Robot-assisted Nissen fundoplication with the new HUGO™ Robotic assisted system: First worldwide report with system description, docking settings and video

First worldwide surgical procedure of giant inguinoscrotal repair with the new Hugo robotic assisted system: video and docking presentation

Giant inguinoscrotal (GIS) hernias are rarely present in clinical settings and its treatment with a minimally invasive approach is often considered a challenge. In recent years, robotic surgical techniques have gained prominence in the medical field, offering advantages over traditional laparoscopic methods. The Hugo robotic system introduces a fresh paradigm by employing independent robotic arms, enhancing manoeuverability in diverse surgical contexts. The aim of this video is to evaluate the efficacy of robotic TAPP (robotic transabdominal preperitoneal) in order to treat a GIS hernia.

A multi-docking strategy for robotic LAR and deep pelvic surgery with the Hugo RAS system: experience from a tertiary referral center

INTRODUCTION

In June 2023, our institution adopted the Medtronic Hugo RAS system for colorectal procedures. This system's independent robotic arms enable personalized docking configurations. This study presents our refined multi-docking strategy for robotic low anterior resection (LAR) and deep pelvic procedures, designed to maximize the Hugo RAS system's potential in rectal surgery, and evaluates the associated learning curve.

METHODS

This retrospective analysis included 31 robotic LAR procedures performed with the Hugo RAS system using our novel multi-docking strategy. Docking times were the primary outcome. The Mann-Kendall test, Spearman's correlation, and cumulative sum (CUSUM) analysis were used to assess the learning curve and efficiency gains associated with the strategy.

RESULTS

Docking times showed a significant negative trend (p < 0.01), indicating improved efficiency with experience. CUSUM analysis confirmed a distinct learning curve, with proficiency achieved around the 15th procedure. The median docking time was 6 min, comparable to other robotic platforms after proficiency.

CONCLUSION

This study demonstrates the feasibility and effectiveness of a multi-docking strategy in robotic LAR using the Hugo RAS system. Our personalized approach, capitalizing on the system's unique features, resulted in efficient docking times and streamlined surgical workflow. This approach may be particularly beneficial for surgeons transitioning from laparoscopic to robotic surgery, facilitating a smoother adoption of the new technology. Further research is needed to validate the generalizability of these findings across different surgical settings and experience levels.

First worldwide report on rectal resections with Hugo™ surgical system: description of docking angles and tips for an effective setup

BACKGROUNDS

Rectal robotic surgery gained momentum in the last decade, but it is still associated with not-negligible costs. In order to reduce costs, recently different robotic systems have received approval for clinical use. This study aims to present the first case series of rectal resection with the novel cost-effective platform Robotic Assisted Surgery (RAS) Hugo™. Tips for effective set up of the system and detailed configuration of tilt and docking angles are also provided.

METHODS

Three cases of rectal resection with Hugo RAS™ system are reported. After the first two cases of resection with partial mesorectal excision in which surgeries were performed with the setup proposed by the vendor company, in the third case we tested a novel setup that allowed a full robotic low rectal resection performing vascular ligations, TME and colonic splenic flexure mobilization without the need of any de-docking.

RESULTS

Our first three robotic rectal resections with the Hugo RAS™ system were completed without complications with a median docking time of 12 min (range 8-15) and a median console time of 345 minutes (range 271-475). In the first two cases, hybrid robotic and laparoscopic surgeries were performed to obtain an adequate haemostasis and traction during the pelvic phase. In the third case, a full robotic TME was successfully accomplished.

CONCLUSION

Our experience demonstrates that a full robotic low rectal resection with TME with Hugo™ RAS system is feasible, safe and associated with satisfactory postoperative outcomes.

Use of HugoTM RAS in General Surgery: The First 70 Cases at a German Centre and a Systematic Review of the Literature

Introduction: The versatile open modular design of the newly introduced robotic platform HugoTM RAS is expected to allow its rapid spread in general surgery. However, the system is not yet approved for use in oesophageal and HPB-surgery and is not licensed worldwide. The aim of this work was to review the current spectrum of general surgical procedures that may be feasibly and safely performed with Hugo. Methods: We retrospectively reviewed our own series and performed a systematic review of all the published reports of general surgical procedures performed with this system in the literature. Results: Seventy patients underwent general surgery with Hugo at our institution, and another 99 patients were reported in the literature. The most common procedures were colorectal (n = 55); cholecystectomy (n = 44); repair of groin, ventral and hiatal hernias (n = 34); upper GI (n = 28); adrenalectomy (n = 6); and spleen cyst deroofing (n = 2). No device-related complications were reported. Arm collisions and technical problems were rare. The docking and console times improved in all series. The port positions and robotic arm configurations varied among authors and depended on the surgical indication, patient characteristics and surgeon's preference. Conclusions: A wide spectrum of general surgical procedures has been safely and effectively performed with the Hugo RAS, even by robotically inexperienced teams with a limited choice of instruments. Technical improvements to the system and the introduction of robotic energy devices may help Hugo evolve to a vital alternative to established robotic systems.

Robotic Heller's myotomy using the new Hugo™ RAS system: first worldwide report

BACKGROUND

Achalasia is a rare disorder of the esophagus characterized by motor dysfunction in the esophagus and relaxation failure of the lower esophageal sphincter (LES). Currently, surgical myotomy procedures are considered the standard of care. Robotic Heller's myotomy (RHM) with fundoplication has been gaining popularity due to documented advantages in the precision of myotomy as well as avoiding the potential reflux following per-oral endoscopic myotomy (POEM). To the best of our knowledge, RHM has thus far has been performed exclusively by the da Vinci surgical system. The new Hugo RAS™ system offers a unique modular design and an open console which offers better maneuverability and docking options. In this study, we present the first worldwide series of patients undergoing RHM using the new Hugo RAS™ platform. Our objective is to propose optimal operating configuration and setup to fully harness the advantages of the unique modular design of this system.

METHODS

Ten consecutive achalasia patients underwent Robotic Heller's myotomy (RHM) with the Hugo RAS™ system. We prospectively collected patient data, including demographics, comorbidities, ASA class, Eckardt scores, pre-operative manometric data, and EndoFlip parameters. Additionally, we recorded the docking and total operative times.

RESULTS

Between December 2022 and August 2023, 10 patients underwent RHM with the Hugo™ RAS system. Patients had a median age of 42.5 years, 60% were female, and mean BMI was 23.2. Fifty percent had achalasia type 2 and 50% type 1. The median pre-operative integrated relaxation pressure (IRP) was 24.9. Median docking time was 10 min and overall operative time was 129.5 min. All patients, except one with acute coronary syndrome, had an uneventful peri-operative course and were discharged on post-operative day 2.

CONCLUSION

The Hugo™ RAS system is well designed for robotic Heller myotomy. The operative and clinical results are similar to the currently used robotic system; however, the modular design of the system has some differences. These translate to better docking angles and maneuverability as well as console surgeon's ergonomics. Further experience is needed to explore the advantages of the system's modular design and function.

A narrative review of the Medtronic Hugo RAS and technical comparison with the Intuitive da Vinci robotic surgical system

Medtronic launched the Hugo Robotic-Assisted Surgery (RAS) System in 2021, offering a modular alternative to the incumbent market leader in surgical robotics, the Intuitive da Vinci (dV) surgical system. A detailed technical review of the Hugo RAS was conducted to explore the strengths and weaknesses of this new robotic surgical system. Each component of the system-vision tower, arm cart, and surgeon console-was compared against the existing dV systems. The docking process, instrumentation, and external arm movement trajectories were analyzed. The modular Hugo RAS provides the possibility of operating using up to four arm carts. It has certain design features that are unique to itself, and others that have been implemented to address the shortcomings of the dV Si. While Medtronic's first-generation robot offers distinct advantages over the older Intuitive systems, the true test of its mettle will be its performance compared to the latest dV Xi.

Evaluation status of current and emerging minimally invasive robotic surgical platforms

BACKGROUND

The rapid adoption of robotics within minimally invasive surgical specialties has also seen an explosion of new technology including multi- and single port, natural orifice transluminal endoscopic surgery (NOTES), endoluminal and "on-demand" platforms. This review aims to evaluate the validation status of current and emerging MIS robotic platforms, using the IDEAL Framework.

METHODS

A scoping review exploring robotic minimally invasive surgical devices, technology and systems in use or being developed was performed, including general surgery, gynaecology, urology and cardiothoracics. Systems operating purely outside the abdomen or thorax and endoluminal or natural orifice platforms were excluded. PubMed, Google Scholar, journal reports and information from the public domain were collected. Each company was approached via email for a virtual interview to discover more about the systems and to quality check data. The IDEAL Framework is an internationally accepted tool to evaluate novel surgical technology, consisting of four stages: idea, development/exploration, assessment, and surveillance. An IDEAL stage, synonymous with validation status in this review, was assigned by reviewing the published literature.

RESULTS

21 companies with 23 different robotic platforms were identified for data collection, 13 with national and/or international regulatory approval. Of the 17 multiport systems, 1 is fully evaluated at stage 4, 2 are stage 3, 6 stage 2b, 2 at stage 2a, 2 stage 1, and 4 at the pre-IDEAL stage 0. Of the 6 single-port systems none have been fully evaluated with 1 at stage 3, 3 at stage 1 and 2 at stage 0.

CONCLUSIONS

The majority of existing robotic platforms are currently at the preclinical to developmental and exploratory stage of evaluation. Using the IDEAL framework will ensure that emerging robotic platforms are fully evaluated with long-term data, to inform the surgical workforce and ensure patient safety.

New era of robotic surgery: first case in Spain of right hemicolectomy on Hugo RAS surgical platform

We describe the first robot-assisted right hemicolectomy performed in Spain using the new Hugo RAS (robotic-assisted surgery) (Medtronic, Minneapolis, Minnesota, USA). No conversion was registered, and no intraoperative complications or technical failures of the system were recorded. The operative time was 200 min, the docking time was 5 min and the length of the hospital stay was 8 days. We conclude that a right hemicolectomy using the Hugo RAS system is safe and feasible. Our earlier experience provides important skills for those who are starting to use this new robotic system.

Robotic inguinal hernia repair with the new Hugo RASTM system: first worldwide case series report

INTRODUCTION

Robotic-assisted surgery has been a part of surgical procedures for more than two decades. Recently new robotic platforms with a different design entered the market. The modular design with independent arms enables increased flexibility of arm docking to increase the range of motion and instrument maneuverability. We herein present the first case series of robotic inguinal hernia repair using the Hugo RAS system (Medtronic, Minneapolis, MN, USA).

MATERIAL AND METHODS

Thirteen inguinal hernia repairs were performed on ten patients. A description of the Hugo RAS system as well as the new concept of modular design is presented along with the description of the operation setup.

RESULTS

Mean docking time was 9.5 min and mean console time was 50.3 min and 74.7 min for unilateral and bilateral inguinal hernia repair, respectively. No intraoperative or postoperative complications occurred. There was one conversion to laparoscopic surgery due to a technical issue with the robot. Conclusions: The modular design of independent arms seems to enhance maneuverability of the instruments and contribute to fewer arm collisions. Further clinical data and experience with this new surgical system are necessary to understand if this new design has advantages over the standard robotic platforms.

State of the Art in Robotic Surgery with Hugo RAS System: Feasibility, Safety and Clinical Applications

Since its introduction in the early 2000s, robotic surgery has represented a significative innovation within a minimally invasive surgery approach. A variety of robotic platforms have been made available throughout the years, and the outcomes related to those platforms have been described in the literature for many types of surgeries. Medtronic's HugoTM RAS system is one of the newest robotic generations launched, but because of its recent placing on the field, comprehensive clinical data are still lacking. The aim of the present state of the art is to address the current literature concerning the use of the HugoTM RAS robot in order to report its feasibility, safety and clinical applications in different surgical branches. Two reviewers independently conducted a search on the "PubMed" electronic database, using the keywords "Hugo" and "Hugo RAS". After the initial screening of 35 results, a total of 15 articles concerning the Hugo RAS system were selected for the review, including both oncological and benign surgery. Patients' demographic and baseline data were compared including, when available, docking system times, complications and oncological outcomes in the fields of urologic, gynecologic and general surgery. With reference to urological procedures, a total of 156 robot-assisted radical prostatectomies, 10 robot-assisted partial nephrectomies, and 5 robot-assisted adrenalectomies were performed, involving a total of 171 patients. The surgical branch in which the Hugo system found its major application was urology, which was followed by gynecology and general surgery. The Hugo RAS system by Medtronic represents an innovative and safe surgical platform, with excellent perspective for the future and different clinical applications in many surgical branches. More studies are needed to validate the safety and results from this new robotic platform.

Safety and Feasibility of Cholecystectomy with the HugoTM RAS: Proof of Setup Guides and First-In-Human German Experience

Introduction

The Hugo RAS robotic platform by Medtronic was recently certified for human use in Europe. Several centers have gained initial experience with this system in urology and gynecology. However, few data about its feasibility and safety in general surgery have been published.

Methods

The first-in-human surgical procedures with the Hugo RAS in Germany were performed at our hospital in February 2023. We report our early experience with robotic cholecystectomy using this new platform. The primary aim was to test the setup guides of the manufacturer and to evaluate the safety and feasibility of Hugo RAS for this procedure.

Results

A modified setup with two 11-mm ports and two 8-mm ports without an assistant port was used in 14 consecutive cases. A 30° or a 0° camera, a bipolar grasper or a Maryland on the left arm, a monopolar scissors on the right arm, and a double-fenestrated grasper on the additional arm were mounted. Clip application and gallbladder extraction were performed by the bedside assistant through the right arm 11-mm port. There were no complications, no adverse events, and no conversions. Arm collisions were reduced through slight corrections in trocar positions.

Conclusion

Robotic-assisted cholecystectomy with the Hugo RAS was safe and feasible. The modularity of robotic arms allows individual setup modifications which may be of advantage for patients and surgeons.

New Robotic Platforms in General Surgery: What's the Current Clinical Scenario?

Background and Objectives: Robotic surgery has been widely adopted in general surgery worldwide but access to this technology is still limited to a few hospitals. With the recent introduction of new robotic platforms, several studies reported the feasibility of different surgical procedures. The aim of this systematic review is to highlight the current clinical practice with the new robotic platforms in general surgery. Materials and Methods: A grey literature search was performed on the Internet to identify the available robotic systems. A PRISMA compliant systematic review was conducted for all English articles up to 10 February 2023 searching the following databases: MEDLINE, EMBASE, and Cochrane Library. Clinical outcomes, training process, operating surgeon background, cost-analysis, and specific registries were evaluated. Results: A total of 103 studies were included for qualitative synthesis after the full-text screening. Of the fifteen robotic platforms identified, only seven were adopted in a clinical environment. Out of 4053 patients, 2819 were operated on with a new robotic device. Hepatopancreatobiliary surgery specialty performed the majority of procedures, and the most performed procedure was cholecystectomy. Globally, 109 emergency surgeries were reported. Concerning the training process, only 45 papers reported the background of the operating surgeon, and only 28 papers described the training process on the surgical platform. Only one cost-analysis compared a new robot to the existing reference. Two manufacturers promoted a specific registry to collect clinical outcomes. Conclusions: This systematic review highlights the feasibility of most surgical procedures in general surgery using the new robotic platforms. Adoption of these new devices in general surgery is constantly growing with the extension of regulatory approvals. Standardization of the training process and the assessment of skills' transferability is still lacking. Further studies are required to better understand the real clinical and economical benefit.