It’s 1 a.m. on a Wednesday. A two-year-old boy involved in a rollover automobile accident is brought into the emergency department at Boston Children’s Hospital. A scan shows fluid in his abdomen. He is becoming progressively unstable, his blood pressure plummeting despite blood transfusions. A decision is made to bring him to the operating room (OR), where a surgical team performs an exploratory laparotomy for a liver laceration and massive bleeding.
On July 13, 14 and 15, the entire seventh floor of the nearby Longwood Center became a theater, rooms with walls of cardboard became the stage, and hospital staff members became the actors. It was just one of many simulations—complete with cardboard transfusion machines, heart-lung machines and more—intended to help architects design ORs, procedure rooms, recovery rooms and other clinical spaces. These spaces will eventually make up a new 11-story, 445,000-square-foot hospital building. During the week, similar exercises also took place for a planned facility in Waltham.
Growing up in the San Francisco area, Cigall Kadoch, PhD, had a passion for puzzles. The daughter of a Moroccan-born, Israeli-raised father and a mother from Michigan who together developed an interior design business, Kadoch excelled in school and pretty much everything else. Above all, she loved to solve brain-teasers.
In high school, however, Kadoch came up against a problem that defied solution. Breast cancer took the life of a beloved family caretaker who had nurtured her interests in science and nature. She knew little about cancer except that it took lives far too early.
“I was deeply saddened and very frustrated at my lack of understanding of what had happened,” recalls Kadoch. “I thought to myself, cancer is a puzzle that isn’t solved, let alone even well-defined, and I want to try. As naïve a statement as that was, it was a defining moment—one which I never could have predicted would actually shape my life’s efforts.”
Funding drives biomedical research, and research drives treatment innovation. Access to funds, particularly National Institute of Health (NIH) awards, is critical to move research forward. The 21st Century Cures Act, which passed the U.S. House on July 10, could give the NIH $8.75 billion more in new grants to disperse over the next five years, the largest increase since the Recovery Act of 2009.
How would those funds be used? Can research find a better way to treat patients? Prevent disease? Disseminate advances in medicine?
In 2014, Boston Children’s led the U.S. in NIH awards. Here’s a look at how a few research teams are leveraging NIH funding to improve care for both children and adults.
Bone marrow transplantation, a.k.a. stem cell transplantation, can offer a cure for certain cancers, blood disorders, immune deficiencies and even metabolic disorders. But it’s a highly toxic procedure, especially when a closely matched marrow donor can’t be found. Using stem cells from umbilical cord blood banked after childbirth could open up many more matching possibilities, making transplantation safer.
But what if the blood stem cells in those units could be supercharged to engraft more efficiently in the bone marrow and grow their numbers faster? That’s been the quest of the Zon lab for the past seven years, in partnership with a see-through zebrafish called Casper.
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.
Hospitals are among the most hazardous workplaces in the U.S. In 2011, according to the Occupational Safety and Health Administration, 253,700 accidents were reported, an average of 6.8 work-related injuries for every 100 full-time employees. Rates of injuries reported to OSHA are decreasing in all industries except for hospitals, whose rates are double the average.
Could a set of digital apps help identify and reduce occupational and environmental risks in a quick and efficient manner? That is what Nick Kielbania, MS, CSP, CHMM, director of Environmental Health & Safety (EH&S) and Adrian Hudson, PhD, MCompSc, principal software architect at Boston Children’s Hospital, set out to create.
Their web-based solution, enabled for Apple and Android devices, is called the BCH Environmental Health and Safety Application Suite. Designed to aid hospital emergency response, safety and support services, the applications encompass fire, clinical, research, construction and environmental safety, with additional apps for on-call and administrative personnel.
MRI is a staple of surgical imaging, but it has the potential to do much more than take pictures. In 2011, bioengineer Pierre Dupont, PhD, and colleagues demonstrated that an MRI machine’s magnetic field could power a motor strong enough to control a robotic instrument, in this case driving a needle into an organ to do a biopsy.
But Dupont, head of the Pediatric Cardiac Bioengineering Lab at Boston Children’s Hospital, wants to go further. “We had this idea, admittedly fanciful: What if you could swim robots through the body?” he says. “If you could inject something systemically and steer it to just hit your target, that would be a cool application.”
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.