Annual Event Brandishes the Next Generation of Clinicians and Scientists
Wednesday, August 24, 2022
A year after hundreds of high school, undergraduate, and graduate students were only able to participate from afar in NIH’s 2021 Summer Internship Program, IRP researchers were excited to welcome some of the program’s 2022 participants to campus. Regardless of whether they were working in the lab or remotely, these budding scientists received a full-time immersion into the world of IRP science and, surely, learned a great deal from the mentorship of NIH’s many world-renowned researchers.
To celebrate the interns’ hard work, NIH’s Summer Poster Days on August 3 and 4 gave more than 600 of them the opportunity to virtually present posters explaining their projects. With so many bright young men and women displaying the fruits of their scientific labors, it was difficult to select just a handful to highlight in this blog. Read on to learn about how five of NIH’s 2022 summer interns shed light on topics from the microbes living on our skin to the blood-clotting platelets that flow through our veins.
Study Identifies Compounds That Could Aid Body’s Removal of Toxic Cancer Drugs
Tuesday, May 17, 2022
When it comes to cancer, the treatment can sometimes feel worse than the disease. Not only do chemotherapy drugs cause grueling side effects, but certain products made by otherwise benign bacteria living in our digestive system can interfere with the body’s ability to get rid of those toxic chemicals. A new IRP study used a cutting-edge computational approach to help identify compounds that inhibit one of those meddling bacterial molecules, which could eventually lead to the creation of medications that reduce some of chemotherapy’s side effects.
IRP’s Ph.D. and Medical Students Present Research at Virtual Event
Thursday, March 10, 2022
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.
Early-Career Scientists Power Through Pandemic to Launch Labs
Monday, January 24, 2022
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.
Budding Scientists Present Their Research During Three-Day Virtual Event
Monday, August 30, 2021
Although NIH’s 2021 Summer Internship Program (SIP) was fully virtual this year, that didn’t stop the hundreds of participating high school, college, and graduate students from contributing to a variety of important IRP research projects. More than 500 students who worked in NIH labs this summer presented their work during this year’s Summer Presentation Week, which took place August 3-5.
I sifted through the lengthy list of presenters at the event and spoke with a diverse group of young men and women who spent their summers expanding our knowledge of human health and biology. Read on to learn about these promising future scientists and doctors and the research they completed this summer.
Program Gives Boost to Early Stage Investigators
Monday, December 14, 2020
If TV shows like The Voice and America’s Got Talent are any indication, there are many extremely talented people out there who could become huge successes if presented with the right opportunity. This is no less the case in science, with thousands of extremely bright individuals quietly toiling away in their mentors’ labs as they await the chance to establish research programs of their own.
Fortunately, initiatives like the NIH’s Lasker Clinical Research Scholars Program exist to boost promising young researchers on to the next stage of their careers. Every year, the Lasker program allows a small group of early stage physician-scientists to establish their own labs at the NIH and carry out independent clinical research there for at least five years.
The five talented investigators selected as 2020 Lasker Scholars are pursuing a wide range of research questions, from how the immune system influences blood clotting to the mechanisms driving a rare and devastating skeletal disorder. Read on to learn more about the latest crop of researchers ramping up IRP labs of their very own.
NIH Researcher Recognized for Investigation into the Skin Microbiome
Tuesday, October 27, 2020
The National Academy of Medicine (NAM), first established in 1970 by the National Academy of Sciences as the Institute of Medicine (IOM), is comprised of more than 2,000 elected members from around the world who provide scientific and policy guidance on important matters relating to human health. Election to the NAM is considered one of the highest honors in the fields of health and medicine that recognizes individuals who have not only made critical scientific discoveries but have also demonstrated a laudable commitment to public service.
IRP senior investigator Julie Segre, Ph.D., was one of four IRP researchers elected to the NAM in 2019. Dr. Segre leads the Translational and Functional Genomics Branch at the National Human Genome Research Institute (NHGRI), where she studies the way in which the skin forms a barrier between the body and the environment. In particular, her research uses genetic sequencing to understand the bacterial and fungal microbes that live on human skin.
Four Questions with Dr. Niki Moutsopoulos
Friday, March 20, 2020
Our mouths are teeming with bacteria, a microbial ecosystem known as the oral microbiome. While these microbes are typically benign, under certain circumstances they can turn harmful and contribute to oral diseases such as periodontitis, a form of chronic gum disease characterized by microbe-driven inflammation of the soft tissues and bone that support our teeth. According to the Centers for Disease Control and Prevention (CDC), roughly 65 million Americans aged 30 or older have some degree of periodontitis. In its early stage, known as gingivitis, the gums become swollen and red due to inflammation, which is the body’s natural response to the presence of bacteria. If the condition worsens, it can lead to loose teeth and, eventually, bone or tooth loss.
NIH senior investigator Niki Moutsopoulos, Ph.D., head of the Oral Immunity and Inflammation Section at the National Institute of Dental and Craniofacial Research (NIDCR), studies periodontitis and aims to understand the immune system’s role in driving this destruction. In a 2018 study, she and her team of IRP researchers and outside collaborators discovered that an abnormal and unhealthy population of microbes in the mouth causes specialized immune cells, known as T helper 17 (Th17) cells, to trigger inflammation and destroy tissue, leading to periodontitis.
Five Questions with Dr. Heidi Kong and Dr. Julia Segre
Monday, November 25, 2019
When people think of skin health, they often think of protecting it from harmful UV rays or finding ways to avoid the fine lines and wrinkles that often come with aging and sun exposure. However, there are many factors and illnesses that impact skin health, including eczema, a chronic condition that affects tens of millions of Americans and causes the skin to become red and so itchy that it can interfere with patients’ sleep.
To combat such conditions, IRP researchers have spent decades investigating what causes them in humans through techniques such as immunology, genetics, molecular biology, and structural biology. In a 2014 study of healthy volunteers, IRP investigators Julia Segre, Ph.D., and Heidi Kong, M.D., M.H.Sc., used the latest genomic techniques to investigate the collection of microorganisms living on healthy human skin, known as the skin microbiome, in an attempt to understand how this collection of bacteria, fungi, and viruses may contribute to skin health. From their interdisciplinary research, the team was able to show that the array of microbes living on human skin is extremely diverse, varying greatly from individual to individual and between different areas of the body. This research opened doors for additional studies exploring how changes in the skin microbiome contribute to both common and rare skin diseases.
Tuesday, December 11, 2018
The more scientists have learned about the community of benign bacteria inside our bodies, known as the microbiome, the more effort they have put into recruiting it in the fight against disease. What’s more, scientists occasionally discover that treatments long thought to work completely independently of our native microbes also relieve symptoms by interacting with them. New IRP research into the most commonly used medication for type 2 diabetes has led to just such a revelation by demonstrating that its benefits stem in part from its ability to kill off a particular species of bacteria in the human digestive tract.