Innovation Archives

control population and population with Williams-Beuren syndrome.

Machine learning tool detects the risk of genetic syndromes

September 1, 2021

(A) Control population. (B) Population with Williams-Beuren syndrome. Average faces were generated for each demographic group after automatic face pose correction.

With an average accuracy of 88%, a deep learning technology offers rapid genetic screening that could accelerate the diagnosis of genetic syndromes, recommending further investigation or referral to a specialist in seconds, according to a study published in The Lancet Digital Health. Trained with data from 2,800 pediatric patients from 28 countries, the technology also considers the face variability related to sex, age, racial and ethnic background, according to the study led by Children’s National Hospital researchers.

“We built a software device to increase access to care and a machine learning technology to identify the disease patterns not immediately obvious to the human eye or intuition, and to help physicians non-specialized in genetics,” said Marius George Linguraru, D.Phil., M.A., M.Sc., principal investigator in the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National Hospital and senior author of the study. “This technological innovation can help children without access to specialized clinics, which are unavailable in most of the world. Ultimately, it can help reduce health inequality in under-resourced societies.”

This machine learning technology indicates the presence of a genetic syndrome from a facial photograph captured at the point-of-care, such as in pediatrician offices, maternity wards and general practitioner clinics.

“Unlike other technologies, the strength of this program is distinguishing ‘normal’ from ‘not-normal,’ which makes it an effective screening tool in the hands of community caregivers,” said Marshall L. Summar, M.D., director of the Rare Disease Institute at Children’s National. “This can substantially accelerate the time to diagnosis by providing a robust indicator for patients that need further workup. This first step is often the greatest barrier to moving towards a diagnosis. Once a patient is in the workup system, then the likelihood of diagnosis (by many means) is significantly increased.”

Every year, millions of children are born with genetic disorders — including Down syndrome, a condition in which a child is born with an extra copy of their 21st chromosome causing developmental delays and disabilities, Williams-Beuren syndrome, a rare multisystem condition caused by a submicroscopic deletion from a region of chromosome 7, and Noonan syndrome, a genetic disorder caused by a faulty gene that prevents normal development in various parts of the body.

Most children with genetic syndromes live in regions with limited resources and access to genetic services. The genetic screening may come with a hefty price tag. There are also insufficient specialists to help identify genetic syndromes early in life when preventive care can save lives, especially in areas of low income, limited resources and isolated communities.

“The presented technology can assist pediatricians, neonatologists and family physicians in the routine or remote evaluation of pediatric patients, especially in areas with limited access to specialized care,” said Porras et al. “Our technology may be a step forward for the democratization of health resources for genetic screening.”

The researchers trained the technology using 2,800 retrospective facial photographs of children, with or without a genetic syndrome, from 28 countries, such as Argentina, Australia, Brazil, China, France, Morocco, Nigeria, Paraguay, Thailand and the U.S. The deep learning architecture was designed to account for the normal variations in the face appearance among populations from diverse demographic groups.

“Facial appearance is influenced by the race and ethnicity of the patients. The large variety of conditions and the diversity of populations are impacting the early identification of these conditions due to the lack of data that can serve as a point of reference,” said Linguraru. “Racial and ethnic disparities still exist in genetic syndrome survival even in some of the most common and best-studied conditions.”

Like all machine learning tools, they are trained with the available dataset. The researchers expect that as more data from underrepresented groups becomes available, they will adapt the model to localize phenotypical variations within more specific demographic groups.

In addition to being an accessible tool that could be used in telehealth services to assess genetic risk, there are other potentials for this technology.

“I am also excited about the potential of the technology in newborn screening,” said Linguraru. “There are approximately 140 million newborns every year worldwide of which eight million are born with a serious birth defect of genetic or partially genetic origin, many of which are discovered late.”

Children’s National as well recently announced that it has entered into a licensing agreement with MGeneRx Inc. for its patented pediatric medical device technology. MGeneRx is a spinoff from BreakThrough BioAssets LLC, a life sciences technology operating company focused on accelerating and commercializing new innovations, such as this technology, with an emphasis on positive social impact.

“The social impact of this technology cannot be underestimated,” said Nasser Hassan, acting chief executive officer of MGeneRx Inc. “We are excited about this licensing agreement with Children’s National Hospital and the opportunity to enhance this technology and expand its application to populations where precision medicine and the earliest possible interventions are sorely needed in order to save and improve children’s lives.”

Drs. Packer and van den Acker at the Pediatric Device Innovators Forum

Pediatric Device Innovators Forum explores state of focused ultrasound

August 18, 2021

For children living with pediatric tumors, less invasive and less painful treatment with no radiation exposure was not always possible. In recent years, the development of technologies like Magnetic resonance guided high intensity focused ultrasound (MR-HIFU) and Low intensity transcranial focused ultrasound (LIFU) is helping to reverse that trend.

This topic was the focus of the recent Pediatric Device Innovators Forum (PDIF) hosted by the National Capital Consortium for Pediatric Device Innovation (NCC-PDI) in partnership with the U.S. Food and Drug Administration’s (FDA) Pediatric Device Consortia (PDC) grant program. A collaboration between Children’s National Hospital and University of Maryland Fischell Institute for Biomedical Devices, NCC-PDI is one of five PDCs funded by the FDA to support pediatric device innovators in bringing more medical devices to market for children.

The discussion, moderated by Kolaleh Eskandanian, Ph.D., MBA, PMP, vice president and chief innovation officer at Children’s National and principal investigator of NCC-PDI, explored the use of focused ultrasound’s noninvasive therapeutic technology for two pediatric indications, Osteoid Osteoma (OO) and Diffuse Intrinsic Pontine Glioma (DIPG), and the ways it can increase the quality of life for pediatric patients while also decreasing the cost of care.

The discussion also examined the most common barriers preventing more widespread implementation of focused ultrasound technology, specifically small sample size for evidence generation, lack of funding opportunities and reimbursement issues that can make or break a technology’s chances at reaching the patients that need it.

Karun Sharma, M.D., director of Interventional Radiology at Children’s National, emphasized the potential for focused ultrasound to treat localized pain relief and treat other diseases that, like OO, do not have any other therapeutic alternative

“At Children’s National, we use MR-HIFU to focus an ultrasound beam into lesions, usually tumors of the bone and soft tissues, to heat and destroy the harmful tissue in that region, eliminating the need for incisions,” says Sharma. “In 2015, Children’s National doctors became the first in the U.S. to use MR-HIFU to treat pediatric osteoid osteoma (OO), a painful, but benign, bone tumor that commonly occurs in children and young adults. The trial demonstrated early success in establishing the safety and feasibility of noninvasive MR-HIFU in children as an alternative to current, more invasive approaches to treat these tumors.”

In November 2020, the FDA approved this MR-HIFU system to treat OO in pediatric patients.

Roger Packer, M.D., senior vice president of the Center for Neuroscience and Behavioral Medicine at Children’s National, also discussed how focused ultrasound, specifically LIFU, has also proven to be an attractive modality for its ability to non-invasively, focally and temporarily disrupt the blood brain barrier (BBB) to allow therapies to reach tumors that, until recently, would have been considered unreachable without severe intervention.

“This presents an opportunity in pediatric care to treat conditions like Diffuse Intrinsic Pontine Glioma (DIPG), a highly aggressive brain tumor that typically causes death and morbidity,” says Packer.

Packer is planning a clinical trial protocol to investigate the safety and efficacy of LIFU for this pediatric indication.

The forum also featured insight from Jessica Foley, M.D., chief scientific officer, Focused Ultrasound Foundation; Arjun Desai, M.D., chief strategic innovation officer, Insighttec; Arun Menawat, M.D., chairman and CEO, Profound Medical; Francesca Joseph, M.D., Children’s National; Johannes N. van den Anker, M.D., Ph.D., vice chair of Experimental Therapeutics, Children’s National; Gordon Schatz, president, Schatz Reimbursement Strategies; Mary Daymont, vice president of Revenue Cycle and Care Management, Children’s National; and Michael Anderson, MD, MBA, FAAP, FCCM, FAARC, senior advisor to US Department of Health and Human Services (HHS/ASPR) and Children’s National.

Anthony Sandler, M.D., senior vice president and surgeon-in-chief of the Joseph E. Robert Jr. Center for Surgical Care and director of the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National Hospital, and Sally Allain, regional head of Johnson & Johnson Innovation, JLABS @ Washington, DC, opened the forum by reinforcing both organizations’ commitment to improving pediatric health.

In September 2020, the Focused Ultrasound Foundation designated Children’s National Hospital as the first global pediatric Center of Excellence for using this technology to help patients with specific types of childhood tumors. As a designated COE, Children’s National has the necessary infrastructure to support the ongoing use of this technology, especially for carrying out future pediatric clinical trials. This infrastructure includes an ethics committee familiar with focused ultrasound, a robust clinical trials research support team, a data review committee for ongoing safety monitoring and annual safety reviews, and a scientific review committee for protocol evaluation.

The Pediatric Device Innovators Forum is a recurring collaborative educational experience designed by the FDA-supported pediatric device consortia to connect and foster synergy among innovators across the technology development ecosystem interested in pediatric medical device development. Each forum is hosted by one of the five consortia. This hybrid event took place at the new Children’s National Research and Innovation Campus, the first-of-its-kind focused on pediatric health care innovation, on the former Walter Reed Army Medical Center campus in Washington, D.C.

To view the latest edition of the forum, visit the NCC-PDI website.

Panelists at the Pediatric Device Innovators Forum

The recent Pediatric Device Innovators Forum (PDIF) exploring the state of focused ultrasound was held at the new Children’s National Research and Innovation Campus, a first-of-its-kind focused on pediatric health care innovation.

Commercialization of novel facial analysis technology can improve diagnosis of rare disorders in pediatric patients

July 14, 2021

Children’s National Hospital has entered into a licensing agreement with MGeneRx Inc. for its patented pediatric medical device technology using objective digital biometric analysis software for the early and non-invasive screening of dysmorphic genetic diseases such as Noonan syndrome.

Children’s National Hospital has entered into a licensing agreement with life sciences technology company MGeneRx Inc. for its patented pediatric medical device technology using objective digital biometric analysis software for the early and non-invasive screening of dysmorphic genetic diseases. The technology, developed by a multidisciplinary Children’s National team led by Marius George Linguraru, D.Phil, M.A., M.Sc., of the Sheikh Zayed Institute for Pediatric Surgical Innovation and Marshall Summar, M.D., director of the Children’s National Rare Disease Institute (CNRDI), can provide a more advanced diagnostic tool for regions of the world with limited access to geneticists or genetic testing.

The application utilizes artificial intelligence (AI) and machine learning to analyze biometric data and identify facial markers that are indicative of genetic disorders. Physicians can capture biometric data points of a child’s face in real time within the platform, where it scans facial biometric features to determine the potential presence of a genetic disease, which can often be life-threatening without early intervention. Research studies conducted in conjunction with the National Human Genome Research Institute at the National Institutes of Health further enhanced the development of the application in recent years, showing the potential to detect, with a 90 percent accuracy, early diagnosis of 128 genetic diseases across pediatric subjects in 28 countries. These diseases include DiGeorge syndrome (22q11.2 deletion syndrome), Down syndrome, Noonan syndrome and Williams-Beuren syndrome.

“We are delighted to enter into this licensing agreement through Innovation Ventures, the commercialization arm of Children’s National Hospital, which seeks to move inventions and discoveries from Children’s National to the marketplace to benefit the health and well-being of children. Our mission is to add the ‘D’ in development to the ‘R’ in research to accelerate the commercialization of our intellectual property,” says Kolaleh Eskandanian, Ph.D., M.B.A., P.M.P., vice president and chief innovation officer at Children’s National and managing director of Innovation Ventures. “It is through partnerships with startups and the industry that we can achieve this goal and thus we highly value this new partnership with MGeneRx Inc. The acceleration and commercialization of this objective digital biometric analysis technology will not only help diagnose rare genetic disorders – it will also allow for earlier interventions that improve the quality of life for the children living with these conditions.”

Eskandanian adds that the social impact of this technology is especially profound in lower income nations around the world, where there is a high prevalence of rare genetic conditions but a severe lack in the specialty care required to diagnose and treat them. Additional data collected through the expanded use of the technology will help to further develop the application and expand its capabilities to identify and diagnose additional rare genetic conditions.

The licensing agreement was arranged by the Children’s National Office of Innovation Ventures, which is focused on the commercialization of impactful new pediatric medical device technologies and therapies to advance children’s health care. Created to catalyze the ongoing translational research of the Children’s National Research Institute (CNRI) as well as inventions by hospital’s clinicians, Innovation Ventures focuses on four core pillars to advance pediatric medical technologies including a Biodesign program, partnerships and alliances to augment internal capacity, seed funding to de-risk technologies and validate market and clinical relevance, and back-office operations to manage intellectual property and licensing activities. Since 2017, Children’s National intellectual property has served as the basis for over 15 licensing or option agreements with commercial partners.

Providing access to an array of experts and resources for pediatric innovators is one of the aims of the Children’s National Research & Innovation Campus, a first-of-its-kind focused on pediatric health care innovation, with the first phase currently open on the former Walter Reed Army Medical Center campus in Washington, D.C. With its proximity to federal research institutions and agencies, universities, academic research centers, as well as on-site incubator Johnson and Johnson Innovation – JLABS, the campus provides a rich ecosystem of public and private partners, which will help bolster pediatric innovation and commercialization.

Overcoming real and perceived barriers to pediatric device innovation

July 7, 2021

A working group of innovators, engineers and clinicians from Children’s National Hospital and other institutions came together to address the real and perceived barriers to the creation of pediatric devices, such as this pediatric cardiac and vascular MRI coil developed by Inkspace Imaging.

A working group of innovators, engineers and clinicians from Children’s National Hospital, Children’s Hospital of Orange County and other institutions came together to address the real and perceived barriers to pediatric device innovation through opportunities that may change the return-on-investment in this market and improve health outcomes.

The new report, published in the Journal of Translational Engineering in Health and Medicine, mentions barriers that impede the advancement of pediatric devices, including excessive limitations for testing and validation, lack of incentives, inadequate research models and inconsistent pediatric-related knowledge among companies, regulatory experts, ethic review panels and government reviewers.

To remove the real and perceived barriers fostering excessive limitations, the researchers suggest reducing the perceived risk by establishing guidelines that standardize the review process and ethical research models, incentivizing small companies to participate in pediatric device innovation.

To increase incentives, the researchers call for the development of pediatric versions of adult devices with or without enforcement of regulations, develop incentives for small, medium and large-size companies, extend patent protection and more.

Since science corroborates the device’s effectiveness and safety, tailored pediatric research models are needed to help advance pediatric device innovation. While randomized trials in well-defined cohorts are commonly used in the scientific quest, they do not reflect the clinical practice in the pediatric devices field.

“Overcoming this barrier will require greater opportunity for creativity in the design of clinical trials, including delayed entry, intent-to-treat analysis, personalized outcome measures, and post-hoc subgroup analysis,” said Terence et al. “Effective research for pediatric device innovation will require greater ability to rely on ‘real-world’ data from post-market use of the proposed device or similar devices.”

On the education side, stakeholders, such as device sponsors and researchers, must receive an improved education on pediatric devices, according to the authors. Pediatricians should also be added to the regulatory review panels and advisory boards, so decision-makers can receive the pediatric perspective and fold it into their considerations.

“The consensus outcome of this meeting is that there are multiple opportunities, and a flexible combination of new programs and regulatory changes can be created to benefit the multiple stakeholders in pediatric device development,” said Terence et al. “An essential component will be building a cadre of experts with the development, regulatory, and clinical expertise to support all innovators.”

Kolaleh Eskandanian, Ph.D., M.B.A., P.M.P., vice president and chief innovation officer at Children’s National Hospital adds that supporting and expanding pediatric innovation is a key focus of the new Children’s National Research & Innovation Campus, the first-of-its-kind focused on pediatric health care innovation, with the first phase currently open on the former Walter Reed Army Medical Center campus in Washington, D.C. With its proximity to federal research institutions and agencies, universities, academic research centers, the campus provides a rich ecosystem of public and private partners which will help bolster pediatric innovation and commercialization.

Authors from Children’s Hospital Orange County include Terence Sanger, M.D., Nadine Afari, M.S., Anthony Chang, M.D., William Feaster, M.D., Sharief Taraman, M.D., Debra Beauregard, Brent Dethlefs, Tiffani Ghere, R.D., C.S.P., Mustafa Kabeer, M.D., and George Tolomiczenko.

The hybrid tracking mount for the LUS transducer

New hybrid approach for AR visualization of ultrasound images has surgical use

July 2, 2021

Children’s National Hospital researchers combined augmented reality (AR) and ultrasound imaging technologies to improve visualization during laparoscopic procedures. The patent-pending hybrid tracking method improved accuracy compared with hardware-based and computer vision-based approaches, according to the pre-clinical study published in the Journal of Medical Imaging.

“The system that we developed can work reliably under challenging intraoperative conditions, which is exciting for us,” said Raj Shekhar, M.S., Ph.D., principal investigator at Children’s National and senior author in the study. “The surgical view is usually very complex with various tissues, tools, blood and smoke in the view. Our system has been evaluated on pre-clinical models and has shown to provide acceptable overlay accuracy even during extreme conditions.”

Augmented reality for surgery is an emerging trend, consisting of a computer-generated image for the operating surgeon to see. While using ultrasound during surgery allows the doctor to see the organ’s internal structures, when combined, the AR system significantly improves the surgeon’s comprehension of the ultrasound image in the context of the surgical view.

“The AR system that we developed will benefit patients because AR-guided surgeries can be more precise, safer and faster,” said Shekhar. “Through sustained research and development effort and robust clinical-technical partnership, Children’s National is leading in clinical translation and technology transfer of the laparoscopic AR visualization technology. Other solutions are more laboratory-based while our focus has been on building a clinically practical and viable solution from day one.”

Laparoscopic surgery is known to improve outcomes, cause less scarring and speed the recovery process since the surgeons create small incisions with the aid of a camera. Still, doctors have a limited view of anatomic structures and surgical targets below the exposed surfaces.

Given that AR is an emerging technology, this work would not have been possible until recently. According to the researchers, no other scientists in the field take advantage of both tracking hardware and computer vision-based approaches.

“This work is important because it features best of both worlds: relying on tracking hardware to ensure robustness while using computer vision to enhance accuracy. This will generate a more accurate and reliable AR system which is more feasible for clinical use,” said Shekhar.

The hybrid tracking mount for the LUS transducer. The mount contains a six-DOF EM sensor and an AB with 21 markers fixed on three flat surfaces.

Children’s National provides clinical validation, IP for health challenge designed to advance pediatric innovation

June 24, 2021

girl with smart brain imagination doodle

Reinforcing its commitment to expanding innovation in pediatric care, Children’s National Hospital has joined a strategic partnership with the Center for Advancing Innovation (CAI) , along with collaborators Resonance Philanthropies and Digital Infuzion, to launch the 2021-2022 Innovate Children’s Health Challenge. This year’s event, Innovate Children’s Health II, focuses on technologies that address pandemic resiliency and prevention in the pediatric population and seeks to advance diagnostics, therapeutics and digital health tools that address pediatric mental health.

The initiative matches entrepreneurial talent with breakthrough inventions to launch startups and connect them with capital. For this challenge, more than 15 startups will compete for the opportunity to commercialize promising mental health solutions from a variety of research partners, including Children’s National. Nationally recognized for its expertise and commitment to innovation in pediatric care, Children’s National will contribute to the clinical validation of selected technologies.

“In addition to our role in providing clinical validation, this initiative provides the opportunity for intellectual property (IP) developed by leading clinicians at Children’s National Hospital, as well as other great pediatric institutions, to be considered for partnership with entrepreneurs who can help bring these technologies to market,” says Kolaleh Eskandanian, PhD, MBA, PMP, vice president and chief innovation officer at Children’s National Hospital. “Our mission is to improve children’s healthcare and Innovate Children’s Health II is a great way to harness this trifecta model — innovation, talent and capital — in order to develop breakthrough solutions that address the unique needs of pediatric patients.”

“In addition to our role in providing clinical validation, this initiative provides the opportunity for intellectual property (IP) developed by leading clinicians at Children’s National Hospital, as well as other great pediatric institutions, to be considered for partnership with entrepreneurs who can help bring these technologies to market,” says Kolaleh Eskandanian, PhD, MBA, PMP, vice president and chief innovation officer at Children’s National Hospital.

There are three ways to participate in Innovate Children’s Health II:

Entrepreneurial-minded people, alone or as members of multidisciplinary teams, may compete to commercialize vetted inventions;
Existing startups may enter the challenge with other public health-related inventions, including their own and/or others to which they have access;
Participants may submit ideas that they believe will improve emergency preparedness and pandemic response.

Inventors and technology licensing officers may submit inventions to be evaluated and made available for licensing to challenge winners. Innovate Children’s Health II will accept invention submissions until September 1, 2021. Anyone with an entrepreneurial spirit and interest in stopping current and future pandemics is invited to sign up to learn more about the challenge. Teams may also enroll in the challenge to choose a featured invention, bring in a third-party invention or get matched with an invention based on area of interest.

“The COVID-19 pandemic has made our children anxious, depressed and pessimistic about their futures. Through Innovate Children’s Health II, CAI and our strategic partner Children’s National will strive to give our children hope,” says Rosemarie Truman, founder and CEO of CAI. “We are grateful to Digital Infuzion and Resonance Philanthropies for their support, which makes this challenge possible.”

Eskandanian adds that supporting and expanding pediatric innovation is a key focus of the new Children’s National Research & Innovation Campus, the first-of-its-kind focused on pediatric health care innovation, with the first phase currently open on the former Walter Reed Army Medical Center campus in Washington, D.C. With its proximity to federal research institutions and agencies, universities, academic research centers, as well as on-site incubator Johnson and Johnson Innovation – JLABS, the campus provides a rich ecosystem of public and private partners which will help bolster pediatric innovation and commercialization.

PeriTorq, a catheter grip tool for use during pediatric cardiac interventional procedures

Five finalists selected in prestigious pediatric medical device pitch competition

May 20, 2021

Electrophysiology device innovators gain access to pediatric accelerator and will compete in September 2021 final showcase.

Creating accessible platforms for innovation is essential to advancing children’s health

April 12, 2021

newborn baby

Children’s National Hospital continues in its efforts to educate and advocate about ways to address the unique challenges facing pediatric medical device innovation, such as small market size and a lack of industry investment. In a recent commentary for IEEE Pulse, the publication of the IEEE Engineering in Medicine and Biology Society, Kolaleh Eskandanian, Ph.D., M.B.A., P.M.P., vice president and chief innovation officer at Children’s National Hospital and principal investigator of the National Capital Consortium for Pediatric Device Innovation (NCC-PDI), discussed how the FDA and children’s hospitals are stepping in to bridge critical funding gaps and build an accessible infrastructure that safely accelerates the development and commercialization of pediatric medical devices.

“Our goal is to provide direct funding [with] expert advising and support services to innovators of pediatric medical devices,” says Eskandanian.

“Our goal is to provide direct funding [with] expert advising and support services to innovators of pediatric medical devices,” says Eskandanian. “The notion that innovation follows investment, that really gave us the idea of competitions where if we announced a challenge and we could put grant money behind it—and open it to the entire world — then we could attract small businesses and start-up companies that could come forward and start thinking about developing a medical device more specifically for the pediatric population.”

Now in its 8^th year, NCC-PDI’s “Make Your Medical Device Pitch for Kids!” competition focuses on identifying and supporting innovators that address specific unmet pediatric needs. This year’s competition focuses on innovations in pediatric devices that treat congenital heart disease (CHD), with an emphasis on electrophysiology (EP) devices such as pacemaker systems, ablation catheters, wearable monitoring devices and related technologies that address arrhythmias in children. While the last decade brought great advances in technologies that improve the care of adult arrhythmias, pediatric patients have been left behind, with only five devices approved for use in children in the same period.

To learn more about the consortium’s efforts to advance pediatric innovation, visit the NCC-PDI website.

New robot helps care for kids in the emergency room at Children’s National Hospital

April 6, 2021

The robot, which is part of the FCC-funded COVID-19 Telehealth Program at Children’s National, is the latest innovation of the program that has rapidly evolved due to the ongoing pandemic.

Children and families who come into the emergency room at Children’s National Hospital may be surprised when their doctor comes in – in the form of a robot. Children’s National introduced a new robot to its Emergency Department (ED) for patients under evaluation for a COVID infection or being treated for other conditions. The robot, which is part of the FCC-funded COVID-19 Telehealth Program at Children’s National, is the latest innovation of the program that has rapidly evolved due to the ongoing pandemic.

“The robot can move in and out of spaces that otherwise we couldn’t get a significant number of providers in, especially with COVID-19 restrictions in place,” said Shireen Atabaki, M.D., M.P.H., associate medical director of Telemedicine, emergency medicine physician and program director for the COVID-19 Telehealth Program at Children’s National. “This is a really exciting program and it implements innovation that we might not have been able to do without the insights we’ve gained from the pandemic.”

The robot is Wi-Fi-enabled and can be remotely controlled by the physician providing the teleconsultation to monitor patient vitals — such as heart rate, body temperature or respiration rate. This allows doctors to work virtually with their team while also having the flexibility to attend to patients faster.

“The pandemic has made us aware of the need to protect patients, families and staff from infectious diseases,” said Alejandro Jose Lopez-Magallon, M.D., medical director of Telemedicine at Children’s National. The robot, he noted, spares clinicians from having to change their PPE, which saves time and gives them the ability to move on to the next patient while nurses and staff continue to provide bedside care.

“We have also seen that whenever a remote clinician is completely alone in the command center and can get on-screen without a mask, in a paradoxical way our patients may be more accepting of seeing a face on a screen that’s not covered with a mask and shield than a stranger using a mask in the same room,” Dr. Lopez-Magallon added.

Soon, the robot will also be used to coordinate subspecialty care — such as cardiac care — in the ED. This will provide more streamlined and expedited care for patients. Instead of leaving with a referral to set up a follow-up appointment with a specialist, patients would be able to receive the consult they need during the same appointment.

The robot is also presenting promising solutions for concerns around the number of restricted visitors. The team at Children’s National recently piloted using an iPad and other technology purchased with the FCC funds to remotely connect family members with patients.

“We downloaded the Zoom app to iPads in our ED to be able to coordinate calls between family members who can’t come in and see patients,” said Dr. Atabaki. “We are looking to implement this as a permanent solution keeping in mind how burdensome and emotionally stressful it has been for many not having the ability to be by the loved one’s side during such a challenging time.”

The FCC funds also covered the telehealth carts, tablets and other connected devices, the telehealth platform, telehealth equipment and innovative AI (augmented intelligence) to treat seriously ill COVID-19 pediatric patients.

The emergency department robot brings the robot-fleet at Children’s National up to three. The first robot was debuted in 2019 to serve children and families in the Cardiac Intensive Care Unit.

Multidisciplinary team develops innovative PPE that fits clinical needs during COVID-19

March 29, 2021

Children’s National engineers and clinicians developed plexiglass shields for testing sites, comfortable face shields for clinical providers, affordable oversized breath shields for ophthalmology and 3D printed flip-up attachments to the safety goggles for nurses.

The Children’s National Hospital innovation working group shares a retrospective on their local experience in mobilizing resources to offer relief following the personal protective equipment (PPE) shortages at the beginning of COVID-19. Engineers and clinicians developed plexiglass shields for testing sites, comfortable face shields for clinical providers, affordable oversized breath shields for ophthalmology and 3D printed flip-up attachments to the safety goggles for nurses.

The study, published in the Surgical Innovation Journal, narrates a series of events that occurred at the beginning of the pandemic, where the increased demand for personal protective equipment (PPE) usage in healthcare personnel skyrocketed and led to a severe national shortage. Still, the multidisciplinary approach at Children’s National facilitated the response and preparedness to the emerging situation back in March of 2020, serving as a framework for the current and future challenges.

To meet the needs of one of the busiest pediatric emergency departments in the country, the researchers aimed to develop a plexiglass shield that was reliable, reusable and practical while staying pediatric-friendly. The prototype had advantages and disadvantages while administering a COVID-19 swab test in a tent.

The 2020 FDA Emergency Authorization Use (EUA) issued in April provided manufacturing guidelines to produce face shields. Given the federal support, innovators at Children’s National, in partnership with GCMI, designed a rigid and foam prototype. Both prototypes were measured by comfort, visibility, breathability, ability to perform the job, durability, stability, fit and easy assembly. The rigid prototype performed the highest in all metrics and it had few adjustments after various tests.

“While the FDA has become nimbler as evidenced by rapid issuance of EUA of the vaccines, regulatory concerns are still paramount,” Operfmann et al. write. “Having staff experienced with regulatory processes is important to introduce new regulated devices.”

In May 2020, there was also a production lag on the available oversized breath shields for ophthalmology slits, which cost between $35 and $40. To lift the burden, the researchers designed and produced in-house a cost-effective oversized breath shield for less than $9. They used a 40 W laser machine to cut through the thick clear cast acrylic while following the compatible measurements of commercial lamps. The team also distributed the breath shields to other Children’s National regional clinics.

Within the nursing staff, the main factor associated with abiding to PPE compliance is the usage of safety goggles before entering a room. But in time-sensitive situations like patients with severe COVID-19 symptoms, the equipment can be easily forgotten. To support busy shifts, researchers designed a 3D printable attachment valued at $5 for safety goggles, which are more comfortable to keep on, even during downtime. The efficacy of the flip-up attachment is yet to be determined in an upcoming trial.

“Hospitals have already begun augmenting their disaster preparation plans and ensuring they have adequate stockpiles of equipment for future events,” Opfermann et al. write.

Children’s National authors on the study include: Justin Opfermann, M.S., Anuradha Dayal, M.D., Alyssa Abo, M.D., M.B.A., Tyler Salvador, B.S., Kolaleh Eskandanian, Ph.D., M.B.A., P.M.P., Raven McLeese, R.N., and Kevin R. Cleary, Ph.D.

Medical device pitch competition focuses on pediatric electrophysiology devices for CHD

March 25, 2021

While the last decade brought great advances in technologies that improve the care of adult arrhythmias, pediatric patients have been left behind, with only five devices approved for use in children in the same period.

Congenital heart disease (CHD) affects six out of 1,000 babies born in the U.S. each year and is often complicated by arrhythmias, a condition where the heart beats too rapidly, too slowly or irregularly due to a misfiring of the body’s electrical impulses. While the last decade brought great advances in technologies that improve the care of adult arrhythmias, pediatric patients have been left behind, with only five devices approved for use in children in the same period. As a result, pediatric specialists are often using off-label or improvised devices to treat pediatric arrhythmias, including the smallest newborns.

Recognizing this unmet need, the National Capital Consortium for Pediatric Device Innovation (NCC-PDI), in collaboration with MedTech Innovator, is accepting applications through April 12, 2021, for its annual “Make Your Medical Device Pitch for Kids!” competition. This year’s competition focuses on innovations in pediatric devices that treat CHD, with an emphasis on electrophysiology devices such as pacemaker systems, ablation catheters, wearable monitoring devices and related technologies that address arrhythmias in children.

“NCC-PDI was created, with the support of the Food and Drug Administration (FDA), to seek out and address significant unmet needs in pediatric medical devices,” says Kolaleh Eskandanian, Ph.D., M.B.A., P.M.P., vice president and chief innovation officer at Children’s National Hospital and principal investigator of NCC-PDI. “We have learned from the experts that pediatric-specific technologies for treating arrhythmias would be a game changer in the care of their patients, so we are focusing our competition and grant awards on this opportunity.”

“We have learned from the experts that pediatric-specific technologies for treating arrhythmias would be a game changer in the care of their patients, so we are focusing our competition and grant awards on this opportunity,” says Kolaleh Eskandanian, Ph.D., M.B.A., P.M.P., vice president and chief innovation officer at Children’s National Hospital and principal investigator of NCC-PDI.

Using a virtual format, semi-finalists chosen from all submissions will make their first pitch on May 12, 2021. Up to 10 finalists selected from this event earn participation in a special pediatric-focused track of the MedTech Innovator accelerator program, the largest medtech accelerator in the world, beginning in June 2021. These innovators then participate in the pediatric competition finals in September 2021 where judges will award up to $150,000 in FDA-sponsored grants to the devices selected as most impactful and commercially viable.

How significant is the need for pediatric devices to address arrhythmias? In a recent survey of members conducted by the Pediatric and Congenital Electrophysiology Society (PACES), the vast majority (96%) said they believe there is a deficiency in devices available to serve the needs of pediatric patients. Conducted with the U.S.FDA, the survey also asked respondents to identify the biggest unmet need, which physicians identified as cardiovascular implantable electronic devices that are smaller, have better battery life and have pediatric-specific algorithms. Specifically, a leadless pacemaker designed for pediatric care was consistently on the most-wanted list.

NCC-PDI is one of five members in the FDA’s Pediatric Device Consortia Grant Program created to support the development and commercialization of medical devices for children, which lags significantly behind the advancement of adult medical devices. NCC-PDI is led by the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National Hospital and the A. James Clark School of Engineering at the University of Maryland with support from partners MedTech Innovator, BioHealth Innovation and design firm Archimedic.

Eskandanian says that enhancing access to resources for pediatric innovators is also one of the aims of the Children’s National Research & Innovation Campus, a first-of-its-kind focused on pediatric health care innovation, with the first phase currently open on the former Walter Reed Army Medical Center campus in Washington, D.C. With its proximity to federal research institutions and agencies, universities, academic research centers, as well as on-site incubator Johnson and Johnson Innovation – JLABS, the campus provides a rich ecosystem of public and private partners which, like the NCC-PDI network, will help bolster pediatric innovation and commercialization.

Research partnerships and capacity building in the time of COVID-19

November 24, 2020

global connectedness concept illustration

“COVID infection anywhere in the world is COVID infection everywhere in the world,” said John Nkengasong, M.Sc., Ph.D., director of the Africa Centers for Disease Control (Africa CDC), during his remarks on the importance of shared science, innovation and diplomacy. Leading experts in global health met virtually on November 13, 2020, to discuss updates in the COVID-19 crisis and lessons learned in Africa. Children’s National Hospital, along with the George Washington University (GW) Institute for Africa Studies and the CNRS-EpiDaPo Lab, sponsored the half-day conference that captured the interest of international attendees committed to examining how best to expand strong and enduring partnerships between U.S. and African scientists, health professionals and research institutes to meet global challenges.

Trust, transparency and communication were common themes of expert panelists that included Elizabeth Bukusi, Ph.D., M.P.H., Kenya Medical Research Institute; Maryam DeLoffre, Ph.D., GW Humanitarian Action Initiative; Peter Kilmarx, M.D., National Institutes of Health (NIH) Fogarty International Center; Enock Motavu, Ph.D., Makerere University in Uganda; Jennifer Troyer, Ph.D., Human Health and Heredity in Africa Program (H3Africa) at NIH; Désiré Tshala-Katumbay, M.D., Ph.D., National Institute of Biomedical Research in Kinshasa; Eric Vilain, M.D., Ph.D., Center for Genetic Medicine Research at Children’s National, with Institute for African Studies Director Jennifer Cooke, and Jonathan LoTempio Jr and D’Andre Spencer of Children’s National as moderators and co-conveners. Read more about the panelists.

The keynote speaker, Nkengasong, updated the group on the massive efforts in bending the COVID-19 disease curve on the African continent which at present has two million cases and 46,000 deaths. This is fewer than many other regions, and Nkengasong attributes this in part to health systems strengthening and capacity building that already occurred with past pandemics like Ebola. He stressed the importance of focusing on the “4 Ps” — population, pathogen, politics and policy — in fighting the pandemic, and the need to ensure that citizens trust their leaders and the public health measures they advance. New endeavors by the Africa CDC include the Pathogen Genomic Initiative, which will help inform research and responses to COVID-19 and other emergent disease threats, and the African COVID-19 Vaccine Development and Access Strategy, which aims to ensure widespread access, delivery and uptake of effective vaccines across Africa. Africa CDC is surging to hotspots as lockdowns ease or shift, and is empowering universities to invest in proactive and, which has helped with the active response success. “Rising tides raise all boats in the sea,” said Nkengasong. He went on to say that there is great power in coordination and cooperation, and science diplomacy and technology are critical to winning the novel coronavirus war.

In a panel on research partnerships, speakers Motavu, Tshala-Katumbay, and Vilain emphasized the global benefits of scientific collaborations in Africa. Africa contains more human genetic variation than any other region of the world, and capturing that diversity in global understanding of the human genome — which is still heavily skewed toward individuals of European ancestry — will be a major factor in global medical advances of the future. And research into relatively localized diseases can lead to breakthroughs in broader understanding on connections between climate variation, environment, nutrition and child health. “The simplistic, localized, nationalist, way of doing science is over,” said Tshala-Katumbay, “and there is no way to go back.” The discipline of science diplomacy will take time for people to grasp, he added, “but it will be crucial for the future generation of scientists to go back.”

A recurring conference theme was that collaboration between countries is crucial for development of better care. Kilmarx told the event participants that in 2019, the National Institutes of Health supported some 1,668 collaborations with African research institutions. Investments in capacity building have yielded impressive results, and today some of Africa’s foremost leaders in science research and public health have received NIH training and support, stating: “If you plant acorns over the decades, you have some mighty oaks.” Bukusi, once such NIH trainee, now is engaged in training a new generation of African researchers and U.S. researchers based in Africa and expanding research partnerships at the Kenya Medical Research Institute.

Troyer showed the successes of the Human Heredity and Health in Africa Initiative, a large consortium that supports a pan-continental network of laboratories that aims to determine disease susceptibility and drug responses. Finally, DeLoffre underscored the need for long-term investments and the value of building local capacities to respond to current crises and anticipate future challenges.

Overall, there was optimism that innovative coalitions are a long-term strength in fighting pandemics and promoting reciprocal learning that will last after the crisis. Science can be a neutral platform that, combined with diplomacy and technology, builds bridges between peoples.

Real-world evidence and the impact on pediatric device innovation

October 16, 2020

The 8th Annual Pediatric Device Innovation Symposium presented by @ChildrensNatl in conjunction with @Devices4kids took place Sept. 28-30.

The 8^th Annual Pediatric Device Innovation Symposium presented by Children’s National Hospital in conjunction with the National Capital Consortium for Pediatric Medical Devices (NCC-PDI) kicked off on Monday, Sept. 28, 2020 with a panel featuring three fellow members of the FDA-funded Pediatric Device Consortia (PDC) Grants Program discussing real-world evidence and the vital role that innovation and technology play in advancing healthcare for the pediatric population.

As described by the FDA, real-world evidence (RWE) is the clinical evidence regarding the usage and potential benefits or risks of a medical product, derived from the analysis of patient data. RWE can be generated by different study designs or analyses, including but not limited to, randomized trials, including large simple trials, pragmatic trials and observational studies (prospective and/or retrospective).

The symposium panel, “Pediatric Device Consortia Update on the Use of Real-World Evidence (RWE) for Pediatric Device Innovation” examined real-world evidence (RWE) demonstration projects from Southwest Pediatric Device Consortium, UCSF-Stanford Pediatric Device Consortium and the West Coast Consortium for Technology and Innovation in Pediatrics (CTIP). The panel was moderated by Juan Espinoza, M.D., FAAP, director of CTIP.

“Real-world evidence projects are critical to the advancement of pediatric medical device innovation,” said Kolaleh Eskandanian, Ph.D., M.B.A., P.M.P., vice president and chief innovation officer at Children’s National Hospital, and principal investigator for NCC-PDI. “Bringing together our colleagues in pediatric healthcare through the symposium helps us together identify solutions that will bring medical device innovations to the market faster to benefit the children and families we all serve.”

Here are some of the key discussion points made by panelists regarding current RWE demonstration projects:

Emerging medical and consumer technologies are enabling the diabetes community to take great strides toward truly personalized, real-time, data-driven management.
“Connected” technologies such as smartphone apps, wearable devices and sensors create an ecosystem of data driven-tools that can link patients and care teams for precision management of conditions like diabetes, including predicting a hypoglycemic event.
RWE has an important future in treating rare diseases by using existing data and harnessing that to improve treatment among pediatric patients.
Through the rich data in academic healthcare systems, practitioners are better equipped to provide RWE to address important regulatory and research questions.
The creation of a pediatric device patient database, which provides real-time updates to clinical, device and patient-generated health data, offers several regulatory, safety and research advantages in advancing device innovation.

Kolaleh Eskandanian, PhD, MBA, PMP, vice president and chief innovation officer at Children’s National Hospital, and principal investigator for NCC-PDI.

The FDA currently supports RWE demonstration projects that are focused on understanding data quality, improving RWE tools and evaluating RWE approaches to study design and data analytics. Dr. Espinoza highlighted the importance of ongoing dialogue on the use of RWE as it pertains to innovations that advance pediatric healthcare across the board.

“Thank you to the NCC-PDI team for creating this opportunity for PDCs to talk about the impact of real-world evidence on pediatric medical device development and the projects we have to move that field forward,” said Dr. Espinoza, director of CTIP and principal investigator on the PDC’s RWE Demonstration Project. “These projects are intended to inform the FDA and the industry’s approach to RWE including study design, data standards, fitness for use and regulatory decision making and reproducibility. This is complicated work that involves research, IT infrastructure, clinical care and operations.”

NCC-PDI, which is led by the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National Hospital and the A. James Clark School of Engineering at the University of Maryland, is one of five members of the FDA’s Pediatric Device Consortia Grant Program. To date, NCC-PDI has mentored over 100 medical device sponsors to help advance their pediatric innovations, with seven devices having received either their FDA market clearance or CE marking.

Medical device competition announces six winners to share in $250K

October 2, 2020

Judges award grants for pediatric medical devices that address cardiovascular, NICU, and orthopaedic and spine device innovations.

“COVID-19-edition” of pediatric medical device competition announces winners

July 23, 2020

“COVID-19-edition” of pediatric medical device competition announces finalists

July 15, 2020

Sixteen finalists have been selected in the “Make Your Medical Device Pitch for Kids!” special COVID-19 edition competition presented by the National Capital Consortium for Pediatric Device Innovation (NCC-PDI). Representing innovations in COVID-19-related pediatric medical devices, the finalists will compete in a virtual pitch event held on July 20,2020 where up to $250,000 in awards will be given. Winners will receive grant funding of up to $50,000.

The competition is led by NCC-PDI co-founders the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National Hospital and the A. James Clark School of Engineering at the University of Maryland and powered by nonprofit accelerator and NCC-PDI member, MedTech Innovator.

This competition focuses on pediatric medical devices that support home health monitoring and telehealth, and improve sustainability, resiliency and readiness in diagnosing and treating children during a pandemic.

“As COVID -19 continues to threaten the health of families and children across the nation, we must continue to seek new and better ways to deliver quality care during a pandemic and offer technology solutions to reopen more safely,” says Kolaleh Eskandanian, Ph.D., MBA, PMP, vice president and chief innovation officer at Children’s National Hospital and principal investigator of NCC-PDI. “Competitions like this are vital to get ahead of the healthcare challenge that COVID-19 presents in the world of pediatrics. By supporting innovation, we provide critical breakthroughs that can positively impact the lives of the children and families we serve.”

Along with grant funding, one company from the competition will be selected by Johnson & Johnson Innovation – JLABS to receive a one-year residency at JLABS @ Washington, DC, which will be located on the new Children’s National Research & Innovation Campus currently under construction. In addition to the 2021 JLABS residency, the awardee will have access to the JLABS community and expert mentoring by the Johnson & Johnson family of companies.

The 16 pediatric device innovations that judges selected for the final competition include:

Adipomics – simple and fast, one-step COVID-19 diagnostic kit for home or school use
Bloom Standard (Kaaria) – wearable, AI-driven ultrasound for infant cardiac and pulmonary screening and diagnostics
CereVu Medical – remote COVID-19 sensor, monitor and centralized data hub that measures blood oxygen saturation, muscle aches, temperature and trouble breathing
Children’s Hospital of Philadelphia – a transparent reusable DIY origami facemask that reveals facial expressions & improves communication
Children’s National Hospital – Lab-on-a-chip device for high-throughput combination drug screening
Hopscotch – gamified cognitive behavioral therapy-based computer exercises to encourage kids to stay engaged and complete treatment programs
Medichain – cost effective, accurate COVID-19 test with results in minutes and can detect the virus in the early stage
Medipines – monitor device that displays critical respiratory parameters analyzed from a patient’s breathing sample
OtoPhoto – a smart otoscope that quickly and accurately aids diagnosis of ear infections for home telehealth use
OxiWear – continuous wear oxygen-monitoring device used to reduce patient insecurity
REALTROMINS – real time, continuously updated predictive analytics to identify impending mortality in children
SurgiPals – digital assistant and urine biochemical sensor to aid in outpatient care of children with COVID-19
TGV-Dx – a novel, phenotype-based test system for rapid selection of effective antibiotic regimen
VitaScope – quick, accurate infant vital signs to facilitate high-quality virtual care
Vitls – wearable platform for remote patient monitoring of the vitals clinicians require to assess a patient
X-Biomedical – rugged, portable smart ICU ventilator for pediatric and adult patients

Funding for the competition is made possible by a grant from the Food and Drug Administration (FDA) and a philanthropic gift from Mei Xu, founder of e-commerce platform Yes She May, a site dedicated to women-owned brands.

In addition to this COVID-19 special edition event, NCC-PDI recently revealed the ten finalists in its prestigious 8th annual “Make Your Medical Device Pitch for Kids!” competition. Cardiovascular, NICU, and orthopaedic and spine device innovations are the focus of the fall competition, taking place October 7, 2020 as part of the 8th Annual Symposium on Pediatric Device Innovation, presented by Children’s National and co-located with The MedTech Conference powered by AdvaMed.

pitch competition finalists

Telehealth and AI reduce cardiac arrest in the cardiac ICU

July 14, 2020

The telehealth command center located a few steps away from the cardiac ICU at Children’s National Hospital.

The cardiac critical care team at Children’s National Hospital has developed an innovative Tele-Cardiac Critical Care model aiming to keep constant watch over the most fragile children with critical heart disease in the cardiac ICU. The system combines traditional remote monitoring and video surveillance with an artificial intelligence algorithm trained to flag early warning signs that a critically ill infant may suffer a serious event like cardiac arrest while recovering from complex cardiac surgery. This second set of eyes helps bedside teams improve patient safety and quality of care.

These high risk post-operative patients are often neonates or small infants born with the most complex and critical congenital heart diseases that require surgery or interventional cardiac catheterization in their first days or weeks of life. At these early stages after crucial cardiac surgery, these patients can decompensate dangerously fast with few outward physical symptoms.

The AI algorithm (T3) monitors miniscule changes in oxygen delivery and identifies any mismatch with a child’s oxygen needs. It also tracks and displays small changes in vital sign trends that could lead to a serious complication. The cardiac ICU command center staff then analyzes additional patient data and alerts the bedside team whenever needed.

The Tele-Cardiac Critical Care program started two years ago. In that time, the program has contributed to a significant decrease in post-operative cardiac arrest for this patient population.

“It’s easy to see how a model like this could be adapted to other critical care scenarios, including our other intensive care units and even to adult units,” says Ricardo Munoz, M.D., chief of Cardiac Critical Care and executive director of Telehealth. It allows the physicians and nurses to keep constant watch over these fragile patients without requiring a physician to monitor every heartbeat in person for every patient at every hour of the day to maintain optimal outcomes for all of them.”

Dr. Munoz and Alejandro Lopez-Magallon, M.D., medical director of Telehealth and cardiac critical care specialist, presented data from the pilot program at the American Telemedicine Association’s virtual Annual Meeting on June 26, 2020.

Neuropsychology pilots robotic telepresence technology for telehealth

May 4, 2020

Karin S. Walsh, Psy.D., and Gerard Gioia, Ph.D., in the Division of Neuropsychology pilot robotic telepresence technology to improve video visits.

The telehealth program at Children’s National Hospital continues to expand access to remote specialty care for families, as well as increase consultation and liaison services to hospitals and clinicians who lack specialty care services on site. The Children’s National Division of Neuropsychology has been a leader in adopting multiple telehealth services including direct-to-consumer video visits, psychotherapy video visits, provider consultations and provider training and supervision.

Telehealth as a whole has been shown to increase access to care, with video visits in particular showing greater clinical and educational impact compared to telephone communications. Despite this, one key limitation has been the immobility of technology used to capture video visits.

To solve for immobility, Karin S. Walsh, Psy.D., is leading a pilot study testing the feasibility and acceptability of telepresence robotics in the division. Robot telepresence devices provide a unique approach to video visits, allowing for extended physical mobility and presence, while expanding interactions between providers and patients, supervisors and trainees and in educational interactions. Traditional video visits demonstrate good feasibility and acceptability by patients, families and staff. This new approach aims to increase the “presence” of the provider and further improve clinical impact, educational impact and patient satisfaction.

The division will initially incorporate two robots into clinical care beginning in May 2020. The pilot study is expected to be carried out over the next 12-18 months, which is particularly timely given the COVID-19 pandemic. The robots, from Double Robotics, offer a high-tech, secure, integrated platform in a device that is user friendly and effective for moving freely through the clinical environment.

“With the addition of the telepresence robots, we anticipate an increase in the quality of care and access for patients and families to neuropsychological specialty care,” says Dr. Walsh. “In addition, given the geographic separation of the program – faculty and trainees are spread across six different locations – the versatile technology will increase the division’s ability to include clinicians with particular expertise into clinical sessions and consultations, as well as in training programs.”

After the pilot study, the team will assess the acceptability of robotic telepresence technology and the special qualities that this modality may offer to enhance quality of care within neuropsychology and within collaborating medical teams.

Pediatric medical device pitch competition deadline extended

February 12, 2020

Pediatric innovators pitch for up to $250,000 in FDA-funded grant awards.

The National Capital Consortium for Pediatric Device Innovation (NCC-PDI) announced today that the application deadline for its annual “Make Your Medical Device Pitch for Kids!” competition is extended one week to Feb. 22 at midnight EST. Innovators and startup companies with devices in the pediatric cardiovascular, orthopedic and spine, or NICU sectors are invited to apply for a share of up to $250,000 in FDA-funded awards and access to a newly created NCC-PDI pediatric device accelerator program led by MedTech Innovator. Submissions are being accepted now.

Up to 30 companies will be selected for the first round of competition scheduled for March 23, 2020 at the University of Maryland, College Park. Up to 10 finalists chosen from that event will compete for up to $250,000 in grant awards in Toronto, Canada on October 4. Finalists also receive a spot in the MedTech Innovator 2020 Accelerator – Pediatric Track, which provides a customized curriculum and in-depth mentorship. Finalists will be announced in May, 2020.

This is the ninth competition in seven years hosted by NCC-PDI, one of five FDA Pediatric Device Consortia Grant Program members supporting the development and commercialization of pediatric medical devices. NCC-PDI is led by the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National Hospital and the A. James Clark School of Engineering at the University of Maryland. Additional consortium members include accelerators Medtech Innovator, BioHealth Innovation and design firm partner Archimedic.

“This year’s competition focuses on three medical device areas of critical need for pediatric patients, so we want to give innovators as much time as possible to prepare their submissions,” said Kolaleh Eskandanian, Ph.D., MBA, PMP, vice president and chief innovation officer at Children’s National Hospital and principal investigator of NCC-PDI . “Our goal is to support devices that will improve care for children by helping them advance on the pathway to commercialization. We have seen how this competition can provide significant momentum for pediatric innovations, so we want to encourage as much participation as possible.”

To date, NCC-PDI has mentored over 100 medical device sponsors to help advance their pediatric innovations, notes Eskandanian, with six devices having received either their FDA market clearance or CE marking. Along with the positive exposure of presenting at this competition, she notes that the success of NCC-PDI’s portfolio companies is attributed to funding, mentorship, support from partners and facilitated interactions between device innovators and potential investors.

Eskandanian notes that enhancing access to resources for pediatric innovators is one aim of the Children’s National Research & Innovation Campus, a first-of-its-kind campus focused on pediatric healthcare innovation, currently under development on the former Walter Reed Army Medical Center campus in Washington, D.C. With its proximity to federal research institutions and agencies, universities, academic research centers, as well as on site accelerator Johnson & Johnson Innovation – JLABS, the campus will create a rich ecosystem of public and private partners which, like the NCC-PDI network, will help bolster pediatric innovation and commercialization. Opening is scheduled for December 2020.

Tailoring treatments to young patients

February 3, 2020

The Children’s National Research & Innovation campus will be a a one-of-a-kind pediatric research and innovation hub.

Children’s National Hospital president and CEO, Kurt Newman, M.D., recently spoke with Modern Healthcare about the soon-to-open Children’s National Research & Innovation Campus and how it will help address the lagging development of devices, medications and technologies specifically designed to help children.

You can read the full article here.

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