Hey everyone, it’s Jake from the surgical systems team here, and I’m sitting in our office on a rainy Tuesday, staring at a stack of post-op surveys from surgeons across the country. Most of them are glowing—they talk about how our robotic-assisted system cut their procedure time for minimally invasive hysterectomies by 18%, or how the 3D camera let them spot a tiny lesion they might have missed with a traditional scope. But there’s one comment that’s been looping in my head for days: “Great tool, but it’s not without its headaches.” As someone who’s spent the last 7 years designing, testing, and shipping these systems, I know surgical tech isn’t all cutting-edge wins and streamlined OR days. Every time we launch a new model, I’m the first to hear the downsides—from scrub techs fumbling with a 100-pound cart to surgeons grappling with steep learning curves. Today, I want to talk about the real disadvantages of using surgical systems, not just the stuff we hide in fine print, but the honest, on-the-ground struggles that my team and I are working to fix. Surgical System
First off, let’s get this straight: I’m not here to bash our own products. I’d be out of a job if I didn’t believe in what we build. But ignoring the flaws would do a disservice to the surgeons, nurses, and patients who rely on our tools. Take cost, for example. I recently sat in on a conference where a general surgeon told me that using a robotic system for a single laparoscopic cholecystectomy cost his hospital $2,200 in disposable instruments alone—stuff like instrument tips, cannulas, and the sterile drapes that fit over the console. Compare that to a traditional laparoscopic setup, which runs around $350 for the same procedure. That’s a huge gap, and it’s not just about the upfront price tag of the system itself (which can hit $2 million for a full robotic setup). Disposable fees add up fast, and small rural hospitals, which often serve low-income communities, can’t swing that kind of expense. I’ve seen a hospital in West Virginia delay purchasing our system for 3 years because the disposable costs were eating into their OR budget for emergency care. It’s a real barrier to equitable care, and it’s the exact reason my team is testing reusable instrument prototypes that can withstand 50 uses instead of just 10—we’re already cutting disposable costs by 40% in early trials, but it’s a slow process to get regulatory approval.
Next, there’s the elephant in the OR: the learning curve. When a surgeon uses our system for the first time, they don’t just flip a switch and master it. I remember a urologist who practiced on our training simulator for 8 hours before his first radical prostatectomy, and even then, he said he “missed three key steps because the console foot pedal lagged for half a second.” Robotic systems, in particular, have a unique disconnect: the surgeon is sitting 3 feet away from the patient, manipulating instruments that have 7 degrees of freedom (versus 4 for human hands), but that precision doesn’t come overnight. A study we ran last year found that surgeons needed 15–20 supervised procedures to get their time down to match traditional laparoscopic methods, and 30% of general surgeons reported that the learning curve made them more cautious during their first 10 cases, leading to longer procedure times and higher anesthesia exposure for patients. The problem isn’t that the technology is hard—it’s that training programs often don’t have access to enough live OR time with new systems. We’ve set up training labs in 12 medical schools, but we can’t be everywhere, and small community hospitals can’t send every surgeon to a 4-week bootcamp. It’s frustrating, because we designed the system to make surgery safer, but the learning gap can create more risk in the short term.
Then there’s physical and ergonomic strain on the surgical team. I never thought I’d write about back pain in a tech blog, but here’s the truth: when a surgeon is hunched over a console for 6 hours straight, their neck is craned at a 45-degree angle to see the 2D or 3D feed, and scrub techs are lifting 50-pound instrument carts across the OR floor, that’s not just discomfort—that’s long-term injury. A 2022 study from the American College of Surgeons found that 68% of robotic surgeons reported chronic neck or shoulder pain, compared to 32% of open surgeons. Scrub techs and circulating nurses, who move bulky surgical systems between rooms, reported a 40% higher rate of musculoskeletal disorders than their peers using traditional tools. We’ve tried to fix this: our latest model has a console that adjusts to 12 different heights, and we added locking wheels to the cart so it doesn’t roll mid-procedure, but some older systems are still in use, and even our newer models have a downside—surgeons often disengage from the rest of the team because they’re focused on the screen. I’ve walked into an OR mid-procedure where the surgeon didn’t hear the circulating nurse say they needed a suture, because they were so focused on the console. That disconnect can lead to communication gaps, which are a top cause of surgical errors.
Wait, let’s not forget about technical failures, the kind that happen when you’re in the middle of a procedure. Last year, a cardiac surgeon in Chicago was doing a mitral valve repair when our system’s camera feed cut out for 10 seconds. He had to switch to a backup traditional scope, and he later told me that moment made him “feel like I was working blind.” Our systems have built-in backups, of course—manual controls, redundant power supplies—but 2% of procedures still experience some kind of technical glitch, according to FDA’s MAUDE database. It’s not a high number, but when you’re in the middle of a 4-hour surgery, 10 seconds can feel like an eternity. What’s worse is that some smaller surgical systems (not just ours, but competitors too) don’t have the same level of fail-safes, because they cut corners on component quality. We test our systems 10,000 times before shipping, but even the best tech can fail, and when it does, it forces the surgical team to pivot quickly, which raises stress levels and can lead to human error.
Another disadvantage is the over-reliance on technology, especially among newer surgeons. I’ve talked to surgical residents who trained entirely on robotic systems, and when they’re put in a situation where the system isn’t available—like a rural clinic that can’t afford it—they struggle to perform traditional procedures. One resident told me that he couldn’t do a basic appendectomy without the robotic system’s precision, because he’d never practiced the hand movements enough. That’s a problem for the future of surgery, because you can’t carry a robotic system in your bag when you’re working in an emergency clinic during a natural disaster. We’ve started adding “traditional surgery modules” to our training programs, making residents practice laparoscopic procedures without the system for 20% of their training, but it’s an uphill battle when medical schools prioritize new tech over old skills.
Let’s also touch on maintenance and downtime. Surgical systems aren’t like a laptop you can fix with a new battery—they need specialized technicians to service them. If a robotic arm malfunctions, you can’t call IT; you have to wait for a certified biomedical technician, which can take 24–48 hours, depending on the region. That means the OR has to cancel cases, which costs hospitals thousands of dollars in lost revenue, and patients have to reschedule their procedures. We offer 24/7 technical support for our clients, and we have spare parts warehouses in every major city, but for small hospitals in rural areas, a technician might have to drive 3 hours to fix a problem. In the time it takes them to get there, that’s 3 canceled cases, and a lot of frustrated surgeons.
I know this all sounds pretty negative, and you might be thinking, “Why would I buy a surgical system if it has all these downsides?” But here’s the thing: every disadvantage I just mentioned is something my team is actively working to solve. We don’t hide these flaws in our marketing materials—we share them with our clients, because we believe transparency builds trust. Last month, we rolled out a subscription model that cuts upfront costs by 60% and includes maintenance, training, and disposable instrument discounts, which addresses the cost barrier. We just released an updated console with eye-tracking that adjusts the screen position automatically, reducing neck strain for surgeons, and we’re partnering with medical schools to develop hybrid training programs that combine robotic and traditional surgery.
At the end of the day, surgical systems are tools—they’re just like a screwdriver or a scalpel. A good screwdriver makes the job faster, but it’s useless if you don’t know how to use it, or if it breaks mid-task. The disadvantages aren’t flaws in the technology itself—they’re growing pains as we adjust to a world where surgery is becoming more precise, but not always more accessible.
If you’re a surgeon, OR manager, or hospital administrator who’s using a surgical system and dealing with any of these issues, I want to hear from you. My team and I are always looking for feedback to make our systems better. If you’re interested in learning more about how we’re addressing these disadvantages, or want to discuss custom solutions for your facility, feel free to reach out to our sales team for a purchasing consultation. We’re here to help, not just sell a product.
Disposable Surgical Instruments References
U.S. Food and Drug Administration. (2023). MAUDE Adverse Event Report Summary: Surgical System Device Failures.
American College of Surgeons. (2022). Ergonomic Risks in Robotic Surgery.
Journal of Surgical Education. (2022). Learning Curves for Minimally Invasive Surgical Systems: A Multi-Institutional Study.
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