Brandon Levy

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.

Posts By This Author

Immune Cells’ Rallying Cry Negates Cardiovascular Surgery’s Benefits

Existing Medications Could Extend Procedure’s Protective Effects

surgeons performing surgery

While modern surgery is undoubtedly a life-saving modern marvel, mucking around inside the human body rarely comes without consequences. Certain life-extending procedures meant to combat heart disease, for instance, commonly cause cardiovascular complications of their own. Fortunately, a team led by IRP researchers has identified a promising approach for staving off those surgical side effects to keep patients’ hearts robust for longer.

Experimental Treatment Helps Neurons Recover From Damage

Mouse Study Could Lead to New Therapies for a Variety of Ailments

neurons firing

In most parts of your brain, the set of neurons you’re born with is what you’ve got for life — just like your fingers and toes, if you lose any, they’re not coming back. The body does have ways to encourage healing after a brain injury, but they are extremely constrained. However, by lending those natural systems a helping hand, IRP researchers have managed to dramatically boost regeneration and recovery of vision in mice with damage to the nerves that connect the eyes to the brain, an approach that could one day help people recover from other types of nervous system injuries as well.

Scouting Out Summer Poster Day

Annual Event Held In-Person for First Time in Four Years

Amia Black poses with her poster at Summer Poster Day

A few weeks ago, NIH’s Natcher Conference Center bustled with the youthful scientific enthusiasm of IRP summer interns for the first time since 2019, the last time that the IRP’s Summer Poster Day was held in-person. At this year’s event, held on August 3 and 4, the hundreds of high school and college students who conducted research in IRP labs as part of NIH’s Summer Internship Program this year eagerly showed off the fruits of their labors — from discoveries about how weight loss drugs affect the brain to new insights into a potential treatment target for age-related vision loss. Read on to learn more about a few of these scientific upstarts and the research revelations they’ve helped uncover.

Research Reveals Trigger for Brain’s Repairmen

IRP Discoveries Could Enhance Recovery from Brain Injuries

people with repair tools working on a person's head

Many futurists and science fiction writers dream about a time when nanobots will run around our bodies fixing any damage that occurs. Until that day comes, we’re reliant on our immune system to mop up when things go wrong, a fickle set of cells that sometimes needs a push to get going. IRP scientists recently discovered how a particular type of cell in the blood stimulates the brain’s construction crew to leap into action, potentially opening the door to treatments that boost healing in the brain.

Out of the Clinic and Into the Lab

Visiting Medical Students Look Back on IRP Research Experience

Alex Valenzuela

When patients are affected by complex and poorly understood medical problems, it can only be an advantage when their doctors have one foot in the exam room and another in a laboratory studying the disease. However, physicians don’t accrue scientific skills on their own. Rather, they often must venture outside of their medical education to gain experience in research via programs like NIH’s Medical Research Scholars Program (MRSP).

The MRSP allows medical students from across the United States to spend a year working in IRP labs alongside seasoned scientists. The 50 medical students and one dental student selected as 2022 Medical Research Scholars recently finished their time at NIH after arriving on campus last July. Between classes, clinical rounds, study sessions, and exams, five of those young men and women found the time to describe their experience at NIH to the “I Am Intramural” blog, so read on to get a taste of what the MRSP has to offer our nation’s aspiring physicians.

Crucial Protein Reins in Overzealous Bone Growth

IRP Study Answers Key Questions About Bone Development and Healing

man with fractured foot

The idea that there can be “too much of a good thing” applies just as much to the human body as it does to an overly sweet dessert or excessive holiday decorations. For instance, you might think that rapid bone growth would be helpful for fixing fractures, but it can actually make bones weaker in the long run. A recent IRP study revealed how a certain molecule manages the way bones develop in a growing fetus and heal after damage to make sure they don’t trade strength for speed.

Talk Science to Me

IRP Researchers Leave Jargon Behind for Three-Minute Talks Competition

scientist speaking into a megaphone

Scientific research is often said to take place in an “ivory tower” — not exactly an image associated with accessibility, trust, or empathy. Yet it is essential that members of the public be able to understand the work that researchers devote their lives to.

In recognition of that need, dozens of IRP postbacs, graduate students, and postdocs participate each year in NIH’s Three Minute Talks (TmT) competition. On June 22, this year’s eleven finalists offered clear and concise descriptions of their efforts to unfold the mysteries of proteins’ shapes, discover the lethal role of inflammation in infections, repackage cancer therapies to enhance their effectiveness, and much more.

The Boon of Blood

A Look Inside NIH’s Department of Transfusion Medicine

a patient receiving blood during a surgery

The essential role of blood in our bodies has been recognized as far back as the time of ancient Greece, when the Greek physician Hippocrates included it in his list of four ‘humors’ that influence our health and emotions. Since then, scientists have vastly expanded our understanding of the dark red liquid running through our veins and arteries. Nowadays, researchers and technicians like those in NIH’s Department of Transfusion Medicine (DTM) can not only safely remove blood from one person and transfuse it into another, but they can also transform it into incredible forms of therapy.

The Life-Saving NIH Blood Bank

Blood Donors Play Critical Role in IRP’s Mission

Hal Wilkins (left) and Dr. Kamille West-Mitchell (right) pose with a sign for the NIH Blood Bank

The NIH IRP is full of vampires. Hundreds of patients at the NIH Clinical Center — not to mention scientists in roughly 200 IRP labs — depend on blood provided by NIH’s very own blood bank.

Conveniently located in the NIH Clinical Center, the NIH Blood Bank collects roughly 4,000 units of ‘whole blood’ each year — the process most people think of when they think of donating blood. It also receives more than 2,000 annual donations of specific blood components, which are collected via a process that separates them from other parts of the blood and returns the rest to the donor’s body. Most of those donations gather blood-clotting platelets, but the NIH Blood Bank also occasionally collects oxygen-carrying red blood cells and infection-fighting ‘convalescent plasma.’

Treatment Corrects Consequences of Accelerated Cellular Aging

Mouse Study Demonstrates Promise of New Therapy for Rare Genetic Conditions

time warp

If you ask a scientist how old you are, you may be surprised to get a different answer depending on who you’re talking to. That’s because age can be measured both ‘chronologically’ — in terms of time — and at a cellular level. Indeed, certain genetic mutations cause cells to age faster, leading to a host of health problems. Fortunately, a recent IRP study performed in mice suggests that boosting levels of a specific molecule could help alleviate some of those patients’ symptoms.

This page was last updated on Wednesday, March 15, 2023