Surgical Innovation

Research and Education Week awardees embody the diverse power of innovation

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“Diversity powers innovation” was brought to life at Children’s National April 16 to 20, 2018, during the eighth annual Research and Education Week. Children’s faculty were honored as President’s Award winners and for exhibiting outstanding mentorship, while more than 360 scientific poster presentations were displayed throughout the Main Atrium.

Two clinical researchers received Mentorship Awards for excellence in fostering the development of junior faculty. Lauren Kenworthy, Ph.D received the award for Translational Science and Murray M. Pollack, M.D., M.B.A., was recognized in the Clinical Science category as part of Children’s National Health System’s Research and Education Week 2018.

Dr. Kenworthy has devoted her career to improving the lives of people on the autism spectrum and was cited by former mentees as an inspirational and tireless counselor. Her mentorship led to promising new lines of research investigating methods for engaging culturally diverse families in autism studies, as well as the impact of dual language exposure on cognition in autism.

Meanwhile, Dr. Pollack was honored for his enduring focus on motivating early-career professionals to investigate outcomes in pediatric critical care, emergency medicine and neonatology. Dr. Pollack is one of the founders of the Collaborative Pediatric Critical Care Research Network. He developed PRISM 1 and 2, which has revolutionized pediatric intensive care by providing a methodology to predict mortality and outcome using standardly collected clinical data. Mentees credit Dr. Pollack with helping them develop critical thinking skills and encouraging them to address creativity and focus in their research agenda.

In addition to the Mentorship and President’s Awards, 34 other Children’s National faculty, residents, interns and research staff were among the winners of Poster Presentation awards. The event is a celebration of the commitment to improving pediatric health in the form of education, research, scholarship and innovation that occurs every day at Children’s National.

Children’s Research Institute (CRI) served as host for the week’s events to showcase the breadth of research and education programs occurring within the entire health system, along with the rich demographic and cultural origins of the teams that make up Children’s National. The lineup of events included scientific poster presentations, as well as a full slate of guest lectures, educational workshops and panel discussions.

“It’s critical that we provide pathways for young people of all backgrounds to pursue careers in science and medicine,” says Vittorio Gallo, Ph.D., Children’s chief research officer and CRI’s scientific director. “In an accelerated global research and health care environment, internationalization of innovation requires an understanding of cultural diversity and inclusion of different mindsets and broader spectrums of perspectives and expertise from a wide range of networks,” Gallo adds.

“Here at Children’s National we want our current and future clinician-researchers to reflect the patients we serve, which is why our emphasis this year was on harnessing diversity and inclusion as tools to power innovation,” says Mark L. Batshaw, M.D., physician-in-chief and chief academic officer of Children’s National.

“Research and Education Week 2018 presented a perfect opportunity to celebrate the work of our diverse research, education and care teams, who have come together to find innovative solutions by working with local, national and international partners. This event highlights the ingenuity and inspiration that our researchers contribute to our mission of healing children,” Dr. Batshaw concludes.

Awards for the best posters were distributed according to the following categories:

  • Basic and translational science
  • Quality and performance improvement
  • Clinical research
  • Community-based research and
  • Education, training and program development.

Each winner illustrated promising advances in the development of new therapies, diagnostics and medical devices.

Diversity powers innovation: Denice Cora-Bramble, M.D., MBA
Diversity powers innovation: Vittorio Gallo, Ph.D.
Diversity powers innovation: Mark L. Batshaw, M.D.

child measuring belly with tape measure

Children’s obesity research team presents compelling new findings

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child measuring belly with tape measure

Faculty from Children’s National Health System’s Department of Psychology & Behavioral Health set out to learn if any demographic, psychiatric, or cognitive factors play a role in determining if an adolescent should be eligible for bariatric surgery, and what their weight loss outcomes might be. Presenting at the Society for Pediatric Psychology Annual Conference earlier this month, a group of researchers, fellows and clinicians, including surgeons from Children’s National showcased their findings. One of the posters developed by Meredith Rose, LGSW, ML, who works as an interventionist on a Children’s National clinical research team, received special recognition in the Obesity Special Interest Group category.

One presentation reported on a total of 222 pediatric patients with severe obesity, which is defined as 120 percent of the 95th percentile for Body Mass Index. Mean age of the participants was 16 years of age, 71 percent were female and 80 percent where Hispanic or non-White. As part of their preparation for surgery, all patients were required to complete a pre-bariatric surgery psychological evaluation, including a clinical interview and Schedule for Affective Disorders and Schizophrenia (KSADS-PL) screening. The studies by the Children’s teams were based on a medical record review of the pre-screening information. Adolescents being evaluated for surgery had high rates of mental health diagnoses, particularly anxiety and depression, but also included Attention Deficit Hyperactivity Disorder, eating disorders, and intellectual disability.

Another Children’s presentation at the conference looked at weight loss outcomes for adolescents based on IQ and intellectual disability. Overall, neither Full Scale IQ from the Wechsler Abbreviated Intelligence Scale – 2nd edition, nor the presence of an intellectual disability predicted weight loss following surgery.

“The sum of our research found that kids do really well with surgery,” said Eleanor Mackey, PhD, assistant professor of psychology and behavioral health. “Adolescents, regardless of the presence of intellectual disability areas are likely to lose a significant amount of weight following surgery,” added Dr. Mackey.

“This is a particularly important fact to note because many programs and insurers restrict weight loss surgery to ‘perfect’ candidates, while these data points demonstrate that our institution does not offer or deny surgery on the basis of any cognitive characteristics,” says Evan P. Nadler, M.D., associate professor of surgery and pediatrics. “Without giving these kids a chance with surgery, we know they face a lifetime of obesity, as no other intervention has shown to work long-term in this patient population. Our research should empower psychologists and physicians to feel more confident recommending bariatric surgery for children who have exhausted all other weight loss options.”

The research team concluded that examining how individual factors, such as intellectual disability, psychiatric diagnoses, and demographic factors are associated with the surgery process is essential to ensuring adequate and empirically supported guidelines for referral for, and provision of bariatric surgery in adolescents. Next steps by the team will include looking into additional indicators of health improvement, like glucose tolerance, quality of life, or other lab values, to continue evaluating the benefits of surgery for this population.

Sean Donahue

Pediatric ophthalmology celebrates 75th anniversary in Washington, D.C.

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Sean Donahue

Angeline M. Parks Visiting Professor Sean P. Donahue, M.D., Ph.D., (front left) enjoys a light moment during the celebration of the 75th anniversary while Anthony Sandler, M.D., Children’s surgeon in chief, senior vice president of the Joseph E. Robert Jr. Center for Surgical Care and director of the Sheikh Zayed Institute, speaks to the group.

After 75 years dedicated to the eyes of children, the world’s pediatric ophthalmologists gathered in Washington, D.C., the specialty’s birthplace, to share the latest research and innovation in the field. The group gathered for a joint meeting of the International Strabismological Association (ISA) and the American Association for Pediatric Ophthalmology and Strabismus (AAPOS), which was held March 18-22, 2018.

“This year marks the 75th anniversary of our specialty, which was founded right here, at Children’s National, in Washington, D.C., when Dr. Frank Costenbader restricted his practice exclusively to children and began to train residents in the nuance of treating children’s eyes,” says Mohamad S. Jaafar, M.D., chief of the Division of Ophthalmology at Children’s National Health Center. “It is a tremendous honor to welcome my colleagues back to the birthplace of pediatric ophthalmology on this grand occasion.”

In advance of the larger meeting, Children’s Division of Ophthalmology welcomed some of the international attendees to Children’s National for a special gathering on Saturday, March 17, 2018.

The event at Children’s featured a special lecture by this year’s Angeline M. Parks Visiting Professor, Sean P. Donahue, M.D., Ph.D. Dr. Donahue is the Sam and Darthea Coleman Chair in Pediatric Ophthalmology and Chief of Pediatric Ophthalmology at the Children’s Hospital at Vanderbilt. This Annual Visiting Professorship was established by the members of the Costenbader Society (The Children’s National Pediatric Ophthalmology Alumni Society) in memory of Angeline M. Parks, the wife of pediatric ophthalmologist Marshall M. Parks, M.D., to carry on her legacy of establishing a warm and supportive environment between physician and spouse, which benefits the physicians and their young patients.

Three former division chiefs of Ophthalmology at Children’s National, Drs. Costenbader, Parks and Friendly, have national lectureships established in their names to reflect their contributions to the field. Dr. Frank Costenbader, the society’s namesake, established the sub-specialty of pediatric ophthalmology. Dr. Parks founded the Children’s Eye Foundation and the AAPOS, and David S. Friendly, M.D., codified pediatric ophthalmology fellowship training across the United States.

Honor Awards for Children’s pediatric ophthalmologists at ISA-AAPOS

During the ISA-AAPOS meeting, two current Children’s National pediatric ophthalmologists were recognized with Honor Awards for their long-term dedication to pediatric ophthalmology, their patients, and their engagement in the AAPOS to advance the field.

William Madigan, M.D., vice chief of Ophthalmology at Children’s, a professor of surgery at the Uniformed Services University of the Health Sciences, and a clinical professor of Ophthalmology and Pediatrics at the George Washington University School of Medicine and Health Sciences. He was recognized by AAPOS for his long-time service, including:

  • Chair of the organization’s audit committee and the Costenbader Lecture selection committee.
  • Membership on the fellowship directors’ committee that developed nationwide requirements for pediatric ophthalmology fellowships and established the certification process to insure high quality and uniform education in the specialty.
  • Invited lectures in Shanghai, China; Geneva, Switzerland; and Sao Paolo, Brazil, among others.
  • Many posters and presentations about clinical and research topics of importance for members of the AAPOS and other distinguished professional societies.

Marijean Miller, M.D., director of Neonatal Ophthalmology, division research director at Children’s National and clinical professor of Ophthalmology and Pediatrics at the George Washington University School of Medicine and Health Sciences, was recognized by AAPOS for her cumulative contributions to the society, including:

  • Multiple memberships on vital committees, including AAPOS’s training and accreditation committee and audit committee.
  • Presentation of original research via posters and oral presentations on topics including best practices in neonatal clinical care, innovative tools and applications and advocacy for patients and their families.

“We are so grateful to have a team that continues the tradition of excellence in pediatric ophthalmology here at Children’s National,” Dr. Jaafar says. “Drs. Madigan and Miller exemplify the dedication of our division to caring for the children we serve, and to advancing our field. Congratulations to both!”

Anthony Sandler

Anthony Sandler, M.D., Named Director of Sheikh Zayed Institute

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Anthony Sandler

Children’s National Health System is pleased to announce that Anthony Sandler, M.D., current senior vice president and surgeon-in-chief of the Joseph E. Robert Jr. Center for Surgical Care at Children’s National, will now additionally assume the title of director, Sheikh Zayed Institute for Pediatric Surgical Innovation. He will succeed Peter Kim, M.D., the founding vice president of the Sheikh Zayed Institute, who is leaving to pursue other career opportunities after seven years at the helm of our surgical innovation center.

Dr. Sandler will be in a unique position, leading both in the research and clinical enterprises of Children’s National and will help to forge a stronger link between them, especially in the surgical subspecialties.

Internationally known for his work on childhood solid tumors and operative repair of congenital anomalies, Dr. Sandler is the Diane and Norman Bernstein Chair in Pediatric Surgery and is a professor of surgery and pediatrics at the George Washington University School of Medicine & Health Sciences. He is currently on the Board of Examiners for the Pediatric Surgery Qualifying Examination and has served on multiple committees for the American Pediatric Surgical Association and for the Children’s Oncology Group.

Dr. Sandler’s research interests focus on solid tumors of childhood and he’s presently studying tumor immunology and investigating immunotherapeutic vaccine strategies. He has co-developed a surgical polymer sealant that is R01 funded by the National Institutes of Health and is currently in pre-clinical trials. Dr. Sandler has over 120 peer-reviewed publications in clinical and scientific medical journals.

banner year

2017: A banner year for innovation at Children’s National

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banner year

In 2017, clinicians and research faculty working at Children’s National Health System published more than 850 research articles about a wide array of topics. A multidisciplinary Children’s Research Institute review group selected the top 10 articles for the calendar year considering, among other factors, work published in high-impact academic journals.

“This year’s honorees showcase how our multidisciplinary institutes serve as vehicles to bring together Children’s specialists in cross-cutting research and clinical collaborations,” says Mark L. Batshaw, M.D., Physician-in-Chief and Chief Academic Officer at Children’s National. “We’re honored that the National Institutes of Health and other funders have provided millions in awards that help to ensure that these important research projects continue.”

The published papers explain research that includes using imaging to describe the topography of the developing brains of infants with congenital heart disease, how high levels of iron may contribute to neural tube defects and using an incisionless surgery method to successfully treat osteoid osteoma. The top 10 Children’s papers:

Read the complete list.

Dr. Batshaw’s announcement comes on the eve of Research and Education Week 2018 at Children’s National, a weeklong event that begins April 16, 2018. This year’s theme, “Diversity powers innovation,” underscores the cross-cutting nature of Children’s research that aims to transform pediatric care.

Matthew Oetgen

3D printed implant used to repair knee cartilage

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Matthew Oetgen

“Our preliminary study shows this novel 3D printed material is able to allow ingrowth from the bone, so the body started to grow into the material to help fix it in place,” says Matthew Oetgen, M.D., M.B.A. “These are the first step requirements for an implant like this to be acceptable for treating lesions.”

Every year, an estimated 1 million children tear the articulate cartilage that lines their knees. Unfortunately, these types of injuries are extremely hard to repair because of the cartilage’s poor healing qualities and unique physiochemical properties.

Now, a new study by Children’s National Health System researchers has found that a three dimensional (3D) printed synthetic implant can be successfully used as a scaffold to encourage the healing and repair of articulate cartilage lesions.

Three bones meet in the knee joint: the femur, the tibia and the patella. The surface of these bones is covered with articulate cartilage, which can be damaged by injury or by normal wear and tear. Because articulate cartilage has poor healing qualities, these injuries will rarely heal or regenerate on their own, especially in younger and more active patients.

“These are active 12 to 19 year olds, so it can really affect relatively normal kids,” says Matthew Oetgen, M.D., M.B.A., Division Chief of Orthopaedic Surgery and Sports Medicine at Children’s National. “While there are many ways to repair these lesions — from implanting autogenous cells to using grafts to fill the defect — none of these options are perfect, and they all have some down sides.”

To facilitate repair of these injuries, a team of researchers led by Dr. Oetgen received a grant from the Pediatric Orthopaedic Society of North America (POSNA) to design a 3D printed implant that promotes bone and cartilage growth.

To make the implant, the team used nanoporous thermoplastic polyurethane (TPU), a biodegradable material that is highly elastic and yet strong, very much like the native cartilage in the osteochondral region. TPU is also porous, which allows blood and nutrient flow through the implant.

“The implant is designed to allow native cells to repair the lesions with normal articular cartilage and not scar tissues like some repairs,” says Dr. Oetgen.

The implant itself has a stratified structure: an upper region that contains micro channels to allow for increased perfusion; a middle zone with a nanoporous structure that mimics porous cartilage and encourages stem cell recruitment, growth and differentiation; and a lower region, or articular surface, that allows for smooth transition from the articulating surface to the implant surface and minimizes adverse interactions between the articulate cartilage and the meniscus.

When tested in vitro, the implant was able to support the growth of stem cells and vascular cells, and structurally mature vascularized bone was formed around the implant after 10 days. In animal models with full thickness osteochondral lesions the implant did just as well: The scaffold was able to promote bone, soft tissue and vascular growth without eliciting an immune response.

“Our preliminary study shows this novel 3D printed material is able to allow ingrowth from the bone, so the body started to grow into the material to help fix it in place,” says Dr. Oetgen. “These are the first step requirements for an implant like this to be acceptable for treating lesions.”

Because of the ease with which 3D printing can be scaled up, Dr. Oetgen is hopeful that the implant will one day become a viable option for repairing articulate cartilage injuries. He plans on trying the implants in a larger animal model and on larger lesions, and is also looking at custom printing for the implants to match natural lesion shapes and sizes.

Doctors-working-with-Digital-Tablet

New network will advance treatments for children

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Three leaders from Children’s National Health System are among the investigators of a new FDA-funded program created to launch a global clinical trials network. The initial $1 million grant from the Food and Drug Administration (FDA) establishes a network among the Institute for Advanced Clinical Trials for Children (I-ACT for Children), the National Capital Consortium for Pediatric Device Innovation (NCC-PDI) (affiliated with Children’s National), PEDSnet, the James M. Anderson Center for Health Systems Excellence and the Critical Path Institute, to address the unmet medical needs of children by improving quality and efficiency in developing innovative pediatric drugs and devices.

Along with the fiscal 2017 funds, there is a potential for $1 million in funding each year for an additional four years to I-ACT for Children, contingent on annual appropriations and the availability of funding. I-ACT for Children is a new independent, nonprofit organization that works to improve the planning and completion of pediatric clinical trials. PEDSnet and the Anderson Center will serve as the network’s data and learning core, while the Critical Path Institute will serve as the regulatory science core and NCC-PDI will serve as the medical device core.

From Children’s National, the investigators include: Peter Kim, M.D., Ph.D., vice president of the Sheikh Zayed Institute for Pediatric Surgical Innovation; Kolaleh Eskandanian, Ph.D., executive director of the Sheikh Zayed Institute and NCC-PDI and Johannes van den Anker, M.D., Ph.D., division chief of Clinical Pharmacology and vice chair of Experimental Therapeutics.

“We are pleased that this grant addresses innovative reengineering of the pediatric device trials system,” says Eskandanian. “In contrast with drug trials, device trials are generally less optimally understood in academic medical centers and clinical sites.”

She explains that children have medical device needs that are considerably different from adults. Designing devices for children requires considerations such as growth and development, anatomical and physiological differences. Often, the lack of available devices for children forces clinicians to use an adult device off-label or to improvise. Off-label use may be the only option, but such use can bring risks of serious adverse events that could be avoided if there were more FDA–approved pediatric devices.

“Thanks to partnership with I-ACT we will be able to address the pressing need to improve clinical trials and post-market monitoring of pediatric devices,” says Eskandanian.

Leading the network as principal investigator is Edward Connor, M.D., president of I-ACT for Children and an emeritus professor of Pediatrics, Microbiology, Immunology, and Tropical Medicine at George Washington University School of Medicine and Children’s National.

Work has been initiated to integrate network components and engage public and private shareholders. Next steps include selecting priority projects for implementation in 2018 and beyond, and scaling the network in North America and abroad.

Funding for this work was made possible, in part, by the Food and Drug Administration through grant 1 U18 FD 006297. Views expressed in written materials or publications and by speakers and moderators do not necessarily reflect the official policies of the Department of Health and Human Services; nor does any mention of trade names, commercial practices, or organization imply endorsement by the United States Government.

William Gaillard

Putting childhood epilepsy in the spotlight at American Epilepsy Society Meeting

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William Gaillard

“We aim to build the evidence base for treatments that are effective specifically for children with epilepsy,” says William D. Gaillard, M.D., chief of Child Neurology, Epilepsy and Neurophysiology, and director of the Comprehensive Pediatric Epilepsy Program.

While epilepsy affects people of all ages, the unique way it manifests in infants, children and adolescents can be attributed in part to the complexities of the growing and developing brain. Researchers from the Children’s National Comprehensive Pediatric Epilepsy Program brought their expertise on the challenges of understanding and treating epilepsy in children to the recent American Epilepsy Society Annual Meeting, the largest professional gathering on epilepsy in the world.

“We aim to build the evidence base for treatments that are effective specifically for children with epilepsy,” says William D. Gaillard, M.D., chief of Child Neurology, Epilepsy and Neurophysiology, and director of the Comprehensive Pediatric Epilepsy Program. “We have learned much from studies in adult populations but technologies like functional MRI allow us to get in-depth understanding, often in non-invasive ways, of precisely how epilepsy is impacting a child.”

Dr. Gaillard was also recently elected to serve as the Second Vice President of the American Epilepsy Society. “The AES is the largest multidisciplinary professional and scientific society dedicated to the understanding, treatment and eradication of epilepsy and associated disorders, and I am honored to serve as the new Second Vice President,” he said.

The team’s presentations and poster sessions focused on several key areas in pediatric epilepsy:

Better ways to see, measure and quantify activity and changes in the brain for children with epilepsy before, during and after surgery

  • Novel applications of fMRI for children with epilepsy
    • Evaluation of an fMRI tool that tracks verbal and visual memory in children with epilepsy – one of the first to capture memory functions in this population of children using noninvasive fMRI;
    • Early study of the use of “resting-state” fMRI to map language skills before epilepsy surgery – an important first step toward noninvasively evaluating children who are too young or neurologically impaired to follow tasks in traditional MRI studies;
  • A study of whether intraoperative MRI, i.e. imaging during neurosurgery, allows for more complete removal of abnormal brain tissue associated with focal cortical dysplasia in children, which is a common cause of intractable epilepsy;
  • A preliminary case review of existing data to see if arterial spin labeling MRI, which measures blood flow to the brain, has potential to identify blood flow changes in specific locations of the brain where seizures occur;
  • An analysis of language laterality – the dominant side of the brain controlling language –  questioning the true reasons that the brains of children with epilepsy have differences in the hemisphere that predominantly controls language;
  • A review of some common assessments of language and working memory that are used pre- and post-operatively to gauge the impacts of pediatric epilepsy surgery. The study found that using multiple assessments, and studying results individually rather than as a group average, resulted in a more complete picture of the outcomes of surgery on these areas of brain function;
  • A preliminary study examining whether continuous EEG monitoring of neonates with hypoxic ischemic encephalopathy, or lack of oxygen to the brain, can be a reliable predictor of neurodevelopmental outcomes while the infant is undergoing therapeutic hypothermia.

“In order to expand our understanding of causes, impacts and outcomes, the range of research is broad given the complexity of epilepsym,” says Madison M. Berl, Ph.D. “This is the only way we can contribute to the goal of providing our colleagues and the families they serve with better resources to make informed decisions about how best to assess and treat pediatric epilepsy.”

The molecular, genetic and biological factors that contribute to onset and severity of pediatric epilepsy

  • A retrospective study of young patients with malformations in cortical development that are important causes of childhood epilepsy;
  • Investigation of a simple saliva test to effectively identify the presence of two common viral infections, human herpesvirus-6B and Epstein-Barr virus, that may be contributors to onset of epilepsy in otherwise normally functioning brains;
  • A preliminary review of the possible relationship between febrile infection-related epilepsy syndrome and the co-occurrence of another neuro-inflammatory condition – hemophagocytic lymphohistiocytosis.

Madison Berl, Ph.D., director of research in the Division of Pediatric Neuropsychology, and a pediatric neuropsychologist in the Comprehensive Pediatric Epilepsy Program, adds, “In order to expand our understanding of causes, impacts and outcomes, the range of research is broad given the complexity of epilepsy. This is the only way we can contribute to the goal of providing our colleagues and the families they serve with better resources to make informed decisions about how best to assess and treat pediatric epilepsy.”

$250K awarded to six winners presenting innovative pediatric medical devices

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SZI Symposium Winners

Six companies presenting innovative medical device solutions that address significant unmet needs in pediatric health were awarded a total of $250,000 in grant money yesterday in San Jose, Calif. at the Fifth Annual Pediatric Device Innovation Symposium, organized by the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National Health System.

The “Make Your Medical Device Pitch for Kids!” competition is sponsored by the National Capital Consortium for Pediatric Device Innovation (NCC-PDI), an FDA-funded consortium led by Children’s National and the A. James Clark School of Engineering at the University of Maryland. Four companies were awarded $50,000 each and two were awarded $25,000. The six winners were selected from a field of twelve finalists. A record 98 total submissions from five countries were received for the competition this year.

“To improve care for children, it is imperative that we recognize and encourage relevant new solutions in pediatric medical devices, especially in light of the challenges innovators face in addressing this specialized market,” said Kurt Newman, M.D., president and CEO of Children’s National. “Children’s National is committed to fostering collaboration among innovators, clinicians, policy makers and investors to advance pediatric device development for the benefit of children everywhere.”

This year’s winning innovations receiving $50,000 awards are:

  • CorInnova, Houston, Texas – soft robotic, non-blood-contacting biventricular cardiac assist device for the treatment of heart failure in children
  • Green Sun Medical, Fort Collins, Colo. – novel device that provides necessary pressure for the correction of spinal deformity while providing real-time feedback to clinicians
  • Hub Hygiene and Georgia Institute of Technology, Atlanta, Ga. – low-cost, single-use cleaning technology to prevent central line-associated blood stream infections (CLABSI), a hospital-acquired infection by pediatric ICU patients
  • NAVi Medical Technologies, Houston, Texas – device to provide accurate information about the localization of an umbilical venous catheter (UVC) used in critically-ill newborns to reduce the risk of catheter malposition

Winning innovations receiving $25,000 awards are:

  • Prapela, LLC, Boston, Mass. – novel “baby box” that will allow for a non-pharmacological approach to help drug-exposed infants relax and sleep during withdrawal and post-withdrawal care
  • X-Biomedical, Inc., Philadelphia, Pa. – portable surgical microscope for use in surgeries for treatable causes of blindness in low-income countries and under-resourced setting

“We are honored to recognize these outstanding innovations with this funding,” said Kolaleh Eskandanian, Ph.D., executive director of the Sheikh Zayed Institute and NCC-PDI. “We are even more excited about welcoming this new cohort of companies to our family of pediatric device startups and entrepreneurs. Together we can move the needle a bit faster and safer to bring pediatric products to market.”

She added that in addition to the financial support and consultation services through NCC-PDI, the awardees can leverage the validation received through this highly competitive process to raise the additional capital needed for commercialization. Since inception in 2013, NCC-PDI has supported 67 pediatric devices and the companies and research labs owning these devices have collectively raised $55 million in additional funding.

The twelve finalists each made five-minute presentations to the symposium audience and then responded to judges’ questions. Finalists also included Anecare, LLC, Salt Lake City, Utah; ApnoSystems, Buenos Aires, Argentina; Deton Corp., Pasadena, Calif.; Kite Medical, Dublin, Ireland; Moyarta 2, LLC, The Plains, Va.; and Oculogica, Inc., New York, N.Y.

Serving on the distinguished panel of judges were Susan Alpert, M.D., of SFA Consulting, a former director of the FDA Office of Device Evaluation and former senior vice president and chief regulatory officer of Medtronic; Charles Berul, M.D., co-director, Children’s National Heart Institute; Andrew Elbardissi, M.D., of Deerfield Management; Rick Greenwald, Ph.D., of the New England Pediatric Device Consortium (NEPDC); James Love, J.D., of Oblon; Josh Makower, M.D., of NEA; Jennifer McCaney, Ph.D., of MedTech Innovator; Jackie Phillips, M.D., of Johnson & Johnson; and Tracy Warren of Astarte Ventures.

The pitch competition is a highlight of the annual symposium organized by the Sheikh Zayed Institute at Children’s National, designed to foster innovation that will advance pediatric healthcare and address the unmet surgical and medical device needs for children. New this year, the symposium co-located in a joint effort with The MedTech Conference powered by AdvaMed, the premier gathering of medtech professionals in North America.

Keynote speakers at the event included Daniel Kraft, M.D., faculty chair of Medicine & Neuroscience, Singularity University and executive director, Exponential Medicine; Vasum Peiris, M.D., chief medical officer, Pediatrics and Special Populations, FDA;  and Alan Flake, M.D., director of Center for Fetal Research, Children’s Hospital of Philadelphia.

Panel discussions focused on gap funding for pediatric innovation, the journey from ideation to commercialization, and the pediatric device needs assessment in the future regulatory environment.

Exchanging ideas

Exchanging ideas, best practices in China

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Exchanging ideas

Physicians from the Children’s National delegation attended the Shanghai Pediatric Innovation Forum in June 2017. Pictured (left to right): Roberta DeBiasi, M.D., Michael Mintz, M.D., Robert Keating, M.D., Lawrence Jung, M.D., Peter Kim, M.D., and Sarah Birch, D.N.P., A.P.R.N.

In late June, a delegation of international pediatric experts from Children’s National Health System journeyed across the world to learn about the practice of pediatric medicine in China and to exchange ideas with colleagues there. Leaders from several of Children’s key specialties joined the delegation, including:

The group, led by Drs. Keating and Gaillard, traveled to China with Children’s Outreach Coordinator John Walsh, whose longtime connections and close familiarity with the pediatric medical community in Hangzhou and Shanghai made the collaboration possible. The team toured several of the largest children’s hospitals in country, including The Children’s Hospital of Zhejiang University School of Medicine in Hangzhou and Shanghai Children’s Medical Center, connecting with pediatric specialists there.

“Some of the most important parts of this trip were the opportunities to exchange ideas and solidify long term relationships that will allow us to work closely with our peers in China as they develop their pediatric programs. The potential is tremendous for unique collaborations between our teams and theirs for research and the development of clinical care improvements for children,” said Roger Packer, M.D., senior vice president of the Center for Neuroscience and Behavioral Health, who joined the delegation in Beijing.

A keynote lecture and more at the 3rd China International Forum on Pediatric Development

The delegation also was honored with an invitation to participate in the 3rd China International Forum on Pediatric Development. The forum is one of the largest pediatric focused meetings in the country and is led by all the major children’s hospitals in China, including those in Beijing and Shanghai. Close to 4,000 pediatricians attended the meeting, and presenters included esteemed international leaders in pediatric medicine from around the world.

Dr. Packer delivered one of the opening keynote lectures, entitled, “Translation of molecular advances into care: the challenge ahead for children’s hospitals.” His talk focused on the tremendous promise and significant challenges posed by the latest scientific advances, through the lens of a neurologist.

“Across the world, we are looking at the same challenges: How can we use scientific advances to find better outcomes? How can we financially support the new types of interventions made possible by these molecular biologics insights when they can cost millions of dollars for one patient?”

“There’s palpable excitement that these new developments will give us potential therapies we never dreamed about before, ways to reverse what we initially thought was irreversible brain damage, ways to prevent severe illnesses including brain tumors, but the issue is how to turn this promise into reality. That’s a worldwide issue, not simply a single country’s issue,” he continued.

He also flagged mental health and behavioral health as a crucial, universal challenge in need of addressing on both sides of the Pacific.

The Children’s National delegation, including Drs. DeBiasi, Song, Keating, Gaillard and Packer were also honored to share their insight in a series of specialty-specific breakout sessions at the Forum.

Overall, the long journey opened a dialogue between Children’s National and pediatric care providers in China, paving the way for future discussion about how to learn from each other and collaborate to enhance all institutions involved.

Oluigbo and Myseros neurosurgery

Working miracles to control seizures and preserve brain power in newborns

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Oluigbo and Myseros neurosurgery

In the spring of 2017, a multidisciplinary team applied an innovative approach to help preserve function in the working right hemisphere of a baby who experienced her first seizure hours after birth.

When orderly early fetal brain development is disturbed in one half of the brain, infants can be born with hemimegalencephaly—a rare occurrence—that results in one of the brain’s two hemispheres being oversized, heavy and malformed. This brain malformation arises early in the fetal period of life, is not inherited and is associated with seizures early in life.

Children with hemimegalencephaly can develop horrible seizures within the first hours or days of life. According to published research, every month these infants experience uncontrolled seizures correlates to a steep decline in IQ.

Because these types of seizures do not respond to multiple anti-seizure medications—medicines which may also cause worrisome side effects of their own in neonates—care teams attempt to schedule surgery as soon as feasible to remove or disconnect the hemisphere triggering the damaging seizures. “The ‘bad’ brain does not sustain any function and it interferes with the ‘good’ brain doing what it needs to do,” says William D. Gaillard, M.D., chief of Children’s division of Epilepsy and Neurophysiology and chief of Neurology.

Hemispherectomy is intricate surgery on an organ that is softer than normal and crisscrossed with a tangle of blood vessels that supply the damaged hemisphere with blood. Because of the risks of life-threatening blood loss in very young infants, the dramatic surgery is usually not performed until babies are at least 3 months old and weigh at least 10 pounds.

The challenge: The vulnerable babies who most need relief, infants who have been seizing since early life, are too young for the operation.

Neurosurgeons have clamped the carotid artery that supplies blood to the brain to minimize blood loss when the hemisphere is surgically removed. Dr. Gaillard says knowledge of that approach led the team to think: What if we use embolization—blocking blood supply to targeted locations in the brain—to achieve the same effect?  The plan effectively destroys the malformed brain from within, neutralizing its ability to cause the seizures.

“It was eye-opening for us to think about actually inflicting brain injury as a way of treating something in the brain that was causing seizures. That is really novel in itself: We’re thinking out of the box in applying existing techniques in a different age group. The conventional thinking with newborns is to let them be; their seizures don’t look that bad,” says Taeun Chang, M.D., director of Children’s Neonatal Neurology and Neonatal Neurocritical Care Program.

“We have evidence to suggest this is a safe and effective way of avoiding recurrent seizures and minimizing the need to give these infants potentially toxic medications so early in life. Ultimately, this helps a select group of babies who need the surgery to get to the point of being old enough to have it—all the while, sparing the healthy part of their brain,” Dr. Gaillard adds.

Darcy hemimegalencephaly

Once the embolization ended Darcy’s most severe seizures, the little girl could make eye contact, started smiling, and then graduated from smiling to full laughs. In weekly physical therapy, the infant works on tummy time, head control and ensuring her eyes track.

In the spring of 2017, the multidisciplinary team applied the innovative approach to help preserve function in the working right hemisphere of a baby named Darcy Murphy. Darcy experienced her first seizure hours after she was born, and when she arrived at Children’s National had been in and out of two different emergency rooms in another state for the first few weeks of her life.

The team explained to the Murphy family that Darcy was on multiple medications, but her seizures continued unabated. The options included inducing a coma, sending Darcy home despite ongoing seizures or minimally invasive embolization.

“We would not have even posed this if we were not confident in our ability to do the procedure and deal with potential complications,” Dr. Chang says.

“Oh my gosh, as a parent you know what you’re doing is permanent,” says Rachel Murphy, 29, Darcy’s mom said of the decisions that she and husband Ryan, 33, faced for the youngest of their three children. “What if it’s not the right decision? What if in a week they come out with a new procedure you could have done? We were horrified all the time. The nice part with this procedure is the reward is apparent very quickly, and it just gets better. You don’t have to wait two years to know you made the right decision. You can see half a brain is better than the whole thing for this specific child.”

Once the embolization ended Darcy’s most severe seizures, the little girl could initiate and maintain eye contact with family members, started smiling and then graduated from smiling to full laughs. In weekly physical therapy, the infant works on tummy time, head control and ensuring her eyes track.

Children’s multidisciplinary care team includes experts in newborn intensive care (neonatologists) to aggressively manage seizures in the traditional fashion as they occur and to monitor vital signs; a neonatal neurologist/neurointensivist at the bedside and in the Angio suite monitoring Darcy’s brain activity; a neonatal epileptologist; a surgical epilepsy team; an interventional neuroradiologist; neurosurgeons to perform the delicate functional hemispherectomy to remove any residual brain tissue from the bad hemisphere; and physical therapists working to help Darcy achieve maximum function after surgery.

“We were just like one unit in the sense of being able to provide coherent, comprehensive care. It’s about blood pressure management, breathing, electrolytes, making sure everything is right for going to the operating room,” Dr. Chang explains. “Darcy’s case highlights the ways in which Children’s National is different and offers personalized care that is superior to other centers.”

The team, which recently published a case report of two previous serial embolizations followed by hemispherectomy, plans follow-up papers describing EEG manifestations during an acute stroke in a newborn, advice to the field on best practices for the embolization and using cooling to control the planned brain injury during embolization hemispherectomy.

Revised Nov. 7, 2017

Related resources

Chima Oluigbo

A novel way to treat intractable epilepsy caused by hemimegalencephaly

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Chima Oluigbo

A multidisciplinary team led by Chima Oluigbo, M.D., F.R.C.S.C., pioneered a novel technique to preserve newborns’ healthy brain tissue, buying time until the infants became old enough to undergo a hemispherectomy.

PDF Version

What’s known

Hemimegalencephaly is an extremely rare birth defect in which one side of the brain grows larger than the other. This anomaly typically leads to severe, recurrent seizures that can be difficult to control solely with medications. While the seizures themselves are detrimental to the developing brain, the amount of medications used to reduce seizure frequency often come with significant side effects and have the potential to hamper brain growth. Hemispherectomy, a radical surgery in which one half of the brain is removed, is often the most successful way to treat severe and intractable epilepsy. However, this surgery can be challenging to perform successfully in very young babies.

What’s new

In this case report, the Children’s National Health System Epilepsy Team led by Chima Oluigbo, M.D., F.R.C.S.C., a pediatric neurosurgeon; Tammy N. Tsuchida, M.D., PhD., a pediatric surgical epileptologist; Monica Pearl, M.D., a pediatric interventional neuroradiologist; Taeun Chang, M.D., a neonatal neurointensivist; and the neonatal intensive care team explored the possibility of using minimally invasive surgery to cut off the blood supply to the brain hemisphere responsible for generating seizures in newborns with hemimegalencephaly. This procedure, they reasoned, could buy time for babies to mature and become more resilient to withstand the future hemispherectomy while also lessening the damage caused by uncontrolled, recurrent seizures. The case report focused on the first two patients with hemimegalencephaly who had sequential procedures to gradually restrict blood flow to the affected brain hemisphere within their first few weeks of life, followed by hemispherectomies at a few months of age. This novel approach significantly lessened their seizures until hemispherectomy, allowing these children to continue to grow and develop seizure-free.

Questions for future research

Q: Which patients are best suited for this surgical procedure?
Q: How can surgeons reduce the risk of excessive blood loss during hemispherectomy caused by the growth of additional blood vessels after flow through the brain’s major vessels has been blocked?
Q: What are the long-term outcomes for infants who undergo these procedures?

Source: “ ‘Endovascular embolic hemispherectomy’: A strategy for the initial management of catastrophic holohemispheric epilepsy in the neonate.” Oluigbo, C., M.S. Pearl, T.N. Tsuchida, T. Chang, C.-Y. Ho and W. D. Gaillard. Published by Child’s Nervous System October 29, 2016.
STAR Team

STAR robot is finalist in NASA iTech challenge

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STAR Team

Children’s National Health System’s proprietary robotic surgical technology Smart Tissue Autonomous Robot (STAR) has been named one of the top ten finalists in the 2017 NASA iTech call for ideas challenge.

The Sheikh Zayed Institute for Pediatric Surgical Innovation’s intelligent Smart Tissue Autonomous Robot (STAR) has been named one of the top ten finalists in the 2017 NASA iTech challenge.

The team will present the project at the NASA iTech Forum on July 12-13, 2017 at the National Institute of Aerospace in Hampton, VA, where leaders from NASA and prospective stakeholders will evaluate the 10 finalists and select three top solutions.

“We’re honored to be selected as a finalist in this prestigious challenge,” said Peter C. Kim, M.D., vice president and associate surgeon in chief at Sheikh Zayed Institute at Children’s National. “Our technology is capable of many solutions that would be useful as part of NASAs deep space exploration, including intelligent pods capable of common intelligent autonomous surgical procedures.”

A cutting-edge system, STAR was the first to perform a successful autonomous robotic soft tissue surgery on a live subject in May 2016 and is licensed to Omniboros.

e-learning

Gamifying e-learning for medical education

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e-learning

Computer-based learning simulations and training modules hold the promise to create “virtual patients,” enhancing opportunities for real-time learning and evaluation in medical education.

Today’s e-learning platforms are often static, one-way programs or web pages that ask passive users to read text or watch a video on screen. However, the emerging generation of e-learning features dynamic visualizations and interactions that immerse the user in real-time settings. Military pilots and vehicle operators, for example, still log hours in traditional ways, such as hands-on simulation and flight time, but now also sit in front of a computer and practice tackling unique scenarios designed to challenge and improve their real-time decision making under pressure.

In medical education, computer-based learning simulations and training modules have the promise to create “virtual patients,” giving trainees and physicians the opportunity for real-time evaluation and application of evidence-based care models. Mary Ottolini, M.D., M.P.H., M.Ed., vice chair of medical education and designated institutional official, and Jeff Sestokas, M.Ed., director of the E-Learning Center, are at the forefront of developing these types of training modules for a wide variety of users with variable experience and specialty/sub-specialty expertise in pediatric medicine.

Instructional technologists, multimedia developers and members of the Children’s Academy of Pediatric Educators (CAPE) – some of the nation’s best pediatric clinicians and medical educators – all work collaboratively to design programs that achieve specific educational goals. Each platform resides in a responsive template, making it accessible on a variety of devices and highly customizable to the needs of specific learners. A multitude of online communication and educational tactics are available to enhance learning, including live and archived lectures, forums, blogs, wikis, documents, training modules, virtual simulations, quizzes, podcasts and videoconferencing. Within each platform, individual educators have the ability to customize learning experiences even further, selecting specific modules and specialty content.

“We’re taking these tools to people where they are, and delivering the content in ways that really embrace how this latest generation of trainees receives and processes information,” says Sestokas.

Designed for Children’s National and sites around the country, the majority of the 25 plus platforms and portals created so far focus on what Children’s experts know best – the unique challenges and needs of pediatric patients and their families.

Mary Ottolini

Mary Ottolini, M.D., M.P.H., M.Ed.

For example, clinical scenarios encompass more than simple clinical evaluation and diagnosis. The learning module BEARScalpel teaches surgical residents with limited prior exposure to pediatric care how to address common communication challenges that arise when interacting with pediatric patients and their families. Maybe the “digital” family has a language barrier or a child is in more grave condition than it appears and the trainee has to decide when and how to escalate the issue to an attending physician.

Another module asks participants to diagnose a three-dimensional nonverbal “digital” infant, based on visual and audio cues such as type of cry, skin tone and overall responsiveness.

This type of case-driven learning is relatively new in the universe of electronic medical education, but is showing early promise to improve students’ analytical thinking and problem solving skills.

“There is a lot of medical e-learning available,” Sestokas adds. “But not much e-learning is case-based. That’s something we’re doing that few others do, even in adult-focused medical education.”

A recently published study measured the success of one platform at achieving its educational goals. Participants had higher satisfaction, reported higher impact on knowledge and demonstrated higher scores on metrics assessing behavior change in a virtual environment when compared to the traditional format of reading. The results suggest that interactive modules are not only a preferred method of content delivery but also more likely to improve resident performance. This assessment was made possible by sophisticated tracking systems built into each platform. The data collection provides a steady stream of intelligence about user interaction with presentation format and content, and the material’s contribution to learning goals.

“These systems augment the long standing medical education practices of hands-on simulation and bedside patient care rotations, to allow us to expose trainees and physicians to more scenarios, more complications, and more challenging decisions. We know that the value of a trainee’s education is based on the quality of the cases they are exposed to,” says Dr. Ottolini. “Our goal is to equip these trainees with tools to care for pediatric patients in the future, but to also improve their ability to care for patients today, while they continue to learn.”

As a result of this innovative work, Children’s National is one of seven institutions, and the only children’s hospital, selected to receive an Accreditation Council for Graduate Medical Education (ACGME) Innovation Award that will develop next generation of learning resources for faculty and trainees around the country.

“We have the opportunity to ensure that we are doing the best possible job of training and continuously developing pediatric experts in a field that is rapidly changing and adapting,” concludes Dr. Ottolini. “The best way to do this is to develop flexible training systems that engage users, establish a habit of lifelong learning, and instill a desire for clinical care improvement.”

 


One patient-focused module creates a virtual grocery store to help patients
and families with celiac disease learn how to identify gluten-free food.

test tubes

2016: A banner year for innovation

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test tubes

In 2016, clinicians and research scientists working at Children’s National Health System published more than 1,100 articles in high-impact journals about a wide array of topics. A Children’s Research Institute review group selected the top articles for the calendar year considering, among other factors, work published in top-tier journals with impact factors of 9.5 and higher.

“Conducting world-class research and publishing the results in prestigious journals represents the pinnacle of many research scientists’ careers. I am pleased to see Children’s National staff continue this essential tradition,” says Mark L. Batshaw, M.D., Physician-in-Chief and Chief Academic Officer at Children’s National. “While it was difficult for us to winnow the field of worthy contenders to this select group, these papers not only inform the field broadly, they epitomize the multidisciplinary nature of our research,” Dr. Batshaw adds.

The published papers explain research that includes discoveries made at the genetic and cellular levels, clinical insights and a robotic innovation that promises to revolutionize surgery:

  • Outcomes from supervised autonomous procedures are superior to surgery performed by expert surgeons
  • The Zika virus can cause substantial fetal brain abnormalities in utero, without microcephaly or intracranial calcifications
  • Mortality among injured adolescents was lower among patients treated at pediatric trauma centers, compared with adolescents treated at other trauma center types
  • Hydroxycarbamide can substitute for chronic transfusions to maintain transcranial Doppler flow velocities for high-risk children with sickle cell anemia
  • There is convincing evidence of the efficacy of in vivo genome editing in an authentic animal model of a lethal human metabolic disease
  • Sirt1 is an essential regulator of oligodendrocyte progenitor cell proliferation and oligodendrocyte regeneration after neonatal brain injury

Read the complete list.

Dr. Batshaw’s announcement comes on the eve of Research and Education Week 2017 at Children’s National, a weeklong event that begins April 24. This year’s theme, “Collaboration Leads to Innovation,” underscores the cross-cutting nature of Children’s research that aims to transform pediatric care.

Smart Tissue Autonomous Robot

Robotic system automates soft-tissue surgery

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Smart Tissue Autonomous Robot

STAR’s performance was measurably better in some respects, compared with surgeons performing the same procedure manually or with conventional robotic techniques.

PDF Version

What’s known

Robotic surgery has been increasingly adopted for a variety of procedures. However, conventional robotic surgery is still controlled by individual surgeons. One way to avoid variabilities and improve outcomes is to automate entire procedures or parts of procedures. Thus far, autonomous robotic surgery has been limited to parts of the body with rigid anatomy, because of the unpredictability of soft tissues. These structures can move in unexpected ways during cutting, suturing or cauterizing. No autonomous robotic systems for soft-tissue procedures have been developed due to technology lags, including a lack of vision systems that can distinguish and track tissue in dynamic surgical environments, and intelligent algorithms.

What’s new

A team of researchers led by Peter C.W. Kim, M.D., Ph.D., Vice President, and Axel Krieger, Ph.D., Assistant Professor of the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National Health System, developed the Smart Tissue Autonomous Robot (STAR) for performing autonomous soft-tissue surgeries. The researchers tested its capability in three areas: Suturing a cut along a length of suspended intestine, suturing together two pieces of intestine removed from an experimental model and suturing together two pieces of intestine inside a living experimental model. The autonomous robot’s performance was measurably better in some respects, compared with surgeons trained for at least seven years performing the same procedure manually or with conventional robotic techniques. STAR’s stitches were more consistent and less prone to leaks. This demonstration of supervised autonomous surgical tasks by a robot promises that surgeons can improve their technical and decision-making skills in the not-too-distant future, working collaboratively with intelligent robots to improve clinical outcomes.

Questions for future research

Q: Can autonomous robots be used for soft-tissue procedures more complicated than suturing?
Q: Can this system be miniaturized for complex procedures taking place in a confined space, such as suturing together blood vessels?
Q: How can we make more intelligent robots available to all surgeons?

Source: “Supervised autonomous robotic soft tissue surgery.” Shademan A., R.S. Decker, J.D. Opfermann, S. Leonard, A. Krieger and P.C.W. Kim. Published by Science Translational Medicine on May 4, 2016.

Karun Sharma, M.D., poses with two patients

Treating osteoid osteoma with MR-HIFU

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Karun Sharma, M.D., poses with two patients

Karun Sharma, M.D., poses with two patients who participated in the MR-HIFU trial for pediatric osteoid osteoma.

Doctors from the Sheikh Zayed Institute for Pediatric Surgical Innovation and surgeons from Children’s National are the first in the U.S. to use Magnetic Resonance-Guided High-intensity Focused Ultrasound (MR-HIFU) to treat pediatric osteoid osteoma.

The trial, led by Principal Investigator Karun Sharma, M.D., Ph.D., Director of Interventional Radiology at Children’s National, began in 2015 and is demonstrating early success in establishing the safety and feasibility of noninvasive MR-HIFU as an alternative to the current, more invasive approaches to remove tumor tissue.

Osteoid osteoma is a painful, but benign, bone tumor that commonly occurs in children and young adults. Removal generally requires orthopaedic surgery to scrape the tumor from the bone or CT (computerized tomography) image-guided radiofrequency ablation (RFA), which is less invasive than surgery but is associated with ionizing radiation exposure and requires drilling through muscle and soft tissue into bone.

MR-HIFU, on the other hand, is a precise and controlled method that does not require a scalpel or needle, greatly reducing the risk of complications, including infections and bone fractures. Even better, it promises reduced procedure time, typically an hour or less.

“Our team set out to provide a noninvasive and radiation free treatment option for children with osteoid osteoma and our pilot feasibility and safety trial is almost completed. We have treated 9 patients and we’re very pleased with the success of the treatments so far. Although follow up will continue for another year, results to date that show that MR-HIFU may be a completely non-invasive and radiation free treatment for osteoid osteoma,” Dr. Sharma says. “Several of the children we treated were very active prior to the onset of their tumor, one a soccer player and the other a swimmer, but because of pain from the tumor, they were unable to enjoy their favorite activities, until now.”

“The use of MR-HIFU ablation of osteoid osteoma is a perfect example of our mission in the Sheikh Zayed Institute to make pediatric surgery more precise and less invasive,” adds Peter Kim, M.D., C.M., Ph.D., Vice President of the Sheikh Zayed Institute, who leads the Image Guided Non-Invasive Therapeutic Energy (IGNITE) program.

IGNITE is a joint clinical and research collaboration between the Sheikh Zayed Institute and the Divisions of Radiology, Oncology, Surgery, and Anesthesiology at Children’s National. MR-HIFU is also being used to treat pediatric refractory soft tissue tumors, a first-in-the-world clinical trial that is a collaboration between Children’s National and the NIH Center for Interventional Oncology directed by Bradford Wood, MD. Additionally, the IGNITE team has started preliminary work to explore applications of MR-HIFU for noninvasive ablation of growth plates and pediatric solid tumors.

In addition to Drs. Sharma and Kim, the team for the ablation of osteoid osteoma clinical trial includes: AeRang Kim, MD, PhD, pediatric oncologist; Matthew Oetgen, M.D., Division Chief of Orthopaedic Surgery and Sports Medicine; Kaleb Friend, M.D., pediatric orthopedic surgeon; Pavel Yarmolenko, Ph.D., Haydar Celik, Ph.D., and Avinash Eranki, biomedical engineers; Viktoriya Beskin, MR technologist; and Janish Patel, M.D., and Domiciano Santos, M.D., pediatric anesthesiologists.

cord blood

T-cell therapy success for relapsing blood cancer

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cord blood

A unique immunotherapeutic approach that expands the pool of donor-derived lymphocytes (T-cells) that react and target three key tumor-associated antigens (TAA) is demonstrating success at reducing or eliminating acute leukemias and lymphomas when these cancers have relapsed following hematopoietic stem cell transplant (HSCT).

“There’s currently a less than 10 percent chance of survival for a child who relapses leukemia or lymphoma after a bone marrow transplant—in part because these patients are in a fragile medical condition and can’t tolerate additional intense therapy,” says Kirsten Williams, M.D., a blood and marrow transplant specialist in the Division of Hematology at Children’s National Health System, and principal investigator of the Research of Expanded multi-antigen Specifically Oriented Lymphocytes for the treatment of VEry High Risk Hematopoietic Malignancies (RESOLVE) clinical trial.

The unique manufactured donor-derived lymphocytes used in this multi-institutional Phase 1 dose-ranging study are receptive to multiple tumor-associated antigens within the cell, including WT1, PRAME, and Survivin, which have been found to be over-expressed in myelodysplastic syndromes (MDS), acute myeloid leukemia (AML), B-cell AML/MDS, B-cell acute lymphoblastic leukemia (ALL), and Hodgkins lymphoma. Modifying the lymphocytes for several antigens, rather than a single target, broadens the ability of the T-cells to accurately target and eradicate cancerous cells.

Preliminary results demonstrate a 78 percent response rate to treatment, and a 44 percent rate of total remission for participating patients. To date, nine evaluable patients with refractory and relapsed AML/MDS, B-cell ALL, or Hodgkins lymphoma have received 1-3 infusions of the expanded T-cells, and of those, seven have responded to the treatment, showing reduction in cancer cells after infusion with little or no toxicity. All of these patients had relapse of their cancer after hematopoietic cell transplantation. The study continues to recruit eligible patients, with the goal of publishing the full study results within the next 12 months.

“Our preliminary data also shows that this new approach has few if any side effects for the patient, in part because the infused T-cells target antigens that are found only in cancer cells and not found in healthy tissues,” Dr. Williams notes.

The approach used to expand existing donor-derived TAA-lymphocytes, rather than using unselected T cells or genetically modified T-cells as in other trials, also seems to reduce the incidence of post infusion graft versus host disease and other severe inflammatory side effects. Those side effects typically occur when the infused lymphocytes recognize healthy tissues as foreign and reject them or when the immune system reacts to the modified elements of the lymphocytes, she adds.

“These results are exciting because they may present a truly viable option for the 30 to 40 percent of children who will relapse post-transplant,” Dr. Williams concludes. “Many of the patients who participated were given two options: palliative care or this trial. To see significant success and fewer side effects gives us, and families with children facing relapsing leukemia, some hope for this new treatment.”

Dr. Williams discussed the early outcomes of the RESOLVE trial during an oral presentation at the American Society for Blood and Marrow Transplantation meeting on February 22, 2017.

“The early indicators are very promising for this patient population,” says Catherine Bollard, M.D., M.B.Ch.B., Chief of the Division of Allergy and Immunology, Director of the Program for Cell Enhancement and Technologies for Immunotherapy (CETI) at Children’s National, and senior author of the study. “If we can achieve this, and continue to see good responses with few side effects, it’s possible these methods could become a viable alternative to HSCT for patients with no donor match or who aren’t likely to tolerate transplant.”

This is one of the first immunotherapeutic approaches to successfully capitalize on the natural ability of human T-cells to kill cancer, though previous research has shown significant success for this approach in reducing the deadly impact of several viruses, including Epstein-Barr virus, adenovirus, and cytomegalovirus, post HSCT. These new findings have led to the development of additional clinical trials to investigate applications of this method of TAA-lymphocyte manufacture and infusion for pre-HSCT MDS/AML, B-cell ALL, Hodgkins Lymphoma, and even some solid tumors.

MR-guided right heart catheterization live streams at SCMR scientific sessions

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Interventional Cardiac Magnetic Resonance (ICMR) Program Team

The ICMR team who performed the livestream procedure during the member assembly session. The prestigious invitation came as a result of the innovative partnership between Children’s National and the NHLBI to form the Interventional Cardiac MR Program.

Cardiologists from the Interventional Cardiac Magnetic Resonance (ICMR) Program at Children’s successfully live streamed a right heart catheterization procedure guided by magnetic resonance (MR) imaging during the Member Assembly Session of the Society for Cardiac Magnetic Resonance Scientific Session in early February.

The ICMR program is a first-in-the-nation partnership between Children’s National and the National Heart, Lung, and Blood Institute that features a state-of-the-art dedicated cardiac specific MRI suite for diagnosis, evaluation and intervention for children with heart conditions. The program’s goal is to advance diagnostic and interventional cardiac magnetic resonance imaging techniques in pediatric cardiology and for adults with congenital heart disease. ICMR is cross-disciplinary, connecting researchers, clinicians, engineers and physicists to provide more precise and less invasive diagnostics and treatment options that also reduce radiation exposure for vulnerable patients.

 

MAGEC Rod Tool

MAGEC growing rod improves orthopaedics

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MAGEC Spinal Growing Rod Inside Boy

After implanting a MAGEC Spinal Growing Rod, doctors use an external remote control to lengthen the magnetically controlled rod as the child grows.

Children’s National Health System was among the first in the country to offer a novel spinal growing rod for children with scoliosis after it was approved by the FDA just three years ago – and has now treated 30 patients with this innovative technique. The MAGEC™ (MAGnetic Expansion Control) Spinal Growing Rod is a non-invasive treatment for children with early onset scoliosis.

After the initial procedure to implant the rod, doctors use an external remote control outside of the body to lengthen the magnetically controlled rod as the child grows. The adjustments are non-invasive, reducing the number of surgeries required during the course of treatment.

Growing rods have become effective tools for children whose spinal curvature is too significant to control with bracing or casting. The rods—which are surgically attached to the spine above and below the curve and then traditionally lengthened during follow-up surgical procedures—allow the spine to continue growing while managing the curve until the child is old enough for spinal fusion.

The problem: Children must bear the physical and psychological burden of undergoing lengthening procedures every six to 12 months until they are skeletally mature enough to have spinal fusion—typically around age 10 for girls and age 12 or 13 for boys.

Now, instead of returning to the hospital for a major surgery to adjust growth rods twice a year, children with the MAGEC rod have adjustments in just a few minutes four times a year – minus invasive surgery and recovery time, says Matthew Oetgen, M.D., Division Chief of Orthopaedic Surgery and Sports Medicine and Director of Orthopaedic Research at Children’s National.

“Traditional growing rods work, but they require multiple surgeries that increase complication rates and time spent in the hospital,” he says. “We treat many children each year who have or are candidates for growing rods, so it’s important for us to embrace new technology to make the lengthening process easier and less painful for children while decreasing morbidity.”

Children’s National orthopaedic surgeons lengthen the MAGEC rod every three to four months in the office using the electronic remote control. They then monitor the scoliosis and treatment progress with radiographs. Like traditional growing rods, MAGEC is a means, not an end—the system provides a bridge treatment spanning the years between the initial lengthening surgery and spinal fusion.

Dr. Oetgen says this game-changing technology may not be the right solution for every patient, but is the preferred choice because the patients can avoid some additional surgeries down the line. Patients in the 5-7 year age range at the time the rod is in place would potentially face 10 years of surgeries every six months with traditional growing rods.

“We’ve eliminated these regularly scheduled procedures, which is great if you’re a healthy kid,” Oetgen says. “But if you are a kid with other health challenges, such as a neuromuscular disease – it’s really life changing not to have to go into surgery every six months. It saves them a tremendous amount of intervention.”

Following MAGEC’s approval by the U.S. Food and Drug Administration in February 2014, surgeons at Children’s National performed two of the first 15 MAGEC implantations in the country, and the first in the greater Washington, DC, area. MAGEC rods are approved for children with scoliosis greater than 50 degrees in magnitude and under 10 years of age.

On the horizon for this new technology are some improvements Oetgen says would allow physicians using MAGEC rods to improve the patient experience even more. “Smarter” devices could potentially tell doctors how much lengthening has actually occurred after they’ve pushed the buttons on the remote control – instead of having to follow up the procedure with an x-ray to see how the rod interacted with soft tissue around the spine, he says.

And the next generations of MAGEC rods may be smaller devices, allowing younger, smaller kids to reap the benefits.

“In the future these improvements will allow us to treat more patients, and allow us to know what we’re doing and what kind of feedback we’re getting,” Oetgen says.