjoys writing about the cutting-edge research performed at NIH but also produces videos and content for social media. Before joining the IRP, he worked as a science writer in NIH’s National Institute of Neurological Disorders and Stroke (NINDS) and as a postbaccalaureate Intramural Research Training Award (IRTA) fellow in NIH’s National Institute of Mental Health (NIMH), spending his days putting people inside giant magnets and sending magnetic waves into their brains to shed light on the mysteries of learning and memory. When he’s not hunched over a computer keyboard, Brandon enjoys singing in his acapella group, reading, honing his skills as an amateur chef, and over-obsessing about college basketball.
Prediction Method Could Help Prevent Age-Related Physical Decline
Throughout human history, people have sought insight into their fates from self-proclaimed psychics and other dubious fortune tellers. Fortunately, scientists are increasingly developing more reliable, data-driven ways to predict the future. For instance, IRP researchers recently showed that an assessment of the cellular batteries that power our muscles can predict the deterioration of physical abilities in older adults.
Pushing Cells to Their Limits Could Enable Earlier Diagnosis and Treatment
If the many stories of mothers lifting cars to save their trapped children prove anything, it’s that we cannot know the true capabilities of our bodies until they are put to the test. This concept, it turns out, could be the key to much earlier diagnosis for Parkinson’s disease. By stimulating specific neurons to push them to their limits, IRP researchers were able to detect Parkinson’s in mice in its very early stages, opening up the possibility that a similar test could one day allow human patients to begin treatment before the disease has caused too much damage.
IRP’s Ph.D. and Medical Students Present Research at Virtual Event
The IRP isn’t concerned only with discovering the secrets of how our bodies work and developing new therapies to treat disease. Senior scientists and many other employees at NIH also are actively involved in training the next generation of researchers. One place where the benefits of those efforts is strikingly clear is at NIH’s annual Graduate Student Research Symposium, where graduate students performing research in NIH labs show of the fruits of their partnerships with IRP researchers.
On February 16 and 17, more than 100 of the IRP’s graduate students presented their work virtually at the 18th edition of the event. These young scientists discussed the results of studies on a huge range of topics, from how hunger changes during pregnancy to how viruses cause cancer. Read on to learn about a small sampling of the projects they’ve been hard at work on.
Mouse Study Suggests Treatment Strategy Could Benefit Patients with Obesity
It’s bad enough that the excess abdominal fat carried by most individuals with obesity causes widespread inflammation throughout their bodies. To add insult to injury, that inflammation actually makes it harder to use up overloaded fat stores. However, a new IRP mouse study supports a two-pronged pharmaceutical approach that could break this vicious cycle and help improve the health of people with obesity.
Since the early days of the COVID-19 pandemic, IRP researchers have been hard at work learning about the virus and developing ways to prevent and treat infections. That research remains as important as ever, particularly as the new Omicron variant of the virus continues to spread rapidly.
Fortunately, NIH’s Intramural Targeted Anti-COVID-19 Program (ITAC) has been providing IRP scientists with millions of dollars to support their research on the pandemic virus, known as SARS-CoV-2. Last week, the “I Am Intramural” blog discussed ITAC-funded efforts to learn about the biology of the virus and how it affects the body. This week, we’ll look at IRP projects focused on ways to track, treat, and prevent infections.
It’s been more than two years since the first outbreak of COVID-19 occurred in China. During that time, amazing scientific advances have dramatically altered prevention and treatment for the illness, including the development of remarkably safe and effective vaccines. However, even with widespread vaccination, scientists predict that the disease will continue to circulate in society indefinitely, with seasonal ebbs and flows like the flu.
As a result, even as COVID-19 vaccine shots rolled out by the hundreds of millions, numerous IRP researchers continued studying the disease and the virus responsible for it. Many of these projects have been funded by the NIH’s Intramural Targeted Anti-COVID-19 Program (ITAC), an initiative that provides IRP researchers with funding for research related to COVID-19. Over the past year and a half, ITAC has provided more than $12 million to support a wide variety of projects — more than can be covered in just one blog post. Read on to learn about just a handful of the many ways IRP researchers are contributing to the fight against COVID-19, and stay tuned next week for another blog describing even more ITAC-funded COVID research.
Research in Cells Shows Promise for an Alternative Way to Halt Sperm Production
Birth control has long been mostly one-sided, as the vast majority of contraceptive methods are intended exclusively for women. However, recent IRP research has shown the potential of a new approach towards creating a reversible method of male contraception.
Women have a vast array of contraceptive options available to them, from ‘the pill’ to intrauterine devices (IUDs) and other products. However, for men, the only options aside from condoms are safe but irreversible surgical procedures. More than 40 percent of pregnancies in the U.S. are unintended, and additional options for male birth control could help reduce that number.
Early-Career Scientists Power Through Pandemic to Launch Labs
NIH has long prided itself on its ability to accelerate the careers of the brightest young physicians and scientists in the country. One of these many efforts is the Lasker Clinical Research Scholars Program, which provides a select group of individuals relatively early in their scientific careers with the funding and institutional support to start their own labs at NIH. After five to seven years of independent research in the IRP, Lasker Scholars are given the option to apply for three years of funding for work outside of NIH or to remain as investigators at NIH.
While launching a lab in the midst of a global pandemic is no easy task, five Lasker Scholars have done just that over the past year. Their research on cancer, Parkinson’s disease, childhood blindness, and inflammatory conditions is now well underway and promises to eventually improve the lives of many patients. Keep reading to learn more about how NIH’s newest Lasker Scholars are changing the way we treat those illnesses.
Immune System Genes Linked to Severe Side Effects in Patients with Rare Disease
When you run the largest-ever study of a rare childhood disease, you become the go-to person when your peers notice something peculiar in patients with the illness. It was not too surprising, then, when a researcher from Stanford University in Palo Alto, California, asked IRP investigator Michael Ombrello, M.D., to help her team follow a new lead in the mystery of why some patients with a rare inflammatory condition called Still’s disease were coming down with a life-threatening lung ailment. The results of their collaboration could lead to a new precision medicine approach that individualizes therapy for Still’s disease based on patients’ DNA.
Chronic Stress Diminishes Energy Production in the Brain
When power lines come down and the electricity shuts off, it’s understandably a worrying situation. As it turns out, people may become anxious not just when their homes are cut off from energy, but also when their brains find themselves short on power, according to recent IRP research done in mice.
While the misfortune of a blackout is temporary, many people experience chronic stress that bothers them continuously. In some individuals, repetitive stressors can contribute to the development of debilitating anxiety that interferes with everyday life. Intriguingly, past research has found evidence that problems with the biological batteries that power our cells, called mitochondria, might be involved in anxiety disorders, as well as some other psychiatric illnesses.
This page was last updated on Wednesday, March 15, 2023
