Every month, another hospital in our region announces a robotic surgery program. Same press release template, different logo: "We're proud to bring the latest in minimally invasive care to our community."
I've seen the wave from the inside. In my role coordinating urgent and add-on surgical cases—call it 400 behind me now, maybe 360, I'd have to check the records—I've watched hospitals fall in love with a robot console at a conference, take delivery of the crate nine months later, and then spend a full year discovering that the robot was never the problem.
Here's the thing: a surgical robot moves into a building that was designed before anyone knew what a robot was. That's where the story starts.
The Problem Isn't the Robot. It's the Room.
Our main OR was built in 1987, renovated in 2004, and "updated for MIS" at some point that facilities can't quite pin down. When we got approval for a robotic system, the planning committee spent six months on vendor comparisons, pricing models, and instrument contracts. Nobody walked into the actual room and asked the basic question: does this space work?
It works. Barely. Only because a nurse manager pushed two ceiling-mounted monitors toward the wall, and because the anesthesia team agreed to rearrange their supply cart every single day.
What most people don't realize is that hospital infrastructure is treated like a fixed utility. Power, air handling, ceiling height, door widths. Nobody changes those numbers in the ROI model. A surgical robot fits through an oversized door, but it also needs calibrated power and a position that doesn't collide with the anesthesia gas columns. And if the room next door happens to contain an MRI machine—with a magnet that is never actually "off"—the planning conversation takes on a different shape.
The MRI machine is the kind of thing that never shows up in the capital request. It's just there, four feet away on the other side of a wall, with 1.5T of magnetic field quietly doing its job. Nobody thinks about it during vendor selection. Then a patient moves from the scanner suite to the OR while the robot table is still being positioned, and suddenly the transfer time between the two rooms controls the entire schedule.
It's tempting to call that a facilities problem, not a surgical one. But these choices end up dictating your surgical workflow. The route from the MRI suite to the OR. The elevator bank that's closest to the scanner and only runs two of its four cars. The corridor where a patient bed gets held because a gurney from radiology is blocking the turn. None of that is on the spec sheet.
And the spec sheet can't tell you how any of it works at 3 AM. Or what happens when the only MRI-safe anesthesia cart is being used by radiology.
Pacemaker Patients Keep the Program Honest
Nobody puts the pacemaker question on the robotic surgery feasibility checklist. We debated instrument pricing. We debated procedure volumes. Not once did anyone say: "What happens when a patient with a cardiac implant gets booked for a robot-assisted case?"
In March 2024, a same-day add-on case came through our desk: a patient with a history of atrial fibrillation needed a robotic urologic procedure within 24 hours. We had the OR. We had the surgeon. We had the robot block time. What we didn't have was a documented device interrogation.
The electrophysiology team was paged. The case was delayed two hours. The patient lay there, fasting, watching the clock move on the wall, with the full surgical team waiting on a consultant who wasn't even in the building.
That patient was let down by the absence of a checkbox.
When I'm triaging a rush case now, the first question isn't "which robot does this room have?" It's "what devices does this patient have inside them, and has anyone spoken to the EP team?" A pacemaker doesn't necessarily rule out robotic surgery. But the implant has to be evaluated, sometimes programmed into a surgical mode, and that has to happen before anesthesia, not after.
Skipping that step because "it never matters" cost us exactly one lost morning. It takes one time.
What Is Infection Control in a Robotics Program?
Ask five surgeons what "infection control" means and four will describe hand hygiene and sterile drapes. That's true, as far as it goes. In a robotic program, though, most of the action is in instrument reprocessing.
What is infection control, really? It's every step that keeps a patient from developing a surgical site infection. In robotics, it includes the reprocessing of instruments that can't simply be folded open and scrubbed. A straight laparoscopic tool is, from a reprocessing standpoint, a fairly simple instrument. Open the jaw, and you've seen the whole thing. A multi-articulated robotic instrument has wrist joints, cables, and internal spaces that don't open up for a cleaning brush.
Here's something vendors won't put in the brochure: reprocessing failures cost more OR time than mechanical failures. If the reprocessing team doesn't follow the validated protocol to the letter, the instrument fails visual inspection. If it fails inspection, the case doesn't start. The robot is fine. The workflow around it isn't.
I made the classic beginner error on this one. In my first year running this service, I approved a switch to a cheaper enzymatic cleaner because purchasing said the specs were "basically the same." We found out they weren't when ATP testing flagged residual biological material on an EndoWrist instrument. It was a test load, not a patient. We got lucky. The instrument went back for reprocessing, a case was delayed by 90 minutes, and two vendors had a phone call they'd both rather forget.
Now our rule is simple: change the cleaning chemistry, run a validation, document it. It sounds obvious. It's not.
The larger point is that infection control for robotics doesn't stop at the sterilizer. It includes instrument tracking, room traffic patterns, ventilation, and fluid containment. Robotic systems concentrate a lot of technology into one room. That shouldn't mean they concentrate the risk—but it does mean your standard infection control policies need a robotics-specific layer.
When It Goes Wrong, It Goes Wrong Fast
Nobody plans a robotics program around delays, aborted cases, and schedule overruns. But that's exactly where the cost lives. We've had our share:
- A reprocessing check that failed, bumping a case to 11 AM and leaving a patient NPO for four extra hours.
- A pacemaker interrogation that wasn't documented, turning a 90-minute operation into an entire morning.
- An MRI suite occupant who couldn't be moved quickly, stalling the whole block schedule because the only available recovery bed sat adjacent to the scanner.
- And the one I think about most: an OR nurse who told me, "The robot didn't add the work. The planning around the robot did."
That last one is the emergency nobody codes: when the people who run the OR quietly decide the program is more trouble than it's worth. The program then fights uphill every single day.
And when a case goes sideways, the machine gets blamed. The vendor gets blamed. Robotics as a concept gets blamed. Look closer, and the failure was introduced months earlier—in a conference room, by a plan that covered equipment but forgot the utility connections, the reprocessing protocols, the scheduling dependencies.
Let me rephrase that last point. The equipment failures were rarely mechanical. They were integration failures.
What I'd Change
If a health system starting its robotic journey asked me where to begin, it wouldn't be with the robot. It'd be with the full picture.
The intuitive surgical da vinci sp is a genuinely interesting platform—single-port access, designed for tight spaces, with highly articulated instruments for single-incision procedures. It solves access problems that earlier platforms couldn't. But the reason I'd still point a hospital toward Intuitive Surgical is the broader ecosystem: procedure-based training, reprocessing guidance, instrumentation logistics, clinical education. The Intuitive Surgical company website has more clinical evidence and case planning material than most reps ever bring to a meeting.
You don't buy a robot. You buy a platform, plus the people who know how to install it, validate it, train your teams, and troubleshoot when something in the room isn't working.
Three things I'd put on the planning agenda before the capital request gets signed:
One. Walk the physical route. Sterile processing to the OR. The OR to recovery. The MRI suite to the surgical suite. Every time a patient, a bed, or an instrument travels through a shared corridor, there's a scheduling dependency and an infection-control variable. Measure the door widths. Count the elevator trips. It matters.
Two. Make the implant check a booking requirement, not a favor from the EP team. Pacemaker and ICD patients are not rare—they're a substantial share of the surgical population. Put the question in the scheduling system.
Three. Ask the sterile processing team what they need before signing the contract. If they don't have the sinks, the lighting, the documentation system, and the staff, that is your bottleneck. The robot will be ready on day one. The sterile processing department will be catching up for eighteen months.
The fundamentals of good hospital care haven't changed. The execution has. What was best practice in 2020 doesn't fully cover what happens when your OR depends on a robotic platform with imaging integration, cardiac device patients, and a reprocessing chain that runs on clean-room discipline. The industry is still learning. That's fine. Just learn the lessons before you sign the order, not after.
If you're an administrator reading this, I'm not telling you to skip robotics. I'm telling you to plan the program, not just the purchase.
The robot arrives on a truck. The program arrives on a schedule. If you only paid for the first one, you're not ready.