Tag Archive for: Cleary

Matthew Oetgen, MD, and the hip pinning robot

Transforming pediatric hip surgery with robotics and 3D imaging

Matthew Oetgen, MD, and the hip pinning robot

“This project is exciting as it targets more precise surgery with improved safety in terms of decreased radiation,” says Matthew Oetgen, MD, division chief of Orthopaedic Surgery and Sports Medicine at Children’s National.

What if surgeons could fix a child’s hip with pinpoint accuracy – using fewer X-rays and cutting-edge robotics? That’s the promise of a new National Institutes of Health funded project combining 3D imaging and robotic technology to improve the treatment of slipped capital femoral epiphysis (SCFE), a condition that affects the hip joint in growing children.

What’s been the hold-up in the field?

Right now, orthopedic surgeons place screws by hand using 2D X-ray images to guide them. To see the screw from different angles, they have to move the X-ray machine around. “The screw must be placed near the center of the femoral head, but not penetrate it,” says Kevin Cleary, PhD, associate director of engineering at the Sheikh Zayed Institute for Pediatric Surgical Innovation (SZI). This process takes time and can increase the amount of radiation the patient receives.

Even though better tools like 3D imaging and surgical robots exist, they aren’t used together in current surgical practice. “Individual procedures have nuances that require their own validated workflows,” says Tyler Salvador, a research engineer at Children’s National Hospital. In other words, each type of surgery is different, and doctors need proven steps before using new technology in the operating room.

How does this work move the field forward?

This project brings together low-dose 3D X-rays from nView with a small surgical robot called Micromate™ to help place screws more precisely during SCFE surgeries. “Our research group has been developing robotics, imaging, and related technologies to improve surgical procedures,” says Dr. Cleary. While these tools exist separately, putting them together in one system focused on bone surgery is new. Tyler Salvador adds, “This will provide a complete solution for precision SCFE implant placement and verification.”

“This project is exciting as it targets more precise surgery with improved safety in terms of decreased radiation,” says Matthew Oetgen, MD, division chief of Orthopaedic Surgery and Sports Medicine at Children’s National. “This is a paradigm-shifting effort that will improve outcomes while improving safety which is the holy grail of translational clinical research. It embodies the goal of the SZI — combining technical expertise with surgical leadership to improve outcomes in pediatric surgery.”

Children’s National leads the way

Children’s National is unique because the Sheikh Zayed Institute combines research and clinical care in one place. “Having the labs right inside the hospital helps us work closely with doctors,” says Salvador.

Together, this work is paving the way for safer, faster and more precise surgeries for children with hip problems. By combining advanced imaging and robotics, the team at Children’s National is helping shape the future of pediatric orthopedic care. In addition to this robotic hip pinning project, the Children’s National team is also behind two additional groundbreaking projects including robotic gallbladder removal and a kidney surgery initiative.

This project has been funded in whole with federal funds from the National Institutes of Health under Contract No. R01EB035559.

robotic surgery apparatus

Charging ahead: Researchers develop robotic renal tumor surgery

robotic surgery apparatus

Researchers at Children’s National Hospital are developing supervised autonomous robotic surgery to make expert kidney tumor removal accessible in rural areas, combining robotics, AI and surgeon oversight for safer, more precise outcomes.

Imagine a robot capable of planning and executing the intricate removal of a cancerous kidney tumor — a concept that might sound like science fiction. Yet this groundbreaking work is underway at the Sheikh Zayed Institute (SZI) for Pediatric Surgical Innovation at Children’s National Hospital.

Called Supervised Autonomous Robotic Renal Tumor Surgery (SARRTS), the project aims to prove that a supervised autonomous kidney resection is feasible. Its goal is to enable general surgeons in rural hospitals to oversee robots performing complex resections, democratizing access to specialized surgical care. Backed by a $1 million contract from the Advanced Research Projects Agency for Health (ARPA-H), the initiative represents new opportunities in medical innovation.

“The hope is that, someday, patients will no longer have to travel to major oncology centers to get the best possible surgical outcome when faced with renal tumors,” said Kevin Cleary, PhD, associate director of engineering at SZI. “We hope to combine the precision of robotics with a surgeon’s clinical expertise to create consistently high outcomes.”

The patient benefit

Surgery is a cornerstone of cancer treatment, but access to skilled surgeons remains unevenly distributed nationwide. Autonomous robotic surgery could address this disparity by increasing access to expert-level care, enhancing the precision and consistency of procedures and unlocking new surgical possibilities beyond human surgeons’ capabilities.

Under the initial concept, the SARRTS system will use a combination of CT imaging and 3D mapping from a robot’s RGB-depth camera. While the robot independently plans and executes the incision and tumor resection, the supervising surgeon retains full control, with the ability to approve, modify or halt the procedure at any time — an interplay between human expertise and robotic precision to help ensure safety.

Testing will be conducted on realistic kidney models, called phantoms, which are designed to train and test surgical outcomes. The project aims to validate the feasibility of supervised autonomous tumor resection while advancing technologies that could pave the way for broader applications.

“Robotics and medicine have finally reached a point where we can consider projects requiring this level of complexity,” said Anthony Sandler, MD, senior vice president and surgeon-in-chief at Children’s National and executive director of SZI. By combining autonomous robotics, artificial intelligence and surgical expertise, we can profoundly impact the lives of patients facing life-altering cancer diagnoses.”

Children’s National leads the way

In addition to the kidney surgery initiative, the Children’s National team is pursuing other groundbreaking projects. These include a second ARPA-H contract focused on robotic gallbladder removal and a National Institutes of Health grant to explore robotic hip-pinning, a procedure used to repair fractured hips with pins, screws and plates.

Axel Krieger, PhD, an associate professor of mechanical engineering at Johns Hopkins University, is collaborating closely on the kidney resection and gallbladder projects. The interdisciplinary team believes this state-of-the-art care could be tested and developed within the next decade.

“This particular surgery is complex, and a robot may offer advantages to address difficulties created by patient anatomy and visibility within the surgical field,” said Dr. Sandler. “We can imagine a day – in the not too distant future – when a human and a robotic arm could team up to successfully advance this care.”

This project has been funded in whole with federal funds from ARPA-H under cooperative agreement AY1AX000023.

Kevin Cleary, Ph.D.

Kevin Cleary, Ph.D., named as Sheikh Zayed Professor of Bioengineering

Kevin Cleary, Ph.D.

Dr. Cleary joins a distinguished group of Children’s National physicians and scientists who hold an endowed chair.

Children’s National Hospital named Kevin Cleary, Ph.D., as the Sheikh Zayed Professor of Bioengineering through philanthropic support from the people of the United Arab Emirates (UAE).

Dr. Cleary serves as Technical Director of the Bioengineering Initiative within the hospital’s Sheikh Zayed Institute for Pediatric Surgical Innovation. He also is professor of Pediatrics and Radiology at The George Washington University School of Medicine and Health Sciences.

About the award

Dr. Cleary joins a distinguished group of Children’s National physicians and scientists who hold an endowed chair. Children’s National is grateful to generous donors who altogether have funded 48 professorships.

Professorships support groundbreaking work on behalf of children and their families. They foster new discoveries and innovations in pediatric medicine. These appointments reflect the recipient’s achievements and the donor’s commitment to advancing knowledge.

Under Dr. Cleary’s leadership, the Bioengineering Initiative fosters innovation via collaboration across the hospital. It fuels the development of minimally-invasive robotics that improve outcomes for children. For example, Dr. Cleary’s team is collaborating with the Division of Physical Medicine & Rehabilitation to develop PedBotHome. This video game-based robotic ankle device helps children with neurological impairments such as cerebral palsy do rehabilitation exercises at home.

“I am deeply honored by this endowed professorship,” says Dr. Cleary. “It will enable me to continue to fulfill our mission of providing more precise and less invasive solutions to improve children’s health. The Sheikh Zayed Institute will continue to be a hub for technology development and innovation.”

The people of the UAE created the professorship endowment through philanthropy. The UAE’s vision and generosity will ensure that Dr. Cleary and future holders of this professorship will have the opportunity to make strategic and timely investments. This will advance the field of bioengineering and improve children’s lives.

About the donors

Children’s National takes pride in four decades of medical collaboration with the UAE. This relationship inspired a philanthropic partnership yielding more than $215 million to advance children’s health worldwide. The UAE’s generosity reflects the longstanding commitment of His Highness Sheikh Mohamed bin Zayed Al Nahyan, president of the UAE and ruler of Abu Dhabi.

About the Sheikh Zayed Institute for Pediatric Surgical Innovation

In 2009, the UAE generously funded the creation of the Sheikh Zayed Institute for Pediatric Surgical Innovation at Children’s National. The government of Abu Dhabi made the gift in honor of His Highness Sheikh Zayed bin Sultan Al Nayhan. Sheikh Zayed founded the UAE and served as the country’s president from 1971 until his death in 2004.

The Institute seeks to make pediatric surgery more precise, less invasive and pain free. It drives progress for children by translating breakthrough discoveries into new treatments and medical inventions. These include support for a technology that seeks to objectively measure pain through a handheld device and the first  use of high-intensity focused ultrasound (HIFU) to treat childhood nerve tissue tumors.

The Sheikh Zayed Professorship in Bioengineering is a continuation of the UAE’s investment within the Sheikh Zayed Institute.

Innovations for health equity: Food pharmacy app wins Hackathon

When families come into the endocrinology clinic, 66% of prediabetes and Type 2 diabetes patients screen positive for food insecurity. One remedy: a smartphone app envisioned by Children’s National Hospital researchers to communicate with families between visits and provide resources to help stock pantries with nutritious foods.

The Children’s National Food Pharmacy app is on its way from idea to reality, thanks to the inaugural Health Equity in Research Hackathon event at the Children’s National Research & Innovation Campus. This team-based, “Shark Tank”-like competition involved roughly 50 experts designing creative healthcare solutions that could be delivered through ubiquitous smartphones.

“It takes a village to raise a child, and we want to show that at Children’s National we are part of that community,” said food pharmacy founder and diabetes educator Alexis Richardson, M.S., R.D., L.D.N., C.D.C.E.S.

Why it matters

The rate of new-onset Type 2 diabetes increased by a staggering 182% during the first nine months of the COVID-19 pandemic. Now, the Children’s National food pharmacy provides families that screen positive for food insecurity during quarterly clinic appointments with a 50-pound bag of medically-tailored groceries.

The new app, as envisioned, would follow them home to connect them with food bank information and other nutritional resources, eliminating paper forms and other hurdles that get in the way of care.

What’s ahead

Children’s National leaders are committed to making the proposal a reality. “We are going to support today’s winner through the next steps to prepare them to enter the app development pipeline at the Sheikh Zayed Institute,” said Lisa Guay-Woodford, M.D., director for the Clinical and Translational Science Institute at Children’s National (CTSI-CN) and one of the main judges of the competition.

The app development will happen in the months ahead. Kevin Cleary, Ph.D., technical director of the Sheikh Zayed Institute of Pediatric Surgical Innovation, said the Hackathon planted the seeds. “It really depends on the drive of the individual to see the idea to fruition,” Cleary told competitors.

Other app entries were encouraged to continue their work:

  • The Surgical Checklist, led by Brian K. Reilly, M.D., co-director of the Cochlear Implant Program: this app would help patients and providers successfully navigate the often-confusing pre-operative checklist, including required physical exams, lab work, imaging and pre-procedure fasting. Reilly said the hospital handles about 15,000 cases a year, and about 10% are rescheduled, often for reasons that could be avoided with digital organization and reminders for families.
  • More than Determined, led by Pediatrician Jessica Lazerov, M.D., M.B.A.: this app aims to give time-strapped providers a platform to better understand and address social determinants of health – such as access to safe housing, education and jobs – that can promote better preventative care outcomes.

The Health Equity in Research Hackathon was created by the new Health Equity in Research Unit, a joint initiative between the CTSI-CN and the Center for Translational Research within the Children’s National Research Institute.

Dr. Lisa Guay-Woodford and the winners of the Health Equity in Research Hackathon

Dr. Lisa Guay-Woodford, director for the Clinical and Translational Science Institute, joins the winners of the inaugural Health Equity in Research Hackathon: the Children’s National Food Pharmacy. The team’s proposed app will connect families facing food insecurity with resources and guidance for nutritious eating.

using a laser to cut PPE face shields for staff during covid-19

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

using a laser to cut PPE face shields for staff during covid-19

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.

Pedbot video game

Pedbot’s next step – Home-based therapy

Pedbot video game

Pedbot’s home version adapts the same airplane-themed video game to a smaller therapeutic platform that is more affordable to build.

The novel ankle rehabilitation robot built at Children’s National to help children with cerebral palsy build ankle strength and control through video gaming is taking a big step forward. Engineers have created a smaller, more affordable version of the robotic platform using 3D printed parts, to explore the effectiveness of a home-based therapy program.

“We’re seeing preliminary success in our trial for in clinic use of the Pedbot. Now we’re hoping to see if making the technology accessible at home means that 1) Kids use it more often and 2) More frequent, regular use over time leads to better range of motion,” says Kevin Cleary, Ph.D., the Sheikh Zayed Institute for Pediatric Surgical Innovation’s bioengineering technical director and engineering lead for Pedbot.

Pedbot’s video game, designed by software engineer Hadi Fooladi, M.S., allows kids to pilot an airplane through a series of hoops at varying speeds as determined by the therapist and programmer. The game isn’t the only thing that’s unique about this therapeutic robot, however.

Just like the clinic version, the home model moves in three translational directions (x, y and z) and rotates about three axes (the x, y and z axes), similar to the movement of a flight simulator. The result is a robot that helps the patient exercise across a greater range of motion and build muscle strength in a way that more closely mimics real-life ankle function.

Pedbot Home potentially eliminates an additional major therapeutic barrier – the clinic appointment.

“The great thing about Pedbot is you’re constantly working to reach a moving target, and the therapist can vary the movement type as much or as little as needed for each patient,” says Catherine Coley, DPT, a physical therapist at Children’s National who is a member of the Pedbot development team. “We think the home version might make it easier for the child to succeed with a long term therapy program by removing the need for repeat clinic visits.”

“What if a child could come home from school and do their therapy at home after dinner? Would doing it every day for 20 minutes benefit the child more than just coming to see us once or twice a week for an hour? Can we make it easier for our patients to cooperate and follow through with therapy homework? These are some of the questions that we hope we can answer during our trial for the home version,” says Sally Evans, M.D., division chief of Pediatric Rehabilitation Medicine at Children’s National and clinical lead for the project.

The cross-functional Pedbot team includes engineers Reza Monfaredi Ph.D. and Tyler Salvador, B.S., as well as additional physical therapists, Stacey Kovelman, P.T. and Justine Belchner, P.T., and Sara Alyamani, B.A. Future expansions will include the addition of electromyography measurements in collaboration with Paola Pergami, M.D., Ph.D. and incorporation of other patient populations with Beth Wells, M.D.

Pedbot Home is currently being piloted in the home setting, with the goal of enrolling additional families to participate in a trial within the next year. The work is supported by a $500,000 federal grant from the Department of Health and Human Services’ National Institute on Disability, Independent Living, and Rehabilitation Research.

2nd-annual-hackathon

Genetic testing reigns triumphant at health app hackathon

2nd-annual-hackathon

The growing popularity of genetic testing has one large hurdle: There are fewer than 4,000 genetic counselors in the United States, and people who use commercial genetic testing kits may receive confusing or inaccurate information.

To combat this problem, a team of doctors from the Rare Disease Institute at Children’s National Health System created the framework for a smartphone application that would house educational videos and tools that provide reputable information about genetic disorders and genetic testing.

On April 13, 2018, Debra Regier, M.D., Natasha Shur, M.D., and their teammates presented the app “Bear Genes” at the 2nd Annual Medical & Health App Development Workshop, a competition sponsored by the Clinical and Translational Science Institute at Children’s National (CTSI-CN) and the Milken Institute School of Public Health (Milken Institute SPH) at the George Washington University. Bear Genes won first place, and the team received $10,000 to develop a working prototype of the app.

The Bear Genes team was one of 10 who presented their ideas for smartphone apps to a panel of judges at the competition. Ideas covered a variety of topics, including emergency room visits and seizures related to menstrual cycles. Sean Cleary, Ph.D., M.P.H., an associate professor of epidemiology and biostatistics at the Milken Institute SPH, and his teammates proposed an app called “MyCommunicationPal” that would assist autistic individuals in reporting their symptoms to healthcare providers.

Sean Cleary and Kevin Cleary, Ph.D., technical director of the Bioengineering Initiative at Children’s National Health System, created the hackathon to bring together professionals from various fields to create technology-based solutions for public health and medical challenges. Interested participants submit applications and app proposals in the fall, and 10 ideas are selected to be fleshed out at the half-day hackathon. Participants join teams to develop the selected ideas, and on the day of the event, create a five-minute presentation to compete for the top prize. About 90 people attended this year’s hackathon.

“The workshop provides us with the opportunity to collaborate with healthcare providers, public health professionals and community members to develop an appropriate user-friendly app for those in need,” said Sean Cleary. “The event also fosters future collaborations between important stakeholders.”

This article originally appeared in the Milken Institute SPH pressroom.

Pedbot video game

New robotic therapies for cerebral palsy

Little girl on hippobot

The hippobot is a mechanical horseback riding simulator that provides hippotherapy for children.

Cerebral palsy is the most common type of movement disorder in children, affecting 1 in 500 babies born each year. For these infants, learning to sit up, stand and walk can be a big challenge which often requires years of physical therapy to stretch and strengthen their muscles. A team led by Kevin Cleary, Ph.D., technical director of the Bioengineering Initiative at Children’s National Health System, and Sally Evans, M.D., director of Pediatric Rehabilitation Medicine at Children’s National, has created two new types of robotic therapy that they hope will make physical therapy more enjoyable and accessible for children.

Hippobot equine therapy simulator

One of the most effective types of therapy for children with cerebral palsy is hippotherapy, which uses horseback riding to rehabilitate children with neurological and musculoskeletal disabilities. The movement of horses helps riders with cerebral palsy improve endurance, balance and core strength, which in turns helps them gain the ability to sit without support. If a child with cerebral palsy does not master independent sitting early in life, he or she may never gain the ability to stand or walk. Unfortunately, many children never have the chance to experience hippotherapy due to geographical constraints and cost issues.

To increase patient access to hippotherapy, the bioengineering team (Reza Monfaredi, Ph.D.; Hadi Fooladi Talari, M.S.; Pooneh Roshani Tabrizi, Ph.D.; and Tyler Salvador, B.S.) developed the hippobot — a mechanical horseback riding simulator that provides hippotherapy for children ages 4 to 10 in the office setting. To create the hippobot, the researchers mounted a carousel horse on a six-degree of freedom commercial motion platform (the platform moves in the x, y and z directions and rotates about roll, pitch and yaw axes). They then programmed the platform to simulate a horse walking, trotting and cantering.

“Several experienced horse riders have tried the motion platform and commented that it gives a realistic feel,” says Dr. Cleary.

The team then incorporated optical tracking of the hippobot rider’s spine and pelvis to monitor their posture and created a virtual reality video display that simulates a horse moving down a pier. As other animals come towards the horse, the rider must lean right or left to avoid them.  The trackers on their back show which way they are leaning and feed that information into the gaming system.

“We wanted to see how the patient’s spine reacts as the horse moves through different patterns, and if the patients get better at maintaining their posture over several sessions,” says Dr. Cleary.

To date the system has been used with several children with cerebral palsy under an IRB-approved study. All of the participants enjoyed riding the horse and came back for multiple sessions.

The hippobot system was developed in close collaboration with the Physical Medicine and Rehabilitation Division at Children’s National, including Olga Morozova, M.D., Justin Burton, M.D., and Justine Belschner, P.T.

Pedbot ankle rehabilitation system

Pedbot video game

Patients use pedbot as an input device to pilot an airplane through a series of hoops. The level of the difficulty of the game can be easily adjusted based on the patient’s capability and physical condition.

More than half of children with cerebral palsy also have gait impairment as a result of excessive plantar flexion and foot inversion/eversion, or equinovarus/equinovalgus at their ankle and foot. To help these patients, Dr. Cleary’s team developed the pedbot — a small robot platform that enables better strengthening, motor control and range of motion in the ankle joint.

“Children with cerebral palsy have difficulty walking in part because they have trouble controlling their feet,” explains Dr. Evans. “Use of pedbot as part of therapy can help to give them increased control of their feet.”

Most ankle rehabilitation robots are limited in their movements, and have only one or two degrees of freedom, focusing on ankle dorsiflexion/plantarflexion and sometimes inversion/eversion. Pedbot is unique in that it has three degrees of freedom with a remote center of motion in the ankle joint area that allows it to move in ways other devices can’t.

The pedbot platform can move in three translational directions (x, y and z) and also rotate about three axes (the x, y and z axes). As an analogy, this is similar to the movement of a flight simulator. The system also includes motors and encoders at each axis and can be used in passive and active modes.

In both modes, the patient sits on a therapy chair with their foot strapped to the robotic device. In the passive mode, the therapist assists the patient in training motions along each axis. The robot can then repeat the motion under therapist supervision while incrementally increasing the range of motion as desired by the therapist.

For the active mode or “gaming” mode, the team developed a video game based on an airplane motif. Patients use pedbot as an input device to pilot an airplane through a series of hoops. The level of the difficulty of the game can be easily adjusted based on the patient’s capability and physical condition.

To date, four patients have participated in an IRB-approved clinical trial for the pedbot. All of the patients enjoyed the game and they were willing to continue to participate as suggested by a physiotherapist.

The pedbot team, in addition to the engineers mentioned above, includes Catherine Coley, P.T.; Stacey Kovelman, P.T.; and Sara Alyamani, B.A. In future work, they plan to expand the system to include electromyography measurements with Paola Pergami, M.D.,Ph.D. They also are planning to develop a low cost, 3D printed version for the home market so children can do Pedbot therapy every day.

Electronic medical record on tablet

Children’s National submissions make hackathon finals

Electronic medical record on tablet

This April, the Clinical and Translational Science Institute at Children’s National (CTSI-CN) and The George Washington University (GW) will hold their 2nd Annual Medical and Health App Development Workshop. Of the 10 application (app) ideas selected for further development at the hackathon workshop, five were submitted by clinicians and researchers from Children’s National.

The purpose of the half-day hackathon is to develop the requirements and prototype user interface for 10 medical software applications that were selected from ideas submitted late in 2017. While idea submissions were not restricted, the sponsors suggested that they lead to useful medical software applications.

The following five app ideas from Children’s National were selected for the workshop:

  • A patient/parent decision tool that could use a series of questions to determine if the patient should go to the Emergency Department or to their primary care provider; submitted by Sephora Morrison, M.D., and Ankoor Shah, M.D., M.P.H.
  • The Online Treatment Recovery Assistance for Concussion in Kids (OnTRACK) smartphone application could guide children/adolescents and their families in the treatment of their concussion in concert with their health care provider; submitted by Gerard Gioia, Ph.D.
  • A genetic counseling app that would provide a reputable, easily accessible bank of counseling videos for a variety of topics, from genetic testing to rare disorders; submitted by Debra Regier, M.D.
  • An app that would allow the Children’s National Childhood and Adolescent Diabetes Program team to communicate securely and efficiently with diabetes patients; submitted by Cynthia Medford, R.N., and Kannan Kasturi, M.D.
  • An app that would provide specific evidence-based guidance for medical providers considering PrEP (pre-exposure prophylaxis) for HIV prevention; submitted by Kyzwana Caves, M.D.

Kevin Cleary, Ph.D., technical director of the Bioengineering Initiative at Children’s National Health System, and Sean Cleary, Ph.D., M.P.H., associate professor in epidemiology and biostatistics at GW, created the hackathon to provide an interactive learning experience for people interested in developing medical and health software applications.

The workshop, which will be held on April 13, 2018, will start with short talks from experts on human factors engineering and the regulatory environment for medical and health apps. Attendees will then divide into small groups to brainstorm requirements and user interfaces for the 10 app ideas. After each group presents their concepts to all the participants, the judges will pick the winning app/group. The idea originator will receive up to $10,000 of voucher funding for their prototype development.