Hypoplastic left heart syndrome (HLHS) is a rare but serious form of congenital heart disease that leaves the left pumping chamber (ventricle) of the heart severely underdeveloped. Children born with HLHS can’t pump enough oxygenated blood from their heart to the rest of their body and need surgery as soon as possible to survive. Treatment ultimately involves three corrective surgeries throughout the infant and toddler years.
The first surgery, known as the Norwood procedure, is the riskiest of the three. Ideally performed within the first week of life, the procedure re-routes the heart’s plumbing to ensure enough oxygenated blood is circulated while the child grows big enough for the second surgery. A device called a graft is used to connect the fully-functional right ventricle to the aorta, bypassing the stunted left ventricle, for proper blood flow. However, with each ventricular contraction, the graft gets squeezed, which can cause it to shift or lose its shape over time. Repeat interventions to adjust the graft are often needed.
At this recent GoldLab Symposium presentation in Colorado, parent Matt Might shows how it’s done.
People credit rapid next-generation gene sequencing for the increased pace of medical discovery. But patients and their families—especially those with rare or undiagnosed conditions—are emerging as the true engines of precision medicine. Racing against the clock to save their children, parents are building databanks, connecting scientific dots and fueling therapeutic advances that could otherwise take a decade or more to happen.
More than 100,000 smartphone apps are currently categorized as “health apps.” There are apps for physical health—apps that log work-outs, track nutritional intake, and monitor sleeping patterns. And there are apps for mental health—apps that identify your mood, guide meditation and alleviate depression. But can an app tackle a public health problem as serious as teen suicide?
Turns out, mobile phones and suicide prevention may not be such strange bedfellows.
Elizabeth Wharff, PhD, and Kimberly O’Brien, PhD, clinician-researchers from the Department of Psychiatry at Boston Children’s Hospital, specialize in working with adolescents who struggle with suicidal thoughts. Noting that teens are already turning to their phones whenever they need something, they believe a mobile app may be the perfect platform to support them through tough times. Wharff feels that existing apps designed to help with depression and anxiety lack something crucial: parent mode.
Dhaka, Bangladesh, is a megacity, one of the world’s fastest growing. By 2025, the U.N. predicts, Dhaka will be home to more than 20 million people as rural migrants swell its population. Many residents live in extreme poverty, crowded into dense, hot, chaotic slums with open sewers and corrugated housing.
While traditional global health programs have focused on curbing infectious disease, low-resource settings like Dhaka are also coming to be seen as “living laboratories” for investigating how adversity affects children’s brain development. Last year, the Bill & Melinda Gates Foundation awarded a two-year, $2.5 million grant to Charles Nelson, PhD, to bring the first fully equipped neuroimaging facility to Bangladesh.
Can a robotic talking bear have therapeutic value? “The Bear,” part of a New York Times video series called Robotica, offers a glimpse of Huggable’s potential when Beatrice Lipp, a child with a chronic medical condition, visits the hospital, nervous about what’s to come.
“We want to offer kids one more way of helping them to feel OK where they are in what’s otherwise a really stressful experience,” explains Dierdre Logan, PhD, director of Psychological Services for Pain Medicine at Boston Children’s Hospital.
Huggable, a creation of the MIT Media Lab’s Personal Robots Group and the Boston Children’s Simulator Program, comes into Beatrice’s room to chat, play games like “I Spy” and tell jokes. The session is recorded on video, and a bracelet called a Q Sensor collects Beatrice’s physiologic data–changes in skin conductance, temperature and motion that may indicate distress. Researchers at Northeastern University are analyzing these data to gauge the robot’s effect. Eventually, Huggable will be able to react to the data and respond accordingly—offering relaxation exercises and guided imagery, for example, if a child remains anxious.
Currently, Huggable is voiced by Child Life staff, but the ultimate goal is for it to work autonomously. Beatrice is part of a 90-child study comparing Huggable, an ordinary teddy bear and a tablet Huggable image.
I admit: My immediate thought on seeing Huggable was that kids would immediately see him (her?) as a fake, but the bear’s robotic nature doesn’t seem to faze them. As Logan says in the video:
I think there’s a way of connecting with kids that’s different than what grownups have to offer. They have incredible imaginations. And they can really suspend disbelief. There can be a true relationship that develops between Huggable and a patient.
Nikkola Carmichael, MS, CGC, is a parent and a genetic counselor in the adult genetics clinic at Brigham and Women’s Hospital. Her research was conducted as part of her master’s degree in genetic counseling in conjunction with colleagues at Boston Children’s Hospital.
When a parent or provider first becomes concerned about a child’s development, a diagnostic odyssey begins. It may be brief or can stretch for years as a child undergoes multiple procedures and medical appointments in the search for a diagnosis.
This is a challenging time for families. While learning to address their child’s health needs and fearing for the future, parents may have difficulty accessing support services due to the lack of a diagnosis. Against this backdrop of emotional turmoil, parents strive to support their child through medical procedures that can be painful or frightening.
MIT’s implantable device could help docs determine best cancer medicine(Boston Business Journal)
Removing the trial and error associated with cancer drug treatments is high on oncologists’ wish lists. Heeding that call, MIT has developed an implantable device (about the size of a grain of rice) that can carry up to 30 different drug doses to a cancerous tumor, and then be removed to test responses.
Your child’s forehead is warm, and you just took her temperature. The next question is, what to do about it? We all know that an average normal temp is 98.6°F, but is 100° a problem? Should 102° be a concern?
This is where Thermia comes in. It’s an online fever calculator developed by the HealthMap team at Boston Children’s Hospital. Essentially, it’s an educational tool aimed at helping concerned parents interpret a child’s temperature and understand which steps they should consider taking.
“I’m a father of two, and I still wonder sometimes what a temperature actually means,” says HealthMap co-founder John Brownstein, PhD. “We realized that there really aren’t any fever calculators out there to help parents answer that question.
“Our idea with Thermia,” he adds, “was to arm families with information so they don’t panic when their child has a temperature.”
Preterm infants in neonatal intensive care units, particularly those with catheters and intravenous lines, are at high risk for bacteremia—bloodstream infections that can cause lasting brain injury. A new study may change how people think about these infections, suggesting that inflammation is as important to address as the infection itself.
“There has been a lot of indirect epidemiologic evidence for a link between bacteremia, inflammation and cerebral injury, but it showed only a correlation, not causation,” says Levy. “Here we demonstrate directly in an animal model that inflammation alone can cause brain injury in newborns with bacteremia, even without entry of the bacteria to the central nervous system.”