A computerized safety checklist that automatically pulls information from patients' electronic medical records was associated with a threefold drop in rates of one serious type of hospital-acquired infection, according to a study by researchers at the Stanford University School of Medicine and Lucile Packard Children's Hospital Stanford.
The study, conducted in the hospital's pediatric intensive care unit, targeted bloodstream infections that begin in central lines. The infections are a preventable cause of illness and death, and hospitals across the country are working to reduce their frequency.
The automated checklist, and a dashboard-style interface used to interact with it, made it fast and easy for caregivers to follow national guidelines for keeping patients' central lines infection-free. The new system combed through data in the electronic medical record and pushed alerts to physicians and nurses when a patient's central line was due for care. During the study, the rate of central line infections in the hospital's pediatric intensive care unit dropped from 2.6 to 0.7 per 1,000 days of central line use.
The findings were published online Feb. 23, 2014Â in the journal Pediatrics.
"Electronic medical records are data-rich and information-poor," says Natalie Pageler, MD, the study's lead author. Often, the data in electronic medical records is cumbersome for caregivers to use in real time, but the study showed a way to change that. Our new tool lets physicians focus on taking care of the patient while automating some of the background safety checks."
Central lines have many uses, such as administering long-term antibiotics or chemotherapy and providing access to the bloodstream in patients who need kidney dialysis or frequent blood draws. The Institute of Medicine's 1999 report on medical errors, "To Err is Human," identified central line infections as a key target for reducing harm in healthcare. Approximately 40 percent of patients in the pediatric intensive care unit have central lines at some point during their hospital stays.
The research team collaborated with engineers from HP Labs to program the checklist and build a dashboard interface that displayed real-time alerts on a large LCD screen in the nurses' station. Alerts -- shown as red, yellow or green dots beside patients' names -- were generated if, for example, the dressing on a patient's central line was due to be changed, or if it was time for caregivers to re-evaluate whether medications given in the central line could be switched to oral formulations instead.
"The information was visible and easy to digest," says Deborah Franzon, MD, the study's senior author and a clinical associate professor of pediatrics and medical director of the hospital's pediatric intensive care unit. "We improved compliance with best-care practices and pulled information that otherwise would have been difficult to look for. It reduced busy-work and made it possible for the healthcare team to perform their jobs more efficiently and effectively."
In addition to avoiding harm to patients, the intervention saved approximately $260,000 per year in healthcare costs in the hospital's pediatric intensive care unit, the researchers estimated. Treating a single bloodstream infection from a central line costs approximately $39,000.
The researchers hope to expand the system to other uses, such as monitoring the recovery of children who have received organ transplants.
"The nice thing about this tool is that it's integrated into the electronic medical record, which we use every single day," Pageler says.
Adds Franzon, "This system works like a GPS-based road map that pulls relevant information to the forefront, and helps guide decisions about how to get safely to the destination."
Other Stanford members of the research team included Christopher Longhurst, MD, clinical associate professor of pediatrics; Matthew Wood, PhD, senior clinical analyst; David Cornfield, MD, professor of pediatrics; and Paul Sharek, MD, associate professor of pediatrics and chief clinical patient-safety officer. Jaap Suermondt, PhD, of HP Labs, also collaborated on the research.
The work was funded by the Lucile Packard Foundation for Children's Health, Stanford's Child Health Research Institute Innovations in Patient Care Program, Stanford's Clinical and Translational Science Award (grant UL1RR025744) and an HP Sustainability and Social Innovation grant.
Source: Stanford University School of Medicine, Lucile Packard Children's Hospital Stanford
Happy Hand Hygiene Day! Rethinking Glove Use for Safer, Cleaner, and More Ethical Health Care
May 5th 2025Despite their protective role, gloves are often misused in health care settings—undermining hand hygiene, risking patient safety, and worsening environmental impact. Alexandra Peters, PhD, points out that this misuse deserves urgent attention, especially today, World Hand Hygiene Day.
From the Derby to the Decontam Room: Leadership Lessons for Sterile Processing
April 27th 2025Elizabeth (Betty) Casey, MSN, RN, CNOR, CRCST, CHL, is the SVP of Operations and Chief Nursing Officer at Surgical Solutions in Overland, Kansas. This SPD leader reframes preparation, unpredictability, and teamwork by comparing surgical services to the Kentucky Derby to reenergize sterile processing professionals and inspire systemic change.
Show, Tell, Teach: Elevating EVS Training Through Cognitive Science and Performance Coaching
April 25th 2025Training EVS workers for hygiene excellence demands more than manuals—it requires active engagement, motor skills coaching, and teach-back techniques to reduce HAIs and improve patient outcomes.
The Rise of Disposable Products in Health Care Cleaning and Linens
April 25th 2025Health care-associated infections are driving a shift toward disposable microfiber cloths, mop pads, and curtains—offering infection prevention, regulatory compliance, and operational efficiency in one-time-use solutions.
Phage Therapy’s Future: Tackling Antimicrobial Resistance With Precision Viruses
April 24th 2025Bacteriophage therapy presents a promising alternative to antibiotics, especially as antimicrobial resistance continues to increase. Dr. Ran Nir-Paz discusses its potential, challenges, and future applications in this technology.