Robotic Surgery Innovations

As surgeons, we are taught to recognise anatomy. But what if AI could help us see anatomy in ways that the human eye cannot? In my book INTELLIGENT: The Evolution of AI Transforming Healthcare, I quote Henri Bergson “The eye sees only what the mind is prepared to comprehend.” I have talked about surgical AI navigation for a decade in my keynotes, and although there has been great promise, nearly all startups/companies have failed to deliver, despite vast resources and/or raising significant capital. One company that caught my attention recently is Anaut, a Japanese startup founded by surgeon Dr. Nao Kobayashi. Rather than replacing the surgeon, Anaut has focused on augmenting surgical vision through AI. Its EUREKA platform analyses live laparoscopic and robotic video to identify connective tissue planes and key anatomical structures in real time, helping surgeons navigate complex operations with greater confidence. The technology has achieved regulatory approval in Japan and is now expanding internationally. I met with the team recently in Portsmouth and was impressed with their platform and vision. The AI has been trained on over 2,000 surgical operations and was used for the first time by Jim Khan at Portsmouth Hospitals University NHS Trust For decades, surgery has improved through better instruments, optics and robotics. The next leap may come from cognitive assistance, AI that highlights anatomy, identifies safe dissection planes, reduces variation and supports decision-making without taking control away from the surgeon. Anaut has kept most of its financing terms private, which is common among Japanese deep-tech and medical device startups. Founded: 2020 Funding rounds: At least 7 funding rounds Lead investor: Japan Growth Capital Investment Corporation Key investors include:Beyond Next Ventures, ANRI, KSP, Japan Bank for International Cooperation (JBIC), Japan Green Investment Corporation for Carbon Neutrality (JICN), Vision Incubate Government support: In addition to equity financing, Anaut has received significant support through Japan's startup ecosystem. It was awarded a ¥699 million (US$5 million) grant through Japan's New Energy and Industrial Technology Development Organisation. Although the total amount raised remains undisclosed, the quality of the investor syndicate is arguably more important The participation of Nomura-backed growth capital, JBIC (Japan's sovereign development bank), suggests Anaut is being positioned as a strategic Japanese medtech company. JBIC has explicitly stated that its investment is intended to help Anaut expand into the US and European markets and strengthen Japan's competitiveness in medical AI. For comparison, many surgical AI companies have raised US$30–100+ million before meaningful commercialisation. Anaut appears to have taken a more capital-efficient path, leveraging government funding alongside venture capital while progressing to regulatory approval and international expansion.

A new review highlights how #ArtificialIntelligence is transforming every stage of microsurgery, from detailed planning before an operation to guiding surgeons during it, and even monitoring patients afterwards. This is making complex reconstructive surgeries safer and more efficient. Key Facts:  📍Smarter Planning: AI helps surgeons identify tiny blood vessels (perforators) more quickly and accurately using imaging, reducing planning time significantly. It can also predict risks for patients and simulate surgical outcomes, improving patient understanding and consent. 📍Real-time Guidance: During surgery, AI-powered augmented reality (AR) can overlay crucial information onto the surgical field, like cutting guides for bone, improving precision and potentially reducing the need for expensive custom tools. AI also helps assess tissue health by analysing blood flow in real-time. 📍Post-Op Monitoring: After surgery, AI-driven smartphone apps can continuously monitor free flaps for signs of complications, detecting issues like insufficient blood flow with high accuracy (over 90% sensitivity) even before they're obvious to the human eye. 📍Future Potential: While more large-scale studies are needed, AI is set to redefine surgical procedures, making them safer, more precise, and more effective for patients. By MDPI https://lnkd.in/diq7b3sq Implication: This integration of AI into microsurgery represents a major step toward data-driven, precision surgery—enhancing outcomes, reducing complications, and laying the groundwork for a new standard of surgical care. #Microsurgery #AIinHealthcare #MedicalInnovation #SurgicalTech #HealthcareTechnology

AI in the OR is cutting costs—and complications. Here's how! Surgeons partnered with AI algorithms see 32% fewer complications during complex procedures. Every case without complications means one less extended hospital stay. Consider the financial impact. A single avoided complication saves hospitals approximately $8,300 per patient. Multiply this across thousands of procedures annually and the numbers become significant. Beyond cost savings, AI-assisted tools enhance surgical precision. They provide real-time feedback on instrument positioning, tissue identification, and critical decision points during procedures. Efficiency increases as well. Operating rooms utilizing AI systems report 18% faster turnover times between cases. This translates to more procedures performed daily without sacrificing quality or safety. Patient recovery accelerates with AI-optimized surgical approaches. Data shows an average reduction in hospital stays by 1.4 days when AI tools assist in surgical planning and execution. Medical device companies recognize this shift. Those integrating AI capabilities into their surgical tools gain market advantage as adoption increases across healthcare systems. For surgeons and OR staff, the learning curve proves worthwhile. Initial training investment yields consistent improvements in outcomes, ultimately reducing workload through fewer complications. Hospital administrators take note: implementing AI-assisted surgical platforms delivers return on investment typically within 14 months through combined efficiency gains and complication reductions. The future of surgery involves human expertise enhanced by artificial intelligence. Early adopters will benefit most as these systems continuously improve through machine learning from each procedure performed. Will your surgical team embrace AI tools to improve patient outcomes while reducing costs? The technology exists today, waiting only for implementation.

🧠 A robot just performed part of a gallbladder removal surgery... by itself. No human hand guiding it. No joystick. Just voice commands, surgical videos, and machine learning. And it nailed it. It identified arteries. Clipped ducts. Cut tissue with precision. All while adapting on the fly—like a seasoned surgeon in an ER, not a pre-programmed machine. This isn’t sci-fi. This is a real advancement from Johns Hopkins. And the craziest part? It was trained exactly like a human medical student—by watching hours of surgical footage and listening to verbal feedback. We're entering an era where AI won't just assist doctors... it might become the doctor. ➡️ This changes everything: Medical training Operating room dynamics Emergency response Liability and ethics The future of surgical care We just crossed a threshold—and there’s no going back. Are we ready for a world where robots not only operate... but understand surgery?

A doctor just performed surgery from 5,000 miles away — and he successfully removed a prostate tumor. In a groundbreaking medical milestone, a Chinese surgical team has successfully performed the world’s first transcontinental remote robotic prostatectomy, linking Rome to Beijing in real time. Dr. Zhang Xu, director of urology at the PLA General Hospital, operated from a surgical console in Italy, while robotic arms executed his movements on a patient over 8,000 kilometers (5,000 miles) away in China. Enabled by high-speed 5G and fiber-optic networks, the procedure showcases how telesurgery can erase borders in critical healthcare delivery. This pioneering operation not only demonstrates the power of robotic precision and real-time connectivity but also signals a future where expert surgeons can treat patients globally without physical proximity. A backup medical team in Beijing ensured patient safety during the procedure, but the successful coordination and outcome suggest that telesurgery may soon become a standard in specialized care—especially in underserved or remote areas.

An AI-guided surgical robot just completed a gallbladder removal with 100% success across eight procedures — and it did it without a human touching the controls. The system is called SRT-H, built by researchers at Johns Hopkins University and published in the journal Science Robotics. It was trained by watching 18,000 surgical demonstrations on pig cadavers, and then deployed on eight completely new ones it had never seen before. It succeeded every single time. What makes this different from every robotic surgery that came before it is adaptability. Earlier surgical robots needed specially marked tissue, pre-mapped routes, and rigid instructions — like a self-driving car that only works on roads it has already memorised. SRT-H is different. It reads the anatomy in real time, decides its next move on the fly, and when it makes a mistake, it catches and corrects itself — without being told. The robot completed all 17 surgical tasks in sequence — identifying ducts and arteries, placing clips precisely, and cutting tissue with scissors. During testing, researchers even introduced red dye to simulate bl00d, a scenario the robot had never trained on. It adapted and kept going. When it overshot a grab, it corrected. When it misidentified a tube to clip, it stopped itself. Built on the same AI architecture as ChatGPT, it also responds to spoken commands from the surgical team in real time. Full autonomy in human surgeries is still years away, and the researchers are the first to say so. But what just happened in that lab marks a line in history — the moment a robot proved it could think through surgery, not just execute it. #AI #Robot #Medicine #Surgery

Researchers at the University of California San Diego have demonstrated a new role for humanoid robots in healthcare, successfully completing two preclinical teleoperated surgeries published in Nature. Rather than replacing today's specialized surgical systems, the lightweight humanoid robots worked alongside surgeons using conventional operating rooms and standard surgical instruments. The milestone highlights a potential future where versatile humanoids expand access to surgery in rural hospitals, disaster zones, military field medicine, and other underserved environments. While significant technical and regulatory hurdles remain before human use, the study marks an important step toward integrating general-purpose humanoid robots into clinical care.

A surgeon in Bengaluru just replaced a knee using AI on a tablet. And it cut Rs 15,000-25,000 of imaging costs per case. Sakra IKOC just performed India's first AI-powered total knee replacement using the Intellijoint KNEE system. And the way it works is fundamentally different from CUVIS, Mako or ROSA. → No pre-op CT scan → No extra incisions for tracker pins → No bulky robotic arm blocking half the OT The system reads the hip's centre of rotation and key anatomical landmarks during surgery itself. So the intramedullary rod traditionally pushed through the femur is eliminated. Which means less bleeding, lower risk of fat embolism, and a much lighter surgery on the patient's body. But as someone building in orthopedic medtech, the real insight for me is this: We've always assumed that AI-precision surgery needs expensive CT imaging, large robots, and massive capital to work. This flips that assumption. When the system fits on a compact display, when pre-op imaging is eliminated, and when OT setup becomes simpler, AI-precision is no longer limited to metro hospitals with big budgets. Tier 2 hospitals can access it too. And this direction is not just one company's bet. Stryker launched its Mako RPS handheld platform in February 2026. The global industry is moving towards imageless, handheld AI navigation. India doesn't need to wait for expensive robotic setups to reach every city. The technology is already shrinking to meet us where we are. Have you seen imageless navigation being used in any hospital near you?

Another new publication from our group - "The future of robotic surgery in the age of artificial intelligence" a narrative review in Nature Reviews Urology. Led by Ludovica Cella and Jasmine Lin, this comprehensive review evaluates how AI will enhance robotic surgery, whether through automated performance assessment, virtual coach, augmented reality or autonomous surgery. Full text here: https://rdcu.be/fhANy In collaboration with Mitchell Goldenberg

The future of surgery just arrived in India and it happened across 5,000 kilometers. A surgeon in Shanghai just performed complex surgeries on patients lying in Mumbai. Not through guidance. Not through consultation. But by actually operating on them in real-time. Kokilaben Dhirubhai Ambani Hospital Mumbai has achieved what seemed impossible India's first international remote robotic surgeries. Dr. T.B. Yuvaraja, sitting at a console in China, successfully performed a radical prostatectomy and partial nephrectomy on two patients in Mumbai with millimeter-level precision How Does This Technology Actually Work? The Toumai Remote Robotic Surgery System operates through a sophisticated integration of robotics, telecommunication, and surgical expertise: The Setup: - Surgeon operates a console in Shanghai with hand and foot controls - Robotic arms positioned beside the patient in Mumbai operating theater - High-definition 3D cameras provide live visual feedback from inside the patient's body The Process: - Every movement the surgeon makes is converted into digital commands instantly - These commands travel through high-speed, low-latency fiber-optic networks - Robotic instruments replicate the surgeon's actions with millimeter-level precision - Real-time HD visuals stream back to the surgeon continuously, creating the sensation of being physically present - The entire communication loop happens in milliseconds, ensuring zero compromise on accuracy The Safety Net: - Full-time specialists and multidisciplinary teams present at Mumbai hospital - Uninterrupted connectivity with backup protocols - CDSCO approved and US FDA Study Approved platform the only robotic system globally approved for telesurgery Why This Matters for Healthcare in India This isn't just about technology it's about democratizing access to expertise . A patient in a tier-2 city can now receive surgery from the world's top specialists without traveling thousands of kilometers. Remote areas with good internet can access cutting-edge surgical care that was previously impossible. The implications extend beyond convenience: - Critical surgeries can happen faster when specialists are geographically distant - Rare expertise becomes accessible nationwide - Training and mentoring can happen in real-time during actual procedures - Emergency interventions can be performed when local expertise isn't available Developed by Shanghai MicroPort MedBot, the Toumai system represents years of engineering focused specifically on long-distance surgical intervention. Unlike robots adapted for remote use, this was designed for telesurgery from the ground up. Geography is no longer a barrier to world-class surgical care. The question now is: how quickly can we scale this across India?