Skip to main content
. 2021 May 5;18:209–215. doi: 10.1016/j.jcot.2021.04.031

Table 1.

Summary of analysed literature.

Category Authors Publication year Key takeaway
Education Logishetty et al. 2019 Using education of total hip arthroplasty with an AR headset as a feasible and valuable training tool as an adjunct to expert guidance in the OR
Education Condino et al. 2018 Head mounted device is used to project and find targets on 3D printed mannequins, to improve education of total hip arthroplasty
Education Pratt et al. 2018 AR can assist accurate identification of anatomical landmarks
Education Pulijala et al. 2017 VR Surgery is highly useful for surgical trainees as a visualisation aid and for senior surgeons as a practice-based learning tool
Education Armstrong et al. 2014 Google glass device used intraoperatively to improve communication, safety and efficiency of intraoperative and clinical care
Education Ponce et al. 2014 Combining real-time AR and HUD (Google glass) in surgery enabled local surgeon to interact with remote surgeon within the local surgical field
General Orthopaedic Chytas et al. 2019 Preclinical and clinical studies of AR in orthopaedic surgery could lead to improved surgical accuracy and decreased radiation exposure
General Orthopaedic Fotouhi et al. 2019 Collaborative AR used to jointly co-localize a C-arm x-ray and a HUD has the potential to simplify hand-eye coordination for surgeons
General Orthopaedic Ewurum et al. 2018 Surgical navigation systems using AR in orthopaedic surgery may enable precise decision-making in the OR by integrating surgical planning, instrument tracking and intraoperative imaging
General Orthopaedic Gordon et al. 2018 Mixed reality and AR systems superimposing computer-generated images on a visual field could aid orthopaedic practice
General Orthopaedic Ma et al. 2018 Integral videography based AR navigation in orthopaedics can improve hand-eye coordination for surgeons and enable greater ease of operating
General Orthopaedic Smith et al. 2016 Improvements in localization, microsurgery and minimally invasive surgery have been made viable through navigational advancements
General Orthopaedic Chang et al. 2016 HUD can improve perioperative care, intraoperative communication and documentation, surgical outcome as well as surgical training
General Orthopaedic Pauly et al. 2015 R technology can support surgeons in the challenging task of understanding the spatial relationships between the anatomy, the implants and their tools
General Orthopaedic Gavaghan et al. 2012 Portable image overlay used to display information on models, patients' skin and cadaver tissue could be an alternative to monitor displays for visualisation of surgical navigation data
Pelvis Alexander et al. 2020 AR camera projecting CT results into a hip socket versus standard fluoroscopy during total hip arthroplasty showed more accurate positioning of the implant and was faster and easier to use
Pelvis Fotouhi et al. 2019 Developing spatially aware visualisations of an object in an AR environment can pave the way for improving surgical performance and visuo-motor coordination in fluoroscopy-guided surgery
Pelvis Lei et al. 2019 Superimposing an anatomical holograph of a 3D image onto a pelvic structure during total hip arthroplasty was feasibly demonstrated
Pelvis Andress et al. 2018 A head mounted device and c-arm relying on visual marker for registration is used to enable real-time AR and maintain accuracy whilst reducing radiation and procedure time
Pelvis El-Hariri et al. 2018 CT and ultrasound data of bone structure is used to generated 3D visualisation of a surgical scene via a HUD which may improve operator ergonomics, reduce fatigue and simplify hand-eye coordination
Pelvis Liu et al. 2018 Using AR assistance and an automatic registration and limb tracking system to locate and drill holes during hip surgery may provide a more natural surgical workflow and seamless computer assistance
Pelvis Ogawa et al. 2018 AR system to view an acetabular cup (reconstructed from CT) superimposed on a surgical field provided more accurate information regarding acetabular cup placement angle than the conventional method
Pelvis Oliveira et al. 2018 AR allows the surgeon to represent holographic patient-specific anatomical information and surgical instruments in the physical world
Pelvis Unberath et al. 2018 Head mounted device used to reposition c-arm with clinically acceptable accuracy can reduce radiation exposure
Pelvis Fischer et al. 2016 Comparing the performance of surgeons and their task load using three different mixed reality systems during K-wire placements showed 3D visualisation to improve accuracy and efficiency
Spine Auloge et al. 2020 AR/AI-guided percutaneous vertebroplasty appears feasible, accurate and safe and reduced radiation exposure
Spine Edstrom et al. 2020 Radiation exposure during pedicle screw placement surgery in a theatre with AR navigation and cone beam CT imaging showed significant reduction with use
Spine Saylany et al. 2020 Using a HUD to view x-rays intraoperatively can improve efficiency in surgical workflow and decrease disruption of focus
Spine Carl et al. 2019 A microscope-based AR environment was successfully implemented for spinal surgery
Spine Carl et al. 2019 Reliable microscope-based AR support is possible because of automatic registration based on intraoperative imaging
Spine Gibby et al. 2019 HUD used CT images to guide vertebroplasty in opaque lumbar models to enhance surgical navigation and visualisation
Spine Yoo et al. 2019 Both AR and VR offer significant promise in the realm of spine surgery with simulation systems requiring further development
Spine Agten et al. 2018 Augmented reality-guided facet joint injections are feasible and accurate without potentially harmful needle placement in an experimental setting
Spine U-Thainual et al. 2014 MRI-guided vertebroplasty using AR image overlay navigation in human cadavers feasibly allows accurate access and cement deposition
Spine Abe et al. 2013 AR guidance technology can become a useful assistive device during spine surgeries requiring percutaneous procedures
Spine U-Thainual et al. 2013 Needle insertion on a model using MRI-overlay system (MR-IOS) guidance allows accurate needle placement and is technically efficacious
Spine Traub et al. 2006 Trauma surgeons perform a drilling task using different visualizations of an AR system to good effect
Trauma von Ruden et al. 2019 3D and AR techniques used in trauma surgery may improve surgical complex fracture care
Trauma von de Heide et al. 2017 Camera augmented C-arm was compared with traditional C-arms showing reduction in radiation exposure whilst keeping similar surgical times
Trauma Chimenti et al. 2015 HUD use resulted in reduced operating time and radiation exposure compared to traditional techniques
Trauma Zheng et al. 2008 A 3D image is formed from c-arm data to create AR images which can be used for minimally invasive osteosynthesis
Trauma Ortega et al. 2008 HUD use resulted in significant reduction in the number of times the surgeon left the attention of the operative field and/or may have been exposed to fluoroscopy radiation