Skip to main content
. 2020 Mar 16;11(1):e81–e96. doi: 10.36834/cmej.61705

Table 3.

Augmented reality applications in surgery

Augmented reality application Sample size Purpose Outcome
ProMIS Augmented Reality Laparoscopic Simulator (Haptica, Dublin, Ireland) 55 Laparoscopic skills Realism considered good to excellent by all participants, mixed evaluations of didactic value27
18 Suturing Significant improvement in knot scores following training with the simulator29
15 Laparoscopic skills Improvement in task completion with greater efficiency32
46 Laparoscopic skills Significant correlation between experience and performance30
24 Suturing Experienced participants had higher performance scores than novice participants28
35 Laparoscopic colectomy Simulator model rated as easier than cadaver model26
115 Laparoscopic skills Experience levels correlated strongly with simulation scores31
ImmersiveTouch System (ImmersiveTouch, Inc., University of Illinois, Chicago, IL, USA) 16 Ventriculostomy AR group more likely to succeed on first attempt. Residents praised the simulator for its realism34
51 Thoracic pedicle screw placement Non-significant reduction of failure rate in screw placement33
ARToolKit (ARToolWorks Inc., Seattle, WA, USA) 10 Echocardiography Trainees were able to successfully perform an ECG test59
Vuzix 920AR goggles (Vuzix Corp., Rochester, NY, USA) 21 Tumor resection planning Improved non-clinicians’ performance and significantly improved time to task completion for clinicians60
System for Telementoring with Augmented Reality (STAR) [Purdue University, West Lafarette, IN, USA] 20 Surgical telementoring Less placement errors and fewer focus shifts, but took more time for each task61
Brother AiRScouter WD-200B AR glasses (Brother International Corp., Bridgewater, NJ, USA) 32 Central line insertion No difference in median total procedure time between AR and control groups62
EyeSi augmented reality binocular indirect ophthalmoscopy simulator (VYmagic Holding AG, Mannheim, Germany) 28 Binocular indirect ophthalmoscopy (BIO) AR group demonstrated superior total scores and performance35
37 BIO More correct sketched vessels and higher Ophthalmoscopy Training Score for AR group36
Hand-on Surgical Training (HoST) urethrovesical anastomosis (UVA) AR module (Roswell Park Cancer Institute and the State University of New York at Buffalo Virtual Reality Laboratory, New York, NY, USA) 52 UVA HoST group outperformed control group on multiple measures while having lower temporal demand and mental fatigue63
Google Glass (Google Inc., Mountain View, CA, USA) 30 Inflatable penile prosthesis placement 81% of participants recommended implementation of application into training program; 93% felt Google Glass has a place in the operating room64
Unspecified prototype AR simulator 60 Ultrasound-guided needle placement Majority positive responses for usability and training feasibility65
Epson Moverio BT-200 Smart Glasses (Epson America, Inc., Long Beach, CA, USA) 40 Central line insertion Participants reported that simulation was realistic, easy to use and useful for training; 59.3% responded that AR was better than other training methods66
MicronTracker2 (Claron Technologies, Toronto, ON, Canada) 10 Spinal needle insertion Overall positive responses to the system by trainees67
Augmented reality telementoring (ART) platform (University of Nevada School of Medicine, Las Vegas, NV, USA) 18 Surgical telementoring After training, ART group was faster and had fewer failed attempts68
Microsoft Hololens (Microsoft Corp., Redmond, WA, USA) 24 Surgical telementoring Mixed feedback on Hololens versus full telemedicine setup, no statistical difference in performance69
Fundamentals of Laparoscopic Surgery (FLS) module (Society of American Gastrointestinal and Endoscopic Surgeons, Los Angeles, CA, USA) 20 Standard peg transfer Participants preferred using the timed overlay over no feedback; no difference in time to task completion or muscle fatigue70