Diabetes and Endocrinology
Children’s National Hospital in Washington, D.C., was ranked No. 7 nationally in the U.S. News & World Report 2020-21 Best Children’s Hospitals annual rankings. This marks the fourth straight year Children’s National has made the list, which ranks the top 10 children’s hospitals nationwide.
In addition, its neonatology program, which provides newborn intensive care, ranked No.1 among all children’s hospitals for the fourth year in a row.
For the tenth straight year, Children’s National also ranked in all 10 specialty services, with seven specialties ranked in the top 10.
“Our number one goal is to provide the best care possible to children. Being recognized by U.S. News as one of the best hospitals reflects the strength that comes from putting children and their families first, and we are truly honored,” says Kurt Newman, M.D., president and CEO of Children’s National Hospital.
“This year, the news is especially meaningful, because our teams — like those at hospitals across the country — faced enormous challenges and worked heroically through a global pandemic to deliver excellent care.”
“Even in the midst of a pandemic, children have healthcare needs ranging from routine vaccinations to life-saving surgery and chemotherapy,” said Ben Harder, managing editor and chief of Health Analysis at U.S. News. “The Best Children’s Hospitals rankings are designed to help parents find quality medical care for a sick child and inform families’ conversations with pediatricians.”
The annual rankings are the most comprehensive source of quality-related information on U.S. pediatric hospitals. The rankings recognize the nation’s top 50 pediatric hospitals based on a scoring system developed by U.S. News. The top 10 scorers are awarded a distinction called the Honor Roll.
The bulk of the score for each specialty service is based on quality and outcomes data. The process includes a survey of relevant specialists across the country, who are asked to list hospitals they believe provide the best care for patients with the most complex conditions.
Below are links to the seven Children’s National specialty services that U.S. News ranked in the top 10 nationally:
- Neonatology (No. 1), led by Division Chief Billie Lou Short, M.D.
- Neurology and Neurosurgery (No. 3), led by Division Chiefs William D. Gaillard, M.D., and Robert F. Keating, M.D.
- Cancer (No. 6), led by Division Chief Jeffrey S. Dome, M.D., Ph.D.
- Nephrology (No. 7), led by Division Chief Marva Moxey-Mims, M.D., FASN
- Orthopedics (No. 9), led by Division Chief Matthew Oetgen, M.D., MBA
- Pulmonology and Lung Surgery (No.9), led by Division Chief Anastassios Koumbourlis, M.D., MPH
- Diabetes and Endocrinology (No. 10), led by Division Chief Andrew Dauber, M.D., MMSC
The Children’s National Research Institute recently released its 2019-2020 academic annual report, titled 150 Years Stronger Through Discovery and Care to mark the hospital’s 150th birthday. Not only does the annual report give an overview of the institute’s research and education efforts, but it also gives a peek in to how the institute has mobilized to address the coronavirus pandemic.
“Our inaugural research program in 1947 began with a budget of less than $10,000 for the study of polio — a pressing health problem for Washington’s children at the time and a pandemic that many of us remember from our own childhoods,” says Vittorio Gallo, Ph.D., chief research officer at Children’s National Hospital and scientific director at Children’s National Research Institute. “Today, our research portfolio has grown to more than $75 million, and our 314 research faculty and their staff are dedicated to finding answers to many of the health challenges in childhood.”
Highlights from the Children’s National Research Institute annual report
- In 2018, Children’s National began construction of its new Research & Innovation Campus (CNRIC) on 12 acres of land transferred by the U.S. Army as part of the decommissioning of the former Walter Reed Army Medical Center campus. In 2020, construction on the CNRIC will be complete, and in 2012, the Children’s National Research Institute will begin to transition to the campus.
- In late 2019, a team of scientists led by Eric Vilain, M.D., Ph.D., director of the Center for Genetic Medicine Research, traveled to the Democratic Republic of Congo to collect samples from 60 individuals that will form the basis of a new reference genome data set. The researchers hope their project will generate better reference genome data for diverse populations, starting with those of Central African descent.
- A gift of $5.7 million received by the Center for Translational Research’s director, Lisa Guay-Woodford, M.D., will reinforce close collaboration between research and clinical care to improve the care and treatment of children with polycystic kidney disease and other inherited renal disorders.
- The Center for Neuroscience Research’s integration into the infrastructure of Children’s National Hospital has created a unique set of opportunities for scientists and clinicians to work together on pressing problems in children’s health.
- Children’s National and the National Institute of Allergy and Infectious Diseases are tackling pediatric research across three main areas of mutual interest: primary immune deficiencies, food allergies and post-Lyme disease syndrome. Their shared goal is to conduct clinical and translational research that improves what we know about those conditions and how we care for children who have them.
- An immunotherapy trial has allowed a little boy to be a kid again. In the two years since he received cellular immunotherapy, Matthew has shown no signs of a returning tumor — the longest span of time he’s been tumor-free since age 3.
- In the past 6 years, the 104 device projects that came through the National Capital Consortium for Pediatric Device Innovation accelerator program raised $148,680,256 in follow-on funding.
- Even though he’s watched more than 500 aspiring physicians pass through the Children’s National pediatric residency program, program director Dewesh Agrawal, M.D., still gets teary at every graduation.
Understanding and treating the novel coronavirus (COVID-19)
In a short period of time, Children’s National Research Institute has mobilized its scientists to address COVID-19, focusing on understanding the virus and advancing solutions to ameliorate the impact today and for future generations. Children’s National Research Institute Director Mark Batshaw, M.D., highlighted some of these efforts in the annual report:
- Eric Vilain, M.D., Ph.D., director of the Center for Genetic Medicine Research, is looking at whether or not the microbiome of bacteria in the human nasal tract acts as a defensive shield against COVID-19.
- Catherine Bollard, M.D., MBChB, director of the Center for Cancer and Immunology Research, and her team are seeing if they can “train” T cells to attack the invading coronavirus.
- Sarah Mulkey, M.D., Ph.D., an investigator in the Center for Neuroscience Research and the Fetal Medicine Institute, is studying the effects of, and possible interventions for, coronavirus on the developing brain.
You can view the entire Children’s National Research Institute academic annual report online.
In 2018, Jennifer Boughton, a social worker at Children’s National Hospital, came up with the idea of starting a diabetes clinic for patients whose immigration status prevented them from qualifying for insurance. The idea came about after undocumented children were arriving in the emergency department with high blood sugar and dangerously elevated ketone levels.
Through donations and the employees, who volunteer their time, Boughton’s idea became a reality. In January of 2019, the diabetes center held its first access clinic. The clinic has been open every three months since then for undocumented children with diabetes.
Flyers for the clinic are sent to local schools and organizations to help recruit patients.
In the first year, the patient volume has quadrupled and the hbA1c levels have decreased for patients who attend.
Read more about the Diabetes Access Clinic here.
Unfortunately, we’ve been notified that the ENDO2020 conference has been canceled due to concerns of COVID-19. Becuase of this, we will not be hosting our reception in honor of Andrew Duaber, M.D., on Sunday, March 29.
We hope to see you at a future Endocrinology or Pediatric Endocrinology event.
Children’s National Hospital is incredibly proud of the work Dr. Dauber has done in the endocinology community.
Andrew Dauber, M.D., MMSc, division chief of Endocrinology at Children’s National Hospital, will be awarded the 2020 Richard E. Weitzman Outstanding Early Career Investigator Award at ENDO 2020. The prestigious award will be presented at the annual meeting of the Endocrine Society in recognition of Dauber’s work in understanding the regulation of growth and puberty, and applying innovative genetic technologies to studying pediatric endocrinology. Dauber credits many collaborators throughout the world, as well as the team at Children’s National for the award.
With a five-year grant from the National Institutes of Health (NIH), Dauber and colleagues from the Cincinnati Children’s Hospital Medical Center, Boston Children’s Hospital and the Children’s Hospital of Philadelphia are using electronic health records to identify children who likely have rare genetic growth disorders. Using cutting-edge DNA sequencing technologies, including whole exome sequencing, the researchers are aiming to identify novel genetic causes of severe growth disorders. The first paper describing genetic findings in patients with high IGF-1 levels was published in Hormone Research in Paediatrics in December 2019.
Dauber and researchers at Cincinnati Children’s Hospital Medical Center are exploring how to treat patients with mutations in the PAPPA2 gene. In 2016, the group described the first patients with mutations in this gene who had decreased the bioavailability of IGF-1, stunting their growth and development. In their current phase of research, findings are emphasizing the importance of this gene in regulating IGF-1 bioavailability throughout childhood. The ultimate aim is to create therapies to increase IGF-1 bioavailability, thereby supporting healthy growth and development in children. Their first study to track PAPPA2 and intact IBGBP-3 concentrations throughout childhood was published in the European Journal of Endocrinology in January 2020.
Dauber is particularly interested in studying children with dominantly inherited forms of short stature. Along with collaborators in Cincinnati, he currently has an ongoing treatment trial using growth hormone in patients with Aggrecan gene mutations. Dauber hopes to announce soon a new clinical trial for children with all forms of dominantly inherited short stature.
Study upon study has shown us that there are many factors that affect an individual’s height and growth. As these studies and the conversation around how to identify and address genomic anomalies become more prevalent, the team at Children’s National is increasingly interested in engaging with other centers around the country. In the coming months, the Children’s National Research & Innovation Campus will open on the grounds of the former Walter Reed Army Medical Center, which will serve as a one-of-a-kind pediatric research and innovation hub. A critical component to this campus is the co-location of Children’s National research with key partners and incubator space.
This past fall, Nadia Merchant, M.D., joined Children’s National Hospital as an endocrinologist in the Endocrinology and Diabetes Department. Dr. Merchant received her undergraduate and medical education at Weill Cornell Medical College in Qatar. She completed her pediatric residency at Wright State Boonshoft School of Medicine. She then completed her genetics residency and pediatric endocrine fellowship at Baylor College of Medicine/Texas Children’s Hospital.
Dr. Merchant was born with acromesomelic dysplasia, a rare genetic disorder, but that hasn’t stopped her from pursuing her medical career. While at Baylor College of Medicine, Dr. Merchant was very active in quality improvement projects, research and organizations that raise awareness of endocrine related conditions. For several years, she was a moderator at Baylor College of Medicine for “From Stress to Strength,” at a course for parents of children with genetic disorders and autism. Dr. Merchant also served as an endocrine fellow representative on the American Academy of Pediatrics Section on Endocrinology (SOEn) for the last two years and also served on the committee for a Bone and Mineral special interest group within the Pediatric Endocrine Society (PES). During medical school, she worked with Positive Exposure, an organization that uses visual arts to celebrate human diversity for individuals living with genetic, physical, behavioral and intellectual differences.
During the 2019 Endocrine Society Annual Meeting, Dr. Merchant won the Presidential Poster Award for her poster presentation: Assessing Metacarpal Cortical Thickness as a Tool to Evaluate Bone Density Compared to DXA in Osteogenesis Imperfecta a research project assessing whether hand film is an additional tool to detect low bone mineral density in children.
Dr. Nadia Merchant is currently one of the endocrinologists in the multidisciplinary bone health clinic at Children’s National, a clinic dedicated to addressing and improving bone health in children. Dr. Merchant also manages endocrine manifestations in children with rare genetic disorders.
The Endocrinology department at Children’s National is ranked among the best in the nation by “U.S. News & World Report”.
The callers pretended to be well-meaning parents who were trying to safely dispose of unneeded antibiotics and opioid-based prescription painkillers after their child’s surgery. Fewer than half of the California pharmacies they called provided correct prescription drug disposal details, a percentage that dropped sharply if the “secret shoppers” made their call on a weekend, according to a brief research report published online Dec. 31, 2019, in Annals of Internal Medicine.
“The Food and Drug Administration advises consumers about how to safely dispose of unneeded medicines and, because pharmacists can play an integral role in this conversation, the American Pharmacists Association says prescription medication disposal should follow FDA guidelines,” says Rachel E. Selekman, M.D., MAS, a pediatric urologist at Children’s National Hospital and the study’s first author. “We found very few California pharmacies permitted take-back of unneeded medications. There was also a striking difference in the accuracy and completeness of drug disposal information depending on whether they answered the call on a weekday or a weekend. That suggests room for improvement,” Dr. Selekman says.
The multi-institutional research team, led by Primary Investigator and senior author Hillary L. Copp, M.D., MS, at University of California, San Francisco, identified licensed pharmacies located in urban and rural settings in California. That state that accounts for 10% of all U.S. pharmacies. They wrote a script that guided four male and two female “secret shoppers” to ask about what to do about leftover antibiotics (sulfamethoxazole-trimethoprim tablets) and a liquid opioid-based painkiller (hydrocodone-acetaminophen). From late-February to late-April 2018, they called 898 pharmacies from 8 a.m. to 8 p.m., asking about the correct way to dispose of these medicines.
According to the FDA, consumers should mix most unused medicines with an unappealing substance, like kitty litter, place it in a sealed container and toss the container in the trash. Medicines that can be harmful to others, like opioids, should be flushed down the sink or toilet. Many pharmacies have programs or kiosks to handle unused prescription medicines.
Of the pharmacies surveyed in California:
- 47% provided correct information about disposing of antibiotics
- 29% provided correct information about how to dispose of both antibiotics and opioids
- 19% provided correct information about how to dispose of opioids
- 49% provided correct antibiotic disposal information and 20% provided correct opioid disposal information on weekday calls
- 15% provided correct antibiotic disposal information and 7% provided correct opioid disposal information on weekend calls
Asked specifically about drug take-back programs, just 11% said their pharmacy had one that could be used to dispose of antibiotics or opioids.
“Unused prescription medications can be misused by others and can result in accidental childhood poisonings,” Dr. Selekman adds. “The bottom line is that we often talk about how to address the problem of too many unused medications lingering in homes. There are many reasons this is a problem, but part of the problem is nobody knows what to do if they have too many prescription medicines. Because of this research, we have discovered that pharmacies don’t uniformly provide accurate information to our patients. Patients, families and health care professionals who advise families should work together to help improve and expand safe disposal options for these powerful medications.”
In addition to Drs. Selekman and Copp, the research team includes co-authors Thomas W. Gaither, M.D., MAS, Zachary Kornberg, BA, and Aron Liaw, M.D., all of whom were at the University of California, San Francisco, School of Medicine, Division of Pediatric Urology at the time the study was performed.
Brynn Marks, M.D., endocrinologist at Children’s National Hospital, was diagnosed with Type 1 diabetes at the age of five years old and knows too well the struggles that may come with managing this chronic condition. After finding the right, knowledgeable provider as a teen, Dr. Marks realized that she wanted to become an endocrinologist and be that resource and support for others with Type 1.
Developments in diabetes technologies, including continuous glucose monitors (CGM) and insulin pumps, hold great promise for improving diabetes control while also improving quality of life for those living with Type 1. However, the pace of development also presents challenges for busy clinicians who must keep up with rapid developments in the field. Dr. Marks is focused on making sure patients and providers have the latest information and training on diabetes technologies with the goal that they can be more effectively used by more people in the real world.
“These diabetes technologies are very important for kids and teens with diabetes because they can help them to live life as normally as possible while affording the freedom they need to just be kids,” says Dr. Marks.
Dr. Marks’ recent research includes a study where she used an app to deliver medical education about diabetes technology. Participants received authentic, case-based scenarios focused on the technologies to help them apply knowledge of these technologies to real-world clinical scenarios involving insulin pumps and CGMs. All of the education was delivered through questions and explanations in an effort to keep the learners engaged with the curriculum. The questions were repeated over 3-4 months to improve learning and long-term knowledge retention. The study showed that knowledge and confidence about these technologies improved and ultimately led to better patient care.
Dr. Marks presented two posters at the International Society for Pediatric and Adolescent Diabetes (ISPAD) meeting in October related to her efforts to make these technologies more accessible:
Experiential Learning in T1D Technology Education: Knowledge of Parents and Clinicians: Dr. Marks enrolled different groups of learners in the diabetes technology curriculum mentioned above, including parents of children with Type 1 diabetes, attending physicians, pediatric endocrine fellows and certified diabetes educators. Results showed minimal difference among those groups in terms of knowledge about the pumps and CGMs. Interestingly, clinicians who had the opportunity to wear the technologies for educational purposes had greater knowledge than clinicians who did not have the same opportunity. Based on these results, Dr. Marks advocated that opportunities to wear pumps and CGMs should be a routine part of education for clinicians working with these technologies.
A Qualitative Analysis of Clinicians’ Experiences Wearing CGM: Dr. Marks explored the reactions of clinicians without diabetes who were given the opportunity to wear continuous glucose monitors for 1 week. Participants reported that the opportunity to wear these technologies improved their knowledge and gave them greater empathy for patients using CGM.
Dr. Marks’ work to date has identified strategies to improve knowledge about insulin pumps and CGM. Moving forward, she will continue to study the best ways to educate parents and clinicians about these diabetes technologies in hopes of improving the day to day lives of the children they care for.
More than 30 million Americans have diabetes, with the vast majority having Type 2 disease. Characterized by insulin resistance and persistently high blood sugar levels, poorly controlled Type 2 diabetes has a host of well-recognized complications: compared with the general population, a greatly increased risk of kidney disease, vision loss, heart attacks and strokes and lower limb amputations.
But more recently, says Nathan A. Smith, MS, Ph.D., a principal investigator in Children’s National Research Institute’s Center for Neuroscience Research, another consequence has become increasingly apparent. With increasing insulin resistance comes cognitive damage, a factor that contributes significantly to dementia diagnoses as patients age.
The brain comprises only 2% of the body’s volume, but it uses more than 20% of its energy, Smith explains – which makes this organ particularly vulnerable to changes in metabolism. Type 2 diabetes and even prediabetic changes in glucose metabolism inflict damage upon this organ in mechanisms with dangerous synergy, he adds. Insulin resistance itself stresses brain cells, slowly depriving them of fuel. As blood sugar rises, it also increases inflammation and blocks nitric oxide, which together narrow the brain’s blood vessels while also increasing blood viscosity.
When the brain’s neurons slowly starve, they become increasingly inefficient at doing their job, eventually succumbing to this deprivation. These hits don’t just affect individual cells, Smith adds. They also affect connectivity that spans across the brain, neural networks that are a major focus of his research.
While it’s well established that Type 2 diabetes significantly boosts the risk of cognitive decline, Smith says, it’s been unclear whether this process might be halted or even reversed. It’s this question that forms the basis of a collaborative Frontiers grant, $2.5 million from the National Science Foundation split between his laboratory; the lead institution, Stony Brook University; and Massachusetts General Hospital/Harvard Medical School.
Smith and colleagues at the three institutions are testing whether changing the brain’s fuel source from glucose to ketones – byproducts from fat metabolism – could potentially save neurons and neural networks over time. Ketones already have shown promise for decades in treating some types of epilepsy, a disease that sometimes stems from an imbalance in neuronal excitation and inhibition. When some patients start on a ketogenic diet – an extreme version of a popular fat-based diet – many can significantly decrease or even stop their seizures, bringing their misfiring brain cells back to health.
Principal Investigator Smith and his laboratory at the Children’s National Research Institute are using experimental models to test whether ketones could protect the brain against the ravages of insulin resistance. They’re looking specifically at interneurons, the inhibitory cells of the brain and the most energy demanding. The team is using a technique known as patch clamping to determine how either insulin resistance or insulin resistance in the presence of ketones affect these cells’ ability to fire.
They’re also looking at how calcium ions migrate in and out of the cells’ membranes, a necessary prerequisite for neurons’ electrical activity. Finally, they’re evaluating whether these potential changes to the cells’ electrophysiological properties in turn change how different parts of the brain communicate with each other, potentially restructuring the networks that are vital to every action this organ performs.
Colleagues at Athinoula A. Martinos Center for Biomedical Imaging at Massachusetts General Hospital and Harvard Medical School, led by Principal Investigator Eva-Maria Ratai, Ph.D., will perform parallel work in human subjects. They will use imaging to determine how these two fuel types, glucose or ketones, affect how the brain uses energy and produces the communication molecules known as neurotransmitters. They’re also investigating how these factors might affect the stability of neural networks using techniques that investigate the performance of these networks both while study subjects are at rest and performing a task.
Finally, colleagues at the Laufer Center for Physical and Quantitative Biology at Stony Brook University, led by Principal Investigator Lilianne R. Mujica-Parodi, Ph.D., will use results generated at the other two institutions to construct computational models that can accurately predict how the brain will behave under metabolic stress: how it copes when deprived of fuel and whether it might be able to retain healthy function when its cells receive ketones instead of glucose.
Collectively, Smith says, these results could help retain brain function even under glucose restraints. (For this, the research team owes a special thanks to Mujica-Parodi, who assembled the group to answer this important question, thus underscoring the importance of team science, he adds.)
“By supplying an alternate fuel source, we may eventually be able to preserve the brain even in the face of insulin resistance,” Smith says.
Recently, Kurt Newman, M.D., president and CEO of Children’s National Hospital, authored an opinion piece for the popular political website, The Hill. In the article, he called upon stakeholders from across the landscape to address the significant innovation gap in children’s healthcare versus adults.
As Chair of the Board of Trustees of the Children’s Hospital Association, Dr. Newman knows the importance of raising awareness among policy makers at the federal and state level about the healthcare needs of children. Dr. Newman believes that children’s health should be a national priority that is addressed comprehensively. With years of experience as a pediatric surgeon, he is concerned by the major inequities in the advancements of children’s medical devices and technologies versus those for adults. That’s why Children’s National is working to create collaborations, influence policies and facilitate changes that will accelerate the pace of pediatric healthcare innovation for the benefit of children everywhere. One way that the hospital is tackling this challenge is by developing the Children’s National Research & Innovation Campus, which will be the nation’s first innovation campus focused on pediatric research.
Children’s National Hospital and Virginia Tech create formal partnership that includes the launch of a Virginia Tech biomedical research facility within the new Children’s National Research & Innovation Campus.
Children’s National Hospital and Virginia Tech recently announced a formal partnership that will include the launch of a 12,000-square-foot Virginia Tech biomedical research facility within the new Children’s National Research & Innovation Campus. The campus is an expansion of Children’s National that is located on a nearly 12-acre portion of the former Walter Reed Army Medical Center in Washington, D.C. and is set to open its first phase in December 2020. This new collaboration brings together Virginia Tech, a top tier academic research institution, with Children’s National, a U.S. News and World Report top 10 children’s hospital, on what will be the nation’s first innovation campus focused on pediatric research.
“Virginia Tech is an ideal partner to help us deliver on what we promised for the Children’s National Research & Innovation Campus – an ecosystem that enables us to accelerate the translation of potential breakthrough discoveries into new treatments and technologies,” says Kurt Newman, M.D., president and CEO, Children’s National. “Our clinical expertise combined with Virginia Tech’s leadership in engineering and technology, and its growing emphasis on biomedical research, will be a significant advance in developing much needed treatment and cures to save children’s lives.”
Earlier this year, Children’s National announced a collaboration with Johnson & Johnson Innovation LLC to launch JLABS @ Washington, DC at the Research & Innovation Campus. The JLABS @ Washington, DC site will be open to pharmaceutical, medical device, consumer and health technology companies that are aiming to advance the development of new drugs, medical devices, precision diagnostics and health technologies, including applications in pediatrics.
“We are proud to welcome Virginia Tech to our historic Walter Reed campus – a campus that is shaping up to host some of the top minds, talent and innovation incubators in the world,” says Washington, D.C. Mayor Muriel Bowser. “The new Children’s National Research & Innovation Campus will exemplify why D.C. is the capital of inclusive innovation – because we are a city committed to building the public and private partnerships necessary to drive discoveries, create jobs, promote economic growth and keep D.C. at the forefront of innovation and change.”
Faculty from the Children’s National Research Institute and the Fralin Biomedical Research Institute at Virginia Tech Carilion (VTC) have worked together for more than a decade, already resulting in shared research grants, collaborative publications and shared intellectual property. Together, the two institutions will now expand their collaborations to develop new drugs, medical devices, software applications and other novel treatments for cancer, rare diseases and other disorders.
“Joining with Children’s National in the nation’s capital positions Virginia Tech to improve the health and well-being of infants and children around the world,” says Virginia Tech President Tim Sands, Ph.D. “This partnership resonates with our land-grant mission to solve big problems and create new opportunities in Virginia and D.C. through education, technology and research.”
The partnership with Children’s National adds to Virginia Tech’s growing footprint in the Washington D.C. region, which includes plans for a new graduate campus in Alexandria, Va. with a human-centered approach to technological innovation. Sands said the proximity of the two locations – just across the Potomac – will enable researchers to leverage resources, and will also create opportunities with the Virginia Tech campus in Blacksburg, Va. and the Virginia Tech Carilion Health Science and Technology campus in Roanoke, Va.
Carilion Clinic and Children’s National have an existing collaboration for provision of certain specialized pediatric clinical services. The more formalized partnership between Virginia Tech and Children’s National will drive the already strong Virginia Tech-Carilion Clinic partnership, particularly for children’s health initiatives and facilitate collaborations between all three institutions in the pediatric research and clinical service domains.
Children’s National and Virginia Tech will engage in joint faculty recruiting, joint intellectual property, joint training of students and fellows, and collaborative research projects and programs according to Michael Friedlander, Ph.D., Virginia Tech’s vice president for health sciences and technology, and executive director of the Fralin Biomedical Research Institute at VTC.
“The expansion and formalization of our partnership with Children’s National is extremely timely and vital for pediatric research innovation and for translating these innovations into practice to prevent, treat and ultimately cure nervous system cancer in children,” says Friedlander, who has collaborated with Children’s National leaders and researchers for more than 20 years. “Both Virginia Tech and Children’s National have similar values and cultures with a firm commitment to discovery and innovation in the service of society.”
“Brain and other nervous system cancers are among the most common cancers in children (alongside leukemia),” says Friedlander. “With our strength in neurobiology including adult brain cancer research in both humans and companion animals at Virginia Tech and the strength of Children’s National research in pediatric cancer, developmental neuroscience and intellectual disabilities, this is a perfect match.”
The design of the Children’s National Research & Innovation Campus not only makes it conducive for the hospital to strengthen its prestigious partnerships with Virginia Tech and Johnson & Johnson, it also fosters synergies with federal agencies like the Biomedical Advanced Research and Development Authority, which will collaborate with JLABS @ Washington, DC to establish a specialized innovation zone to develop responses to health security threats. As more partners sign on, this convergence of key public and private institutions will accelerate discoveries and bring them to market faster for the benefit of children and adults.
“The Children’s National Research & Innovation Campus pairs an inspirational mission to find new treatments for childhood illness and disease with the ideal environment for early stage companies. I am confident the campus will be a magnet for big ideas and will be an economic boost for Washington DC and the region,” says Jeff Zients, who was appointed chair of the Children’s National Board of Directors effective October 1, 2019. As a CEO and the former director of President Obama’s National Economic Council, Zients says that “When you bring together business, academia, health care and government in the right setting, you create a hotbed for innovation.”
Ranked 7th in National Institutes of Health research funding among pediatric hospitals, Children’s National continues to foster collaborations as it prepares to open its first 158,000-square-foot phase of its Research & Innovation Campus. These key partnerships will enable the hospital to fulfill its mission of keeping children top of mind for healthcare innovation and research while also contributing to Washington D.C.’s thriving innovation economy.
On Nov. 10, 2019, more than 30 pediatric endocrine physicians and nurse practitioners from Washington, D.C., Maryland and Northern Virginia gathered at Children’s National Hospital to discuss the latest in pediatric endocrinology research.
Organized by Paul Kaplowitz, M.D., Professor Emeritus of Pediatrics, this was the third regional pediatric endocrinology meeting since 2012 and the second held at the hospital. “The meetings are a great opportunity for providers to meet regional colleagues who they may communicate with about patients but rarely see face to face,” explains Dr. Kaplowitz.
The providers spent half a day at Children’s National viewing presentations and connecting with their colleagues. Among the presentations was a talk by new Children’s National faculty member Brynn Marks, M.D., MSHPEd, titled, “Medical Education in Diabetes Technologies.”
The presentation highlighted Dr. Marks’ research on how to best teach providers to make optimal use of the information provided by continuous blood glucose monitoring, as well as how to adjust insulin pump settings based on frequent blood glucose testing.
Another notable presentation was by Richard Kahn, Ph.D., recently retired former chief scientific and medical officer at the American Diabetes Association. Dr. Kahn’s talk was titled “Prediabetes: Is it a meaningful diagnosis?”
“This was an excellent talk whose message was that making a diagnosis of ‘prediabetes’ may not be nearly as helpful as we thought, since most patients tests either revert to normal or remain borderline, and there is no treatment or lifestyle change which greatly reduces progression to type 2 diabetes,” says Dr. Kaplowitz.
Children’s National regional pediatric endocrinology meeting presentations
Welcome from Paul Kaplowitz, M.D., and Children’s National Endocrinology Division Chief Andrew Dauber, M.D.
“Prediabetes: Is it a meaningful diagnosis?”
Richard Kahn, Ph.D., University of North Carolina at Chapel Hill
“Overlapping genetic architecture of Type 2 diabetes and Cystic fibrosis-related diabetes”
Scott Blackman, M.D., Ph.D., Johns Hopkins Medicine
“Pediatric Pituitary Tumors: What we have learned from the NIH cohort”
Christina Tatsi, M.D., Ph.D., National Institutes of Health
“Medical Education in Diabetes Technologies”
Brynn Marks, M.D., MSHPEd, Children’s National Hospital
“A phenotypic female infant with bilateral palpable gonads”
Cortney Bleach, M.D., Walter Reed National Military Medical Center
“Estimating plasma glucose with the FreeStyle Libre Pro CGM in youth: An accuracy analysis”
Miranda Broadney, M.D., MPH, University of Maryland School of Medicine
“Recruiting for research project on “Arginine-Stimulated Copeptin in the diagnosis of central diabetes insipidus”
Chelsi Flippo, M.D., Fellow, National Institutes of Health
When Lisa M. Guay-Woodford, M.D., McGehee Joyce Professor of Pediatrics at Children’s National Hospital, considers a brand-new gift, she likens it to 6 million gallons of “rocket fuel” that will power new research to better understand polycystic kidney disease.
Dr. Guay-Woodford received a $5.7 million dollar gift to support PKD clinical and research activities. PKD is a genetic disorder characterized by clusters of fluid-filled sacs (cysts) multiplying and interfering with the kidneys’ ability to filter waste from the blood. The kidneys’ smooth surface transforms to a bumpy texture as the essential organs grow oversized and riddled with cysts.
The extraordinary generosity got its start in an ordinary clinical visit.
Dr. Guay-Woodford saw a young patient in her clinic at Children’s National a few times in 2015. The child’s diagnosis sparked a voyage of discovery for the patient’s extended family and, ultimately, they attended a presentation she gave during a regional meeting about PKD. That led to a telephone conversation and in-person meeting as they invited her to describe “the white space” between what was being done at the time to better understand PKD and what could be done.
“It’s the power of the art and science of medicine. They come to see people like me because of the science. If we can convey to patients and families that who they are and their unique concerns are really important to researchers, that becomes a powerful connection,” she says. “The art plus the science equals hope. That is what these families are looking for: We give people the latest insights about their disease because information is power.”
The infusion of new funding will strengthen the global initiative’s four pillars:
- Coordinated care for children and families impacted by renal cystic disease. The Inherited and Polycystic Kidney Disease (IPKD) program, launched September 2019, includes a cadre of experts working together as a team in the medical home so that “in a single, one-stop visit, Children’s National can address the myriad concerns they have,” she explains. A multi-disciplinary team that includes nephrologists, hepatologists and endocrinology experts meets weekly to ensure the Center of Excellence provides the highest-caliber patient care. The team includes genetic counselors to empower families with knowledge about genetic risks and testing opportunities. A nurse helps families navigate the maze of who to call about which issue. Psychologists help to ease anxiety. “There is stress. There is fear. There is pain that can be associated with this set of diseases. The good news is we can control their medical issues. The bad news is some children have difficulty coping. Our psychologists help children cope so they can be a child and do the normal things that children do,” she says.
- Strengthening global databases to capture PKD variations. The team will expand its outreach to other centers located around the world – including Australia, Europe, India and Latin America – caring for patients with both the recessive and dominant forms of polycystic kidney disease, to better understand the variety of ways the disease can manifest in children. “We really don’t know a lot about kids with the dominant form of the disease. How hard should we push to control their blood pressure, knowing that could ease symptoms? What are the ramifications of experiencing acute pain compared with chronic pain? How much do these pain flareups interfere with daily life and a child’s sense of self,” she asks. Capturing the nuances of the worldwide experience offers the power of harnessing even more data. And ensuring that teams collect data in a consistent way means each group would have the potential to extract the most useful information from database queries.
- Filling a ‘desperate need’ for biomarkers. Developing clinical trials for new therapies requires having biomarkers that indicate the disease course. Such biomarkers have been instrumental in personalizing care for patients with other chronic conditions. “We are in desperate need for such biomarkers, and this new funding will underwrite pilot studies to identify and validate these disease markers. The first bite at the apple will leverage our imaging data to identify promising biomarkers,” she says.
- Genetic mechanisms that trigger kidney disease. About 500,000 people in the U.S. have PKD. In many cases, children inherit a genetic mutation but, often, their genetic mutation develops spontaneously. Dr. Guay-Woodford’s research about the mechanisms that make certain inherited renal disorders lethal, such as autosomal recessive polycystic kidney disease, is recognized around the world. The fourth pillar of the new project provides funding to continue her lab’s research efforts to improve the mechanistic understanding of what triggers PKD.
Adolescents with Type 2 diabetes experienced more hyperfiltration and earlier attenuation of their elevated urine albumin-to-creatinine ratio (UACR) after gastric bypass surgery compared with adults. This finding contrasts with adolescents or adults who did not have diabetes prior to surgery, according to research presented Nov. 8, 2019, during the American Society of Nephrology’s Kidney Week 2019, the world’s largest gathering of kidney researchers.
“Findings from this work support a recent policy statement by the American Academy of Pediatrics (AAP) that advocates for increasing severely obese youths’ access to bariatric surgery,” says Marva Moxey-Mims, M.D., Chief of the Division of Nephrology at Children’s National Hospital and a study co-author. “We know that bariatric surgery improves markers of kidney health in severely obese adults and adolescents. This research helps to elucidate possible differences in kidney disease outcomes between children and adults post-surgery.”
According to the AAP, the prevalence of severe obesity in youth aged 12 to 19 has nearly doubled since 1999. Now, 4.5 million U.S. children are affected by severe obesity, defined as having a body mass index ≥35 or ≥120% of the 95th percentile for age and sex.
In a Roux-en-Y gastric bypass, the surgeon staples the stomach to make it smaller, so people eat less. Then, they attach the lower part of the small intestine in a way that bypasses most of the stomach so the body takes in fewer calories.
The multi-institutional study team examined the health effects of such gastric bypass surgeries by comparing 161 adolescents with 396 adults enrolled in related studies. They compared their estimated glomerular filtration rates by serum creatinine and cystatin C. UACR was also compared at various time periods, up till five years after surgery.
Across the board, adolescents had higher UACR – a key marker for chronic kidney disease – than adults. However, for kids who had Type 2 diabetes prior to surgery, the prevalence of elevated UACR levels dip from 29% pre-surgery to 6% one year post-surgery. By contrast, adults who had diabetes prior to surgery and elevated UACR did not see a significant reduction in UACR until five years post-surgery.
While hyperfiltration prevalence was similar in study participants who did not have Type 2 diabetes, adolescents who had Type 2 diabetes prior to surgery had an increased prevalence of hyperfiltration for the duration of the study period.
Financial support for research described in this post was provided by the National Institute of Diabetes and Digestive and Kidney Diseases.
ASN Kidney Week 2019 presentation
“Five-year kidney outcomes of bariatric surgery in adolescents compared with adults”
Friday, Nov. 8, 2019, 10 a.m. to noon (EST)
Petter Bjornstad, University of Colorado School of Medicine; Todd Jenkins, Edward Nehus and Mark Mitsnefes, all of Cincinnati Children’s Hospital; Marva M. Moxey-Mims, Children’s National Hospital; and Thomas H. Inge, Children’s Hospital Colorado.
Morphometric and textural analyses of magnetic resonance imaging (MRI) can point out subtle architectural deviations that are associated with fetal growth restriction (FGR) during the second half of pregnancy. The first-time finding hints at the potential to spot otherwise hidden placental woes earlier and intervene in a more timely fashion, a research team led by Children’s National Hospital faculty reports in Pediatric Research.
“We found reduced placental size, as expected, but also determined that the textural metrics are accelerated in FGR when factoring in gestational age, suggesting premature placental aging in FGR,” says Nickie Andescavage, M.D., a neonatologist at Children’s National and the study’s lead author. “While morphometric and textural features can discriminate placental differences between FGR cases with and without Doppler abnormalities, the pattern of affected features differs between these sub-groups. Of note, placental insufficiency with abnormal Doppler findings have significant differences in the signal-intensity metrics, perhaps related to differences of water content within the placenta.”
The placenta, an organ shared by the pregnant woman and the developing fetus, delivers oxygen and nutrients to the developing fetus and ferries away waste products. Placental insufficiency is characterized by a placenta that develops poorly or is damaged, impairing blood flow, and can result in still birth or death shortly after birth. Surviving infants may be born preterm or suffer early brain injury; later in life, they may experience cardiovascular, metabolic or neuropsychiatric problems.
Because there are no available tools to help clinicians identify small but critical changes in placental architecture during pregnancy, placental insufficiency often is found after some damage is already done. Typically, it is discovered when FGR is diagnosed, when a fetus weighs less than 9 of 10 fetuses of the same gestational age.
“There is a growing appreciation for the prenatal origin of some neuropsychiatric disorders that manifest years to decades later. Those nine months of gestation very much define the breath of who we later become as adults,” says Catherine Limperopoulos, Ph.D., director of MRI Research of the Developing Brain at Children’s National and the study’s senior author. “By identifying better biomarkers of fetal distress at an earlier stage in pregnancy and refining our imaging toolkit to detect them, we set the stage to be able to intervene earlier and improve children’s overall outcomes.”
The research team studied 32 healthy pregnancies and compared them with 34 pregnancies complicated by FGR. These women underwent up to two MRIs between 20 weeks to 40 weeks gestation. They also had abdominal circumference, fetal head circumference and fetal femur length measured as well as fetal weight estimated.
In pregnancies complicated by FGR, placentas were smaller, thinner and shorter than uncomplicated pregnancies and had decreased placental volume. Ten of 13 textural and morphometric features that differed between the two groups were associated with absolute birth weight.
“Interestingly, when FGR is diagnosed in the second trimester, placental volume, elongation and thickness are significantly reduced compared with healthy pregnancies, whereas the late-onset of FGR only affects placental volume,” Limperopoulos adds. “We believe with early-onset FGR there is a more significant reduction in the developing placental units that is detected by gross measures of size and shape. By the third trimester, the overall shape of the placenta seems to have been well defined so that primarily volume is affected in late-onset FGR.”
In addition to Dr. Andescavage and Limperopoulos, study co-authors include Sonia Dahdouh, Sayali Yewale, Dorothy Bulas, M.D., chief of the Division of Diagnostic Imaging and Radiology, and Biostatistician, Marni Jacobs, Ph.D., MPH, all of Children’s National; Sara Iqbal, of MedStar Washington Hospital Center; and Ahmet Baschat, of Johns Hopkins Center for Fetal Therapy.
Financial support for research described in this post was provided by the National Institutes of Health under award number 1U54HD090257, R01-HL116585, UL1TR000075 and KL2TR000076, and the Clinical-Translational Science Institute-Children’s National.
Mihailo Kaplarevic, Ph.D., the newly minted Chief Research Information Officer at Children’s National Hospital and Bioinformatics Division Chief at Children’s National Research Institute, will provide computational support, advice, informational guidance, expertise in big data and data analyses for researchers and clinicians.
Kaplarevic’s new job is much like the role he played most recently at the National Heart, Lung and Blood Institute (NHLBI), assembling a team of researchers and scientists skilled in computing and statistical analyses to assist as in-house experts for other researchers and scientists.
NHLBI was the first institute within the National Institutes of Health (NIH) family to set up a scientific information office. During his tenure, a half-dozen other NIH institutions followed, setting up the same entity to help bridge the enormous gap between basic and clinical science and everything related to IT.
“There is a difference compared with traditional IT support at Children’s National – which will remain in place and still do the same sort of things they have been doing so far,” he says of The Bear Institute for Health Innovation. “The difference is this office has experience in research because every single one of us was a researcher at a certain point in our career: We are published. We applied for grants. We lived the life of a typical scientist. On top of that, we’re coming from the computational world. That helps us bridge the gaps between research and clinical worlds and IT.”
Ultimately, he aims to foster groundbreaking science by recognizing the potential to enhance research projects by bringing expertise acquired over his career and powerful computing tools to help teams achieve their goals in a less expensive and more efficient way.
“I have lived the life of a typical scientist. I know exactly how painful and frustrating it can be to want to do something quickly and efficiently but be slowed by technological barriers,” he adds.
As just one example, his office will design the high-performance computing cluster for the hospital to help teams extract more useful clinical and research data with fewer headaches.
Right now, the hospital has three independent clinical systems storing patient data; all serve a different purpose. (And there are also a couple of research information systems, also used for different purposes.) Since databases are his expertise, he will be involved in consolidating data resources, finding the best way to infuse the project with the bigger-picture mission – especially for translational science – and creating meaningful, actionable reports.
“It’s not only about running fewer queries,” he explains. “One needs to know how to design the right question. One needs to know how to design that question in a way that the systems could understand. And, once you get the data back, it’s a big set of things that you need to further filter and carefully shape. Only then will you get the essence that has clinical or scientific value. It’s a long process.”
As he was introduced during a Children’s National Research Institute faculty meeting in late-September 2019, Kaplarevic joked that his move away from pure computer science into a health care and clinical research domain was triggered by his parents: “When my mom would introduce me, she would say ‘My son is a doctor, but not the kind of doctor who helps other people.’ ”
Some of that know-how will play out by applying tools and methodology to analyze big data to pluck out the wheat (useful data) from the chaff in an efficient and useful way. On projects that involve leveraging cloud computing for storing massive amounts of data, it could entail analyzing the data wisely to reduce its size when it comes back from the cloud – when the real storage costs come in. “You can save a lot of money by being smart about how you analyze data,” he says.
While he expects his first few months will be spent getting the lay of the land, understanding research project portfolios, key principal investigators and the pediatric hospital’s biggest users in the computational domain, he has ambitious longer-term goals.
“Three years from now, I would like this institution to say that the researchers are feeling confident that their research is not affected by limitations related to computer science in general. I would like this place to become a very attractive environment for up-and-coming researchers as well as for established researchers because we are offering cutting-edge technological efficiencies; we are following the trends; we are a secure place; and we foster science in the best possible way by making computational services accessible, affordable and reliable.”
Unfortunately, we’ve been notified that the ENDO2020 conference has been canceled due to concerns of COVID-19. Becuase of this, we will not be hosting our reception in honor of Andrew Duaber, M.D., on Sunday, March 29.
We hope to see you at a future Endocrinology or Pediatric Endocrinology event.
Children’s National Hospital is incredibly proud of the work Dr. Dauber has done in the endocinology community.
Andrew Dauber, M.D., MMSc, division chief of Endocrinology at Children’s National Hospital, will receive the 2020 Richard E. Weitzman Outstanding Early Career Investigator Award from The Endocrine Society. Given annually, the award was established in 1982 and honors the memory of the late Richard E. Weitzman, who had a brief but outstanding career studying neurohypophyseal hormone and cardiovascular-endocrine physiology – two seminal areas of modern endocrinology.
Dr. Dauber was selected as a recipient for the prestigious award for his contributions to understanding the regulation of growth and puberty, and his success at applying innovative genetic technologies to studying pediatric endocrinology.
“I feel extremely honored and humbled to be the recipient of the Richard E. Weitzman Outstanding Early Career Investigator Award from the Endocrine Society,” says Dr. Dauber. “I am so grateful to my many collaborators throughout the world as well as to my entire research team whose hard work and friendship are the basis for this award. I am excited to continue our work at Children’s National, an institution dedicated to innovation and team science.”
Dr. Dauber joined Children’s National in 2018 and specializes in studying and treating growth disorders. He has published over 75 studies examining genetic clues to endocrine disorders, with a focus on short stature and growth disorders.
The award will be presented at ENDO 2020, The Endocrine Society’s annual meeting, March 28-31, 2020, in San Francisco, California.
Lee Savio Beers, M.D., FAAP, Medical Director of Community Health and Advocacy at the Child Health Advocacy Institute (CHAI) at Children’s National Hospital carved out a Monday morning in late-September 2019, as she knew the American Academy of Pediatrics (AAP) would announce the results of its presidential election, first by telephone call, then by an email to all of its members. Her husband blocked off the morning as well to wait with her for the results. She soon got the call that she was elected by her peers to become AAP president-elect, beginning Jan. 1, 2020. Dr. Beers will then serve as AAP president in 2021 for a one-year term.
That day swept by in a rush, and then the next day she was back in clinic, caring for her patients, some of them teenagers whom she had taken care of since birth. Seeing children and families she had known for such a long time, some of whom had complex medical needs, was a perfect reminder of what originally motivated Dr. Beers to be considered as a candidate in the election.
“When we all work together – with our colleagues, other professionals, communities and families – we can make a real difference in the lives of children. So many people have reached out to share their congratulations, and offer their support or help. There is a real sense of collaboration and commitment to child health,” Dr. Beers says.
That sense of excitement ripples through Children’s National.
“Dr. Beers has devoted her career to helping children. She has developed a national advocacy platform for children. I can think of no better selection for the president-elect role of the AAP. She will be of tremendous service to children within AAP national leadership,” says Kurt Newman, M.D., Children’s National Hospital President and CEO.
AAP comprises 67,000 pediatricians, and its mission is to promote and safeguard the health and well-being of all children – from infancy to adulthood.
The daughter of a nuclear engineer and a schoolteacher, Dr. Beers knew by age 5 that she would become a doctor. Trained as a chemist, she entered the Emory University School of Medicine after graduation. After completing residency at the Naval Medical Center, she became the only pediatrician assigned to the Guantanamo Bay Naval Station.
That assignment to Cuba, occurring so early in her career, turned out to be a defining moment that shapes how she partners with families and other members of the team to provide comprehensive care.
“I was a brand-new physician, straight out of residency, and was the only pediatrician there so I was responsible for the health of all of the kids on the base. I didn’t know it would be this way at the time, but it was formative. It taught me to take a comprehensive public health approach to taking care of kids and their families,” she recalls.
On the isolated base, where she also ran the immunization clinic and the nursery, she quickly learned she had to judiciously use resources and work together as a team.
“It meant that I had to learn how to lead a multi-disciplinary team and think about how our health care systems support or get in the way of good care,” she says.
One common thread that unites her past and present is helping families build resiliency to shrug off adversity and stress.
“The base was a difficult and isolated place for some families and individuals, so I thought a lot about how to support them. One way is finding strong relationships where you are, which was important for patients and families miles away from their support systems. Another way is to find things you could do that were meaningful to you.”
Cuba sits where the Atlantic Ocean, Caribbean Sea and Gulf of Mexico meet. Dr. Beers learned how to scuba dive there – something she never would have done otherwise – finding it restful and restorative to appreciate the underwater beauty.
“I do think these lessons about resilience are universal. There are actually a lot of similarities between the families I take care of now, many of whom are in socioeconomically vulnerable situations, and military families when you think about the level of stress they are exposed to,” she adds.
Back stateside in 2001, Dr. Beers worked as a staff pediatrician at the National Naval Medical Center in Bethesda, Maryland, and Walter Reed Army Medical Center in Washington, D.C. In 2003, Dr. Beers joined Children’s National Hospital as a general pediatrician in the Goldberg Center for Community Pediatric Health. Currently, she oversees the DC Collaborative for Mental Health in Pediatric Primary Care, a public-private coalition that elevates the standards of mental health care for all children, and is Co-Director of the Early Childhood Innovation Network. She received the Academic Pediatric Association’s 2019 Public Policy and Advocacy Award.
As a candidate, Dr. Beers pledged to continue AAP’s advocacy and public policy efforts and to further enhance membership diversity and inclusion. Among her signature issues:
- Partnering with patients, families, communities, mental health providers and pediatricians to co-design systems to bolster children’s resiliency and to alleviate growing pediatric mental health concerns
- Tackling physician burnout by supporting pediatricians through office-based education and systems reforms
- Expanding community-based prevention and treatment
“I am humbled and honored to have the support of my peers in taking on this newest leadership role,” says Dr. Beers. “AAP has been a part of my life since I first became a pediatrician, and my many leadership roles in the DC chapter and national AAP have given me a glimpse of the collective good that pediatricians can accomplish by working together toward common strategic goals.”
AAP isn’t just an integral part of her life, it’s where she met her future husband, Nathaniel Beers, M.D., MPA, FAAP, President of The HSC Health Care System. The couple’s children regularly attended AAP meetings with them when they were young.
Just take a glimpse at Lee Beers’ Twitter news feed. There’s a steady stream of images of her jogging before AAP meetings to amazing sunrises, jogging after AAP meetings to stellar sunsets and always, always, images of the entire family, once collectively costumed as The Incredibles.
“I really do believe that we have to set an example: If we are talking about supporting children and families in our work, we have to set that example in our own lives. That looks different for everyone, but as pediatricians and health professionals, we can model prioritizing our families while still being committed to our work,” she explains.
“Being together in the midst of the craziness is just part of what we do as a family. We travel a lot, and our kids have gone with us to AAP meetings since they were infants. My husband even brought our infant son to a meeting at the mayor’s office when he was on paternity leave. Recognizing that not everyone is in a position to be able to do things like that, it’s important for us to do it – to continue to change the conversation and make it normal to have your family to be part of your whole life, not have a separate work life and a separate family life.”
AlgometRx and Adipomics, two companies that spun out of innovations discovered at Children’s National Health System, have been selected by Johnson & Johnson Innovation – JLABS to join JPOD @ Philadelphia and JPOD @ Boston, respectively.
JLABS is a global network of no-strings-attached incubators for innovative companies from across the pharmaceutical, medical device, consumer and health technology sectors. Start-up companies are free to pursue their own research priorities independently, with access to state-of-the-art facilities to develop new drugs, medical devices, precision diagnostics and health technologies for people around the world.
Both companies got their start at the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National. The Institute focuses on research and innovation that can improve health for children everywhere.
AlgometRx, which joins JPOD @ Philadelphia, was founded by Julia Finkel, M.D., pediatric anesthesiologist and director of Pain Medicine and Research at Children’s Sheikh Zayed Institute. The AlgometRx device is a first-of-its-kind platform technology that aims to objectively measure pain intensity, type and drug effects in real time by capturing a digital image of a patient’s pupillary light response and applying a series of proprietary algorithms to various characteristics.
AlgometRx is designed to provide an objective pain measurement that aims to help physicians select the correct analgesic class of drug and dosage. By optimizing pain assessment, drug selection and drug management, AlgometRx aims to impact the opioid epidemic and the monitoring and management of Opioid Use Disorder.
Adipomics, which joins JPOD @ Boston, was co-founded by pediatric surgeon Evan P. Nadler, M.D., co-director of the Obesity Program and director of the Bariatric Surgery Program at Children’s National, and Robert Freishtat, M.D., M.P.H., senior investigator in the Center for Genetic Medicine of the Children’s Research Institute and chief of the Division of Emergency Medicine at Children’s National. Adipomics was founded with the aim to address the global epidemic of obesity-related diseases including Type 2 diabetes and cardiovascular diseases. World health experts predict that one billion people worldwide will be obese by 2030.
Drs. Nadler and Freishtat discovered that exosomes released from fat cells (adipocytes) carry genetic material that can mediate various diseases related to obesity. Through their research, they developed a proprietary method that aims to detect how obesity affects an individual patient’s metabolism before the onset of overt disease. Adipomics aims to create the first non-invasive, “anticipatory medicine” diagnostic that detects risk for obesity-related diseases prior to the onset of clinical signs or even biochemical abnormalities. If successful, this predictive methodology would enable treatment much earlier in the disease process, which is likely to improve effectiveness.
A recent news release from Children’s National provides more details on these innovations.
As organizations that share a commitment to improving the pace of healthcare innovation, Children’s National and Johnson & Johnson Innovation – JLABS also recently announced their collaboration to launch JLABS @ Washington, DC, a 32,000-square foot facility to be located at the new Children’s National Research & Innovation Campus in Washington, D.C. The JLABS @ Washington, DC will have the capacity to house up to 50 pharmaceutical, medical device, consumer and health technology companies that are aiming to advance the development of new drugs, medical devices, precision diagnostics and health technologies, including applications in pediatrics. The campus is located on a 12-acre portion of the former Walter Reed Army Medical Center campus in the nation’s capital and is slated to open in 2020, coinciding with the 150th Anniversary of Children’s National Health System.
According to the Centers for Disease Control and Prevention, about one in five U.S. kids aged 6 to 19 is obese, boosting their risk for a variety of other health problems now and later in life.
One of these is atherosclerosis, a term that translates literally as hardening of the arteries. Atherosclerosis causes blood vessels that carry oxygen-rich blood throughout the body to become inflamed. White blood cells called macrophages settle in the vessel wall, which becomes overloaded with cholesterol. A plaque forms that restricts blood flow. But it remains a mystery how fat cells residing in one place in the body can trigger mayhem in cells and tissues located far away.
Small, lipid-lined sacs called extracellular vesicles (EVs), released by cells into the bloodstream, are likely troublemakers since they enable intercellular communication. Now, a multi-institutional team led by research faculty at Children’s National in Washington, D.C., finds that EVs derived from kids’ fat can play a pivotal role in ratcheting up risk for atherosclerotic cardiovascular disease well before any worrisome symptoms become visible. What’s more, the team showed that EVs found in the body’s fat stores can disrupt disposal of cholesterol in a variety of kids, from lean to obese, the team reports online July 22, 2019, in the Journal of Translational Medicine.
“We found that seven specific small sequences of RNA (microRNA) carried within the extracellular vesicles from human fat tissue impaired the ability of white blood cells called macrophages to eliminate cholesterol,” says Robert J. Freishtat, M.D., MPH, senior scientist at the Center for Genetic Medicine Research at Children’s National and the study’s senior author. “Fat isn’t just tissue. It can be thought of as a metabolic organ capable of communicating with types of cells that predispose someone to develop atherosclerotic cardiovascular disease, the leading cause of death around the world.”
Research scientists and clinicians from Children’s National, the George Washington University, NYU Winthrop Hospital and the National Heart, Lung and Blood Institute collaborated to examine the relationship between the content of EVs and their effect on macrophage behavior. Their collaborative effort builds on previous research that found microRNA derived from fat cells becomes pathologically altered by obesity, a phenomenon reversed by weight-loss surgery.
Because heart disease can have its roots in adolescence, they enrolled 93 kids aged 12 to 19 with a range of body mass indices (BMIs), including the “lean” group, 15 youth whose BMI was lower than 22 and the “obese” group, 78 youths whose BMI was in the 99th percentile for their age. Their median age was 17. Seventy-one were young women. They collected visceral adipose tissue during abdominal surgeries and visited each other’s respective labs to perform the experiments.
“We were surprised to find that EVs could hobble the macrophage cholesterol outflow system in adolescents of any weight,” says Matthew D. Barberio, Ph.D., the study’s lead author, a former Children’s National scientist who now is an assistant professor at the George Washington University’s Milken Institute School of Public Health. “It’s still an open question whether young people who are healthy can tolerate obesity—or whether there are specific differences in fat tissue composition that up kids’ risk for heart disease.”
The team plans to build on the current findings to safeguard kids and adults against future cardiovascular risk.
“This study was a huge multi-disciplinary undertaking,” adds Allison B. Reiss, M.D., of NYU Winthrop Hospital and the study’s corresponding author. “Ultimately, we hope to learn which properties belonging to adipose tissue EVs make them friendly or unfriendly to the heart, and we hope that gaining that knowledge will help us decrease morbidity and mortality from heart disease across the lifespan.”
In addition to Dr. Freishtat, additional study co-authors include Samuel B. Epstein, Madeleine Goldberg, Sarah C. Ferrante, and Evan P. Nadler, M.D., director of the Bariatric Surgery Program, all of Children’s National’s Center for Genetic Medicine Research; Lead Author, Matthew D. Barberio, of Millken Institute School of Public Health at the George Washington University; Lora J. Kasselman, Heather A. Renna, Joshua DeLeon, Iryna Voloshyna, Ashley Barlev, Michael Salama and Allison B. Reiss, all of NYU Winthrop Hospital; and Martin P. Playford and Nehal Mehta, of the National Heart, Lung and Blood Institute.
Financial support for research described in this post was provided by the National Institutes of Health National Center for Advancing Translational Sciences under award number UL1TR000075, the National Heart, Lung and Blood Institute under award number Z1AHL-06193-4, the American Heart Association under award number 17POST33670787, the Clark Charitable Foundation, the Elizabeth Daniel Research Fund, and Robert Buescher.
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