Medical Image Processing for Intuitive Navigation and Surgical Workflow Analysis

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Laboratory of Innovative Therapeutic Engineering, Medical Image Processing for Intuitive Navigation and Surgical Workflow Analysis Ryoichi Nakamura, Ph.D Laboratory of Innovative Therapeutic Engineering (), Department of Medical System Engineering, Graduate School & Faculty of Engineering

: Laboratory of Innovative Therapeutic Engineering Visualization and analysis of Intraoperative information & computer assisted surgical devices and robotics Surgical Navigation and Informatics Surgical Instruments and Robotics Surgical navigation system with Distance Sensation & real-time updated 4D ultrasound imaging Advanced therapeutic device for endoscopic surgery and tissue regeneration therapy 2D motion analysis using multiple micro sensors Synchronized control of surgical robot High dimensional analysis of heart motion Micro sensor Endoscope 2D motion & deformation analysis using endoscopic image Surgical control platform using surgical workflow analysis & trajectory analysis inside OR : Least Incision & Transformation Endoeffector Non-contact analysis system for heart motion Laboratory of Innovative Therapeutic Engineering,

Surgical Navigation Realtime-updated Navigation System with intraoperative MRI can improve removal rate of malignant tumor and survival rate (Courtesy:ABMES, Tokyo Women s Medical Univ.) Laboratory of Innovative Therapeutic Engineering,

Laboratory of Innovative Therapeutic Engineering, 千葉大学 Computer Assisted Surgery based on Intraoperative Information and Navigation Technology Image-guided Surgery by Navigation Technology Visualization of patient anatomy and surgical instruments Navigation guidance for surgical procedure Difficulties: Motion/deformation of organs Analysis of Surgery by Navigation Technology Recording the information about patient and procedure Evaluation of the performance of surgeons/device

Laboratory of Innovative Therapeutic Engineering, 千葉大学 Today's topics Computer Assisted Surgery based on Intraoperative Information and Navigation Technology Real-time updated navigation system using intraoperative 3D ultrasound for endoscopic fetal surgery and Water-filled laparo-endoscopic surgery Automatic surgical workflow analysis using navigation information

Laboratory of Innovative Therapeutic Engineering, Real-time updated navigation system using intraoperative 3D ultrasound for endoscopic fetal surgery and Water-filled laparo-endoscopic surgery

Surgical Navigation Realtime-updated Navigation System with intraoperative MRI can improve removal rate of malignant tumor and survival rate (Courtesy:ABMES, Tokyo Women's Medical Univ.) Laboratory of Innovative Therapeutic Engineering,

Surgical Navigation with Distance Sensation Provide the sensation of the distance of a given object Guidance to treatment target / collision avoidance Conventional navigation navigation with Distance Sensation (Nakamura, JJSCAS 14(2) 2012) Laboratory of Innovative Therapeutic Engineering,

Surgical Navigation with Distance Sensation Provide the sensation of the distance of a given object Guidance to treatment target / collision avoidance Distance map for guidance to treatment target (Nakamura, CARS2006) Laboratory of Innovative Therapeutic Engineering,

Laboratory of Innovative Therapeutic Engineering, Real-time updated Navigation Need for Real-time Updated Navigation for abdominal organs (movable/deformable) Surgical Navigation with intraoperative imaging Intraoperative CT/MRI 〇 High-quality, track movable organ Big equipment, Long scanning time Not applicable for high speed change Intraoperative Ultrasound 〇 High speed scanning Limitation on target (no bone, no air) Low quality

Navigation for endoscopic fetal surgery Real-time Navigation with 3D view outside endoscopic view field Ultrasound Imaging is most suitable for fetal surgery (courtesy:nichd, Innoventure-C, Hitachi Aloka Medical) Laboratory of Innovative Therapeutic Engineering,

Configuration of the navigation system Intraoperative 3D ultrasound Image Display Direct data transfer USB2.0 interface 3D/4D ultrasound (Prosound α7) Surgical instrument Position marker 3D US probe Navigation PC Data processing with GPGPU Registration Reslice Volume rendering 2D cross sections and 3D view Position sensor (Polaris) Position data Surgical instrument Laboratory of Innovative Therapeutic Engineering,

Laboratory of Innovative Therapeutic Engineering, 千葉大学 Real-time 3D Ultrasound Navigation for endoscopic fetal surgery Nakamura et al JJSCAS 2011 13(2):87-95

WaFLES Water filled Laparo-Endoscopic Surgery Replace carbon dioxide gas with isotonic liquid in laparoscopic surgery Pro Control venous bleeding by water pressure Set organs in warm condition during surgery Acquire ultrasound images Ultrasound-based Navigation System is applicable for laparoscopic surgery Laparoscopic cholecystectomy in WaFLES condition (porcine model) *Water-Filled Laparoendoscopic Surgery (WAFLES): Feasibility Study in Porcine Model Tatsuo Igarashi et al. Journal of Laparoendoscopic & Advanced Surgical Techniques Volume: 22 Issue 1, 2012 Laboratory of Innovative Therapeutic Engineering,

Real-time updated 3D ultrasound Navigation for WaFLES Experiment for real-time navigation for movable and deformable target In vivo experiment on WaFLES Model (animal) Laboratory of Innovative Therapeutic Engineering,

Laboratory of Innovative Therapeutic Engineering, Automatic surgical workflow analysis using navigation information Case1: imri-guided Glioma Surgery

Laboratory of Innovative Therapeutic Engineering, 千葉大学 Computer Assisted Surgery based on Intraoperative Information and Navigation Technology Evaluation of performance of surgeon/procedure/device Record, Analyze, Visualize By human: hard task, long time, high cost, error By new device: Do not disturb surgical procedure Demand for Automatic Recording/Analysis/Visualization Quantitative digital data for computer processing No effect on surgical procedure and environment Automatic analysis using navigation information

Process analysis system using surgical navigation 1: Visualization of Progress Rate P(t) (Aizawa, Nakamura, et al, JJSCAS 2011 13(1):25-32 ) Laboratory of Innovative Therapeutic Engineering,

Progress Rate 千葉大学 Process analysis system using surgical navigation 1: Visualization of Progress Rate P(t) 1 0.9 0.8 0.7 0.6 0.5 0.4 0.3 0.2 0.1 0 0 0.2 0.4 0.6 0.8 1 Time(normalized) (Aizawa, Nakamura, et al, JJSCAS 2011 13(1):25-32 ) Laboratory of Innovative Therapeutic Engineering,

摘出進捗度 : P(t)[%] イベント自動検出結果 : I(t) 千葉大学 Process analysis system using surgical navigation 2: Automatic detection of intraoperative events 100 4 80 60 40 20 3 2 1 0 0 5 10 15 20 25 30 35 40 45 時間 :t[min] 0 (Aizawa, Nakamura, et al, JJSCAS 2011 13(1):25-32 ) Laboratory of Innovative Therapeutic Engineering,

Process analysis system using surgical navigation 3: Automatic detection of stage of procedure S3 Patient 1 S2 S1 0 5 10 15 20 25 30 35 40 45 50 時間 Time[min] :t[m in ] Actual phase : 実際の摘出工程 : 推定結果 Estimated Phase (Aizawa, Nakamura, et al, JJSCAS 2011 13(1):25-32 ) Laboratory of Innovative Therapeutic Engineering,

Process analysis system using surgical navigation 4: Prediction of the end time of treatment (Aizawa, Nakamura, et al, JJSCAS 2011 13(1):25-32 ) Laboratory of Innovative Therapeutic Engineering,

Automatic surgical workflow analysis using navigation information Case2: Laparoscopic cholecystectomy (Sugino, JSES2012) Laboratory of Innovative Therapeutic Engineering,

Workflow of laparoscopic cholecystectomy Dissecting forceps Clip applier gallbladder Start Cystic artery Stage1 Stage2 Stage Stage1 Stage2 Stage3 Stage4 Operation Dissection of Cystic duct or artery Clipping of Cystic duct or artery Cutting clipped duct/artery, dissection the rest of them Clipping of the duct/artery Tools Scissors, dissecting forceps Clip applier Scissors, dissecting forceps Clip applier Stage5 Cutting clipped duct/artery, dissection of gallbladder Scissors, dissecting forceps Laboratory of Innovative Therapeutic Engineering,

Workflow of laparoscopic cholecystectomy Dissection foreps Clip applier Scissors Cystic duct Stage3 Stage4 Gallbladder Stage5 Stage Stage1 Stage2 Stage3 Stage4 Operation Dissection of Cystic duct or artery Clipping of Cystic duct or artery Cutting clipped duct/artery, dissection the rest of them Clipping of the duct/artrey Tools Scissors, dissection forceps Clip applier Scissors, dissection forceps Clip applier Stage5 Cutting clipped duct/artery, dissection of gallbladder Scissors, dissection forceps Laboratory of Innovative Therapeutic Engineering,

Laboratory of Innovative Therapeutic Engineering, Automatic Assessment of Task Progress on Each Stage Step1 Segmentation Step2 Task analysis Organ Model Segmentation of task target region Segmented region Contact with Instrument region by instrument = Task Completed Step3 Progress Rate Progress rate of Stage N (N=1,3,5) P N (t)[%] = Task Completed Volume/Total Volume 100

Laboratory of Innovative Therapeutic Engineering, 千葉大学 Automatic Analysis of Procedure Distribution Step1 3D 2D Distribution Liver Location log Projection Step2 Distribution Analysis Projected Location Log 2D Distribution Location log Assessment of Distribution Size

Result: Procedure time on each stage Comparison with several cases by one surgeon Find some incident from the change of procedure time Frequent change of instruments Trouble on clip applier Misfire of clip and retry Procedure time on each stage by one surgeon (N=5) Stage 1 Stage2 Stage3 Stage4 Stage5 Total Dissecting Clipping Cut/Dissecting Clipping Gal bladder duct/vein duct/vein remobal Laboratory of Innovative Therapeutic Engineering,

Result: Task Progress Assessment Difference between surgeons Progress rate data shows the difference of ability/method/environment Surgeon A, Surgeon B Stage5(Removal of Galbladder) Stage5(Removal of Galbladder) Laboratory of Innovative Therapeutic Engineering,

Result: Task Distribution Assessment Comparison with the size of distribution Short procedure time in small size case Distribution may reflect the task efficiency 面積の平均値 Distribution Size and Task Time on Stage 1 Laboratory of Innovative Therapeutic Engineering,

Summary Navigation system in next generation is Precision guidance system for surgeon with real-time updated information of target condition Need for high-speed and portable Intraoperative imaging Intraoperative processing Laboratory of Innovative Therapeutic Engineering,

Laboratory of Innovative Therapeutic Engineering, Summary Navigation system in next generation is Digital recorder/analyzer for surgical procedure Automatic recording and computing in OR Protect individual personal information Future Application Digital Reference Data: General procedure of surgery Quantitative evaluation of performance

http://lite.tms.chiba-u.jp/ Laboratory of Innovative Therapeutic Engineering, Department of Medical System Engineering, Graduate School & Faculty of Engineering Laboratory of Innovative Therapeutic Engineering,