Global Bio & Investment Monthly’s Post

MMI successfully trials the Symani surgical robot in neurosurgery, demonstrating its potential to enhance precision, reduce surgical risks, and improve outcomes in complex procedures. The Symani robot allows for highly accurate and minimally invasive techniques, potentially revolutionizing neurosurgical methods and significantly improving patient recovery and care. This advancement highlights the growing role of robotics in advancing medical technology and surgical precision. #Neurosurgery #SurgicalRobotics #HealthcareInnovation #MMI #MedicalTechnology #PatientCare #GlobalData #Surgery #Healthcare #MedicalAdvancements

ROBOTIC SURGERY 🎙 Podcast Episode! Yes, we cover every topic! This week join us for a fascinating look into the world of robotic surgery with renowned urologist and robotic surgery pioneer, Dr. Michael D. Stifelman. Recognized by Castle Connolly’s New York Top Doctors, America’s Top Doctors, and Top Doctors for Cancer, as well as in the annual “Top Doctors” issue of New York Magazine for the past 10 years. Learn about the revolutionary developments in this field, the impact across medical disciplines, and the future of this technology. It's impressive! It's a great episode with laughs, a crash course in robotic surgery, AND info on his Nov 2nd drumming gig with our violin-playing co-host Rachel Martens - Docs that Rock Benefit Concert! Who is Dr. Michael D. Stifelman? Kind of a big deal. He is the Chair of Urology at Hackensack University Medical Center and Director of Robotic Surgery at Hackensack Meridian Health. His extensive career includes over 4,000 robotic procedures and multiple minimally invasive surgical innovations. Dr. Stifelman’s global influence as an invited lecturer and active role in professional organizations underscore his expertise in urology and surgical advancements. And he is funny, and a drummer. 🌟 Grab ☕️ and tune in at https://lnkd.in/ebATkbf9 What’s in store: 🥁 Docs that Rock 🎶 Studied Whales 🩺 Urology Surgeons Humor 🤖 What is Robotic Surgery 🦾 Short Recovery Time 💻 AI in Robotic Surgery Sending healthy vibes! #newjersey #hackensacknj #roboticsurgery #prostatecancer #urologysurgery #nj #podcast #health #medical #healthprofessionals #topdoctors #docsthatrock #cancer #urology #medicalpodcast #ai #robotics #artificialintelligence #medicalschool

🌟 Exciting Innovation in #Medtech! 🌟 I'm thrilled to share this groundbreaking advancement in medical technology: doctors can now observe spinal cord activity during surgery using fUSI (functional ultrasound imaging). This incredible technology not only allows real-time visualization of spinal cord functions but also enables mapping of reactions to treatments. It's a breakthrough for surgical precision and patient care. Check out the full article to learn more about how fUSI is revolutionizing the field of neurosurgery and improving outcomes for patients: https://lnkd.in/dWzRCB9m

In a groundbreaking surgery at the oldest hospital in America, a new frontier in healthcare was unveiled. Jeffrey Keefer, a Parkinson’s patient, volunteered to have an experimental brain-computer interface (BCI) temporarily implanted during a routine deep brain stimulation surgery. Developed by Precision Neuroscience, this BCI aims to translate brain signals into digital commands, potentially giving paralyzed patients the ability to operate computers with their thoughts. During the procedure, Keefer's brain signals were matched to hand movements, and he even played a game of "Rock, Paper, Scissors" using just his thoughts. The significance of BCIs lies in their ability to provide a digital bypass for disrupted electrical signals in the brain due to paralysis. With an estimated 400,000 severely impaired patients today and 30,000 new patients each year, BCIs could offer a lifeline, restoring a measure of independence. While Precision Neuroscience is making strides with its Layer 7 Cortical Interface, they're not alone in this race. Elon Musk's Neuralink recently introduced its first human implant, showcasing the competitive landscape and the immense potential of this technology. Differences in approach are evident, with Precision opting for surface electrodes that can be implanted and removed without damaging brain tissue, while Neuralink's design involves threading electrodes into brain tissues. Both companies, along with Blackrock Neurotech, Paradromics, and Synchron, are striving to bring BCIs out of the lab and into commercial markets. Precision is taking a phased approach, aiming for a wired BCI version to function as a high-resolution brain-mapping tool by next year. Their ultimate goal? To receive FDA approval for a permanent wireless device by 2028, targeting the paralysis market, which they estimate to be worth billions in the U.S. While the path ahead is challenging, with questions surrounding reimbursement and market readiness, the potential impact of BCIs on patient lives is undeniable. As Brigit Kyei-Baffour, a healthcare consultant, notes, the door isn't closed on this innovation. The future of healthcare might just be a thought away. Darin W. White

📃Scientific paper: How I do it — asleep DBS placement for Parkinson’s disease Abstract: Background Traditionally, functional neurosurgery relied in stereotactic atlases and intraoperative micro-registration in awake patients for electrode placement in Parkinson’s disease. Cumulative experience on target description, refinement of MRI, and advances in intraoperative imaging has enabled accurate preoperative planning and its implementation with the patient under general anaesthesia. Methods Stepwise description, emphasising preoperative planning, and intraoperative imaging verification, for transition to asleep-DBS surgery. Conclusion Direct targeting relies on MRI anatomic landmarks and accounts for interpersonal variability. Indeed, the asleep procedure precludes patient distress. A particular complication to avoid is pneumocephalus; it can lead to brain-shift and potential deviation of electrode trajectory. Discover the rest of the scientific article on es/iode ➡️https://etcse.fr/RON

"My HUB Experience" - by Vladimir Yutkin, MD, Head of the Uro-Oncology Unit at Hadassah University Medical Center. "Last April, I performed a first-of-its-kind procedure in Israel — a robotic repair of ureteral stricture using a buccal mucosa graft. It was a complex operation, but what struck me was how easily I could share this breakthrough with my colleagues. Thanks to the HUB system on the da Vinci robot, I had a high-quality recording of the entire procedure ready within minutes of finishing. I have prepared it for presentation at a national urology conference, and I'm excited about the potential interest and discussions it may spark about this innovative technique. This experience highlighted the remarkable advancements in robotic surgery. As head of Uro-Oncology at Hadassah, I frequently use robotic systems like da Vinci. The HUB is not just about recording surgeries — it opens new avenues for learning and improvement. We can now review operations in detail after the fact, catching nuances we might have missed. Even after that surgery which took two hours, the video was ready almost immediately. This quick turnaround allows for immediate debriefing and analysis, which is crucial in our fast-paced field. It's making knowledge sharing easier than ever, whether it's in our department meetings or at international conferences. As we continue to push the boundaries of robotic surgery, tools like the HUB system are proving essential in disseminating new techniques and advancing our field as a whole." #Intuitive #Israelhealth #HUBsystem #DaVinciRobot #Urology #RoboticSurgery

Meet the Mentors! The Brady-Vattikuti Robotic Academy Hands-On Masterclass features Program Director Dr. Ahmed Ghazi of Brady Urological Institute at Johns Hopkins. He is the Director of Surgical Simulation Training and the Minimally Invasive and Robotic Surgery Division. Dr. Ghazi is a pioneer in the field of patient-specific surgical simulation, improving training future surgeons as well as patient outcomes. Dr. Ghazi constructs 3D models of the specific patient’s anatomy to plan and rehearse surgery before the actual surgery. This is the exact experience the participants will learn at the masterclass this week. Click here for more information on the masterclass: https://lnkd.in/dQf3B8V6 Ahmed Ghazi Jihad Kaouk, MD FACS, FRCS (G) Case Western Reserve University School of Medicine Cleveland Clinic Sammy Elsamra Rutgers Robert Wood Johnson Medical School Robert Wood Johnson University Hospital Brady Urological Institute and Department of Urology at Johns Hopkins The Johns Hopkins University Johns Hopkins Brady Urological Institute Johns Hopkins Medicine  Louis Kavoussi Raj Vattikuti Mahendra Bhandari #VattikutiFoundation #roboticsurgery #robotics #urology #RadicalProstatectomy #Prostatectomy #PartialNephrectomy #Nephrectomy #healthtech #surgeons #surgeon #healthcare #medicalinnovation

Revolutionary Microdisplay for Brain Surgery... Discover how a new flexible microdisplay combines electrodes and LEDs to monitor and visualize brain activity in real-time during surgery. This breakthrough device can help neurosurgeons precisely map and target areas of the brain, enhancing the safety and effectiveness of procedures. Cutting-edge innovation that could transform neurosurgery! More in this article here - https://lnkd.in/dbWWY8su Team led by Shadi Dayeh @ UC San Diego Jacobs School of Engineering

📃Scientific paper: How I do it — asleep DBS placement for Parkinson’s disease Abstract: Background Traditionally, functional neurosurgery relied in stereotactic atlases and intraoperative micro-registration in awake patients for electrode placement in Parkinson’s disease. Cumulative experience on target description, refinement of MRI, and advances in intraoperative imaging has enabled accurate preoperative planning and its implementation with the patient under general anaesthesia. Methods Stepwise description, emphasising preoperative planning, and intraoperative imaging verification, for transition to asleep-DBS surgery. Conclusion Direct targeting relies on MRI anatomic landmarks and accounts for interpersonal variability. Indeed, the asleep procedure precludes patient distress. A particular complication to avoid is pneumocephalus; it can lead to brain-shift and potential deviation of electrode trajectory. Continued on ES/IODE ➡️ https://etcse.fr/RON ------- If you find this interesting, feel free to follow, comment and share. We need your help to enhance our visibility, so that our platform continues to serve you.

📃Scientific paper: How I do it — asleep DBS placement for Parkinson’s disease Abstract: Background Traditionally, functional neurosurgery relied in stereotactic atlases and intraoperative micro-registration in awake patients for electrode placement in Parkinson’s disease. Cumulative experience on target description, refinement of MRI, and advances in intraoperative imaging has enabled accurate preoperative planning and its implementation with the patient under general anaesthesia. Methods Stepwise description, emphasising preoperative planning, and intraoperative imaging verification, for transition to asleep-DBS surgery. Conclusion Direct targeting relies on MRI anatomic landmarks and accounts for interpersonal variability. Indeed, the asleep procedure precludes patient distress. A particular complication to avoid is pneumocephalus; it can lead to brain-shift and potential deviation of electrode trajectory. Continued on ES/IODE ➡️ https://etcse.fr/RON ------- If you find this interesting, feel free to follow, comment and share. We need your help to enhance our visibility, so that our platform continues to serve you.