When F1 helped save the lives of thousands of babies

1999. London. England.

The night was unremarkable. Two exhausted doctors, Martin Elliott (pediatric cardiac surgeon) and Allan Goldman (pediatric critical care anesthesiologist), had slumped onto a sofa at Great Ormond Street Hospital in London after a day they’d rather forget. Exhaustion had set in. After hours in the operating room, concentration pushed to the limit and the constant pressure of not being able to fail, their bodies finally collapsed, heavy, in silence. It wasn't just physical fatigue. It was that deep exhaustion that comes from bearing the responsibility of everything going right for too long. Someone had left the television on.

On the screen, Formula 1 roared.

They had been watching children die for years at the worst possible moment. Not on the operating table, where everything was under control. Not in the ICU, where monitors watched every heartbeat. But in the space of a few meters between one room and the next. In that forty-second transit when a newly operated baby had to be moved, with their tubes, their wires, their life support machines, from one medical team to another. It was a moment of chaos. Too many hands. Too many voices. Nobody in charge. Nobody silent. And in that noise, some babies didn't make it.

The two doctors had studied it. They had looked for protocols, consulted other hospitals, reviewed scientific literature. Nothing. The medical world had no answer to this specific problem. The solution, if it existed, was elsewhere.

Then, on the screen, a Ferrari entered the pits.

What they saw wasn't speed. It was something else. It was a system of twenty people moving as a single organism, each in their exact place, with their exact function, without overlap, without doubt, without unnecessary shouting. In less than seven seconds, the car had changed four wheels and was back on the track. Zero errors tolerated. Zero margin for improvisation.

Elliott looked at Goldman. Goldman looked at Elliott.

The next day, they called Maranello, Ferrari's headquarters.

The visit to Maranello, the heart of F1

Elliott made the call. There was no protocol for such a thing, no form to fill out, no institutional relations department to write to. He simply dialed the Scuderia Ferrari number and explained, with the brevity that years in the operating room provide, that he was a cardiac surgeon at a London children's hospital and believed their mechanics could teach them how not to kill babies. On the other end of the phone, someone listened.

Ferrari invited them to Maranello.

Elliott, Goldman, and Dr. Ken Catchpole, a human factors researcher from the Department of Surgery at the University of Oxford, traveled together to Italy. Catchpole was not an operating room doctor: he was the kind of scientist who studies how human systems fail under pressure, the same principle that makes airline pilots use checklists and nuclear operators verbalize every action they perform. His presence on the trip was not accidental. Elliott and Goldman knew they needed someone who could translate between two worlds that didn't speak the same language.

In Maranello, they held detailed discussions with the technical race director, Nigel Stepney, a legendary figure within Ferrari: head of pit stop technical operations, the human architect of that seven-second choreography that the world watched on television as a spectacle and that, within the paddock, was considered an exact science.

Before showing them anything, the doctors handed him a video.

It was a recording of a real hospital transfer: a newly operated baby being moved from the operating room to the ICU. Stepney and his team watched it and gave their frank verdict: the process was clumsy and informal, inconsistent, with simultaneous conversations overlapping. There was no rhythm. There was no order. And above all, no one could determine who was in charge.

That last observation struck the doctors the most. In an elite hospital, with world-class surgeons, at the most delicate moment of a child's recovery, no one was clearly responsible for everything going well.

Stepney then explained how a pit stop worked from the inside, not as the television camera sees it, but as those performing it experience it. The "lollipop man" was not simply the one holding a sign. He was the absolute authority of the moment: he decided when the car entered, when it was ready to leave, and no one moved without his signal. A chain of command so clear it never needed to be spoken aloud.

Then came the part the doctors didn't expect.

The Ferrari team would sit around a large table before each race and analyze, over and over, every possible failure. The questions they asked were always the same: What could go wrong? What will we do if it goes wrong? How serious would it be if it went wrong? Every idea was given the same weight, without hierarchies, until the group ordered them by criticality using an FMEA methodology. A tool born in the 1940s in US military engineering, refined by NASA, and adopted by Ferrari to anticipate pit stop failures with the same cold precision that engineers plan space missions.

The doctors furiously took notes.

The contrast was devastating: the medical team tended to wait for something to go wrong before thinking about what they should have done. Ferrari, on the other hand, had mentally rehearsed every possible disaster before the car even entered the track. After the discussions, upon returning to the UK, the team also gained insights from two British Airways training pilots on how to structure teamwork and communications. Aviation had decades of advantage in process safety, and their pre-operative checklists, standardized briefings, and culture of active silence during critical phases were exactly the kind of language the doctors needed to learn to speak.

Structural change in the hospital

Back in London, the real work began.

A choreographer was hired to redesign the team's movements around the baby's bed. This was not a metaphor. It was literally a professional of movement in space, the kind who works with dancers and actors, applying their craft to nurses and anesthesiologists so that their bodies would not collide, wires would not be stepped on, and access to the monitor would not be blocked at the moment someone needed it. Professor Elliott would say years later that the team tended to talk a lot during transfers. After the choreographer's intervention, the transfer became one of the quietest activities in the hospital, especially during information handover.

The protocol that emerged was twelve pages long.

It covered the transfer in four distinct phases, each with assigned responsibilities, specific tasks, and a sequence that could not be reordered.

Phase zero began thirty minutes before the transfer: the receiving nurse completed a patient transfer form and set up monitoring and ventilation systems around the ICU bed, exactly like a mechanic prepares the pit box before the car enters. No one waited for the baby to arrive before starting to think about what wires were needed. In those fifteen minutes of actual transfer, technology and support systems, including ventilation, two to four monitoring lines, multiple vasodilators, and inotropes, had to be transferred twice: from the operating room system to the portable equipment and then to the fixed ICU system. It was, literally, a two-stop pit stop.

The separation between phases was the most important technical discovery.

The data on change

Before the new protocol, approximately 30% of errors occurred simultaneously in equipment handling and information transmission.

Afterwards, only 10%.

When the doctor simultaneously tried to reconnect an intravenous line and listen to the surgeon's verbal report, they failed at both. Ferrari never asked the rear jack mechanic to note down lap times.

A shortened version of the protocol, with the four main steps, was also prepared. It was printed. It was laminated. It was placed next to every ICU bed.

The numbers that arrived months later were hard to ignore: technical errors fell from an average of 5.42 per transfer to 3.15 (-42%). Information omissions, from 2.09 to 1.07 (-49%). The average transfer time dropped from 10.8 minutes to 9.4 (-13%). And errors occurring simultaneously in equipment handling and information transmission, that double failure which was the most lethal, decreased from 30% to 10% of cases (-67%).

It wasn't speed that had been gained. It was reliability. The difference between what was always done and what should never fail.

The study was published in 2007 in the journal Paediatric Anaesthesia, authored by Catchpole, De Leval, Elliott, Goldman, and five other collaborators. It landed in the medical world as a perfect anomaly: a rigorous scientific paper whose methodology included having traveled to Maranello to talk to Formula 1 mechanics.

It didn't take long for critics to run out of arguments. The data was the data.

Infographic

FAQs. Frequently asked questions about how F1 helped save thousands of babies

What specific problem were Elliott and Goldman trying to solve at Great Ormond Street Hospital?

The problem was not with the surgeries themselves, but with the forty-second transfer between the operating room and the intensive care unit. Operated babies had to be moved barely thirty meters with tubes, wires, portable ventilation, and multiple monitoring lines, all transferred twice in less than fifteen minutes. This transition moment was chaotic: there was no clear person in charge, team members stepped on each other's tasks, conversations overlapped, and errors accumulated. Some children did not survive that journey, not due to lack of surgical skill, but due to the absence of a system.

Why was Ferrari chosen and not another Formula 1 team or another industry?

The choice of Ferrari was not the result of a systematic search but of a fortuitous observation. Elliott and Goldman saw a Ferrari pit stop on television and immediately recognized the structural analogy with their problem: a large team executing a complex task, in a small space, with critical equipment, under time pressure, and with zero tolerance for error. Ferrari answered the call and invited them to Maranello. McLaren was also contacted, and later two British Airways captain pilots were brought in to add the perspective of aviation, an industry with decades of advantage in safety protocols.

What is FMEA analysis and how did Ferrari apply it in their work?

Failure Mode and Effects Analysis, known by its acronym FMEA, is a methodology originally developed by the US military in the 1940s and later refined by NASA and the aerospace industry. It involves gathering the team around a table and systematically asking three questions about each step of the process: what could go wrong, what would be done if it went wrong, and how serious would it be. Each idea receives the same weight, without hierarchies, and failures are prioritized by their criticality. Ferrari used it before each race to anticipate breakdowns in the pit stop. The GOSH team adopted it to map all risk points of surgical transfer before redesigning the protocol.

What role did the choreographer play in transforming the hospital protocol?

One of the most surprising findings from the visit to Maranello was the importance of each person's physical position in space. Ferrari had every movement choreographed to the millimeter. To replicate that discipline in the hospital, the GOSH team hired a professional choreographer, the type who works with dancers and actors, to redesign the movements of medical staff around the baby's bed. The goal was not speed but to eliminate collisions, ensure free access to each monitor, and prevent anyone from inadvertently blocking an intravenous line. As a collateral effect, the process became remarkably quieter: when each person knows exactly where they should be and what they should do, they don't need to ask or coordinate aloud.

Why was separating the equipment connection phase from the information transmission phase so important?

Before the new protocol, doctors simultaneously tried to reconnect cables and lines while listening to the surgeon's verbal report. Doing two cognitively demanding things at the same time degraded the quality of both. The study data confirmed this: approximately thirty percent of errors occurred simultaneously in equipment handling and information transmission. By separating these two actions into distinct and sequential phases, the percentage of double errors fell to ten percent. The logic is the same as in a pit stop: the rear jack mechanic doesn't take notes of lap times while lifting the car.

What concrete improvements did the new protocol produce according to the study published in 2007?

The study by Catchpole et al., published in the journal Paediatric Anaesthesia, measured fifty transfers: twenty-three before implementing the protocol and twenty-seven after. Technical errors per transfer dropped from an average of 5.42 to 3.15, a 42% reduction. Information omissions fell from 2.09 to 1.07, a 49% decrease. The average transfer time was reduced from 10.8 to 9.4 minutes, 13% faster. And simultaneous double errors, the most dangerous, decreased from 30% to 10% of cases, a 67% improvement. The study could not isolate an exact number of avoided deaths, given the sample size and the multi-causality of mortality in pediatric cardiac surgery, but the reduction in errors is considered a direct indicator of increased patient safety.

Was this model extended to other hospitals or Formula 1 teams?

Yes. In 2016, the Williams Formula 1 team collaborated with the University Hospital of Wales in Cardiff to apply the same principles to neonatal resuscitation. Williams standardized the physical layouts of the operating room, replicating the distribution of their pit garages on the track, color-coded material trolleys, introduced radio checks before each procedure, and replaced chaotic verbal communication with hand signals during critical moments. The approach has also extended to other areas: at a meeting held in Silverstone, the same pit stop principles were taught to dementia researchers to improve coordination in their laboratories.

How many children die annually worldwide due to congenital heart disease?

Congenital heart defects are the most common birth malformation worldwide, affecting approximately one in a hundred newborns. According to the World Health Organization, they represent one of the leading causes of infant mortality from non-infectious causes. In low- and middle-income countries, where access to pediatric cardiac surgery is limited, associated mortality can exceed 50% in the most severe cases during the first year of life. Globally, it is estimated that between 1.35 and 1.5 million babies are born each year with some type of congenital heart defect, a significant fraction of whom will require surgical intervention.

What other areas of medicine have adopted methodologies from high-risk industries to improve safety?

The transfer of knowledge from high-risk industries to medicine is a growing field within patient safety research. Aviation pioneered this: the pre-operative checklists now used by the World Health Organization in operating rooms worldwide are derived directly from the verification protocols that commercial pilots have been using for decades before takeoff. The nuclear industry has contributed methodologies for error management and incident reporting culture. Systems engineering has influenced the design of intensive care units. And more recently, the world of elite sports, including professional football teams and endurance sports, is being studied for its protocols for performance management under fatigue, applicable to extended on-call shifts in emergency medicine.

Is there evidence that errors during hospital transfers are a widespread problem beyond GOSH?

Yes. Research on handover safety, i.e., the moments of patient transfer between teams or units, consistently shows that these are points of high vulnerability in any hospital system. A report from the US Institute of Medicine estimated that preventable medical errors cause tens of thousands of deaths annually, and a significant proportion is associated with communication failures during these handovers. The Joint Commission on Accreditation of Healthcare Organizations in the United States identified communication failures during handover as a contributing factor in over 70% of sentinel events—those serious or fatal incidents that require mandatory analysis. The GOSH case was not an anomaly: it was the first systematic and documented solution to a universal problem.

References

• Catchpole, K. R., de Leval, M. R., McEwan, A., Pigott, N., Elliott, M. J., McQuillan, A., MacDonald, C., & Goldman, A. J. (2007). Patient Handover from Surgery to Intensive Care: Using Formula 1 Pit‑Stop and Aviation Models to Improve Safety and Quality. Paediatric Anaesthesia, 17(5), 470–478. https://doi.org/10.1111/j.1460-9592.2006.02239.x
• Catchpole, K. (n.d.). Improving handovers by learning from Scuderia Ferrari. HealthManagement.org. https://healthmanagement.org/c/icu/IssueArticle/improving-handovers-by-learning-from-scuderia-ferrari
• Sower, V. E., Duffy, J. A., & Kohers, G. (2008). Great Ormond Street Hospital for Children: Ferrari's Formula One handovers and handovers from surgery to intensive care. In Benchmarking for hospitals: Achieving best-in-class performance without having to reinvent the wheel. ASQ Quality Press. https://gwern.net/doc/technology/2008-sower.pdf