TALK KEYWORD INDEX
This page contains an index consisting of author-provided keywords.
| ' | |
| 'Augmented reality' | |
| 'navigation' | |
| 'Total Knee Arthroplasty' | |
| 2 | |
| 2D–3D reconstruction | |
| 3 | |
| 3D CT reconstruction | |
| 3D framework | |
| 3D geometric analysis | |
| 3D printing | |
| 3D reconstruction | |
| 3D soft analysis | |
| 3D surgical planning | |
| 3D technology | |
| 3D-Printer | |
| 3D-printing | |
| 3DCT based simulation for trauma | |
| A | |
| a 32-mm glenosphere | |
| a three-dimensional printed bone model | |
| accuracy | |
| Accuracy and precision | |
| Acetabular cup placement | |
| Acetabular cup placement accuracy | |
| Acetabular morphology | |
| Acetabular Reconstruction | |
| achieved margins | |
| Achilles tendon graft | |
| additive manufacturing | |
| Additive manufacturing (3D printing) | |
| Age-Related Changes | |
| AI image | |
| AI-based patient-specific muscle segmentation | |
| alignment | |
| Alignment phenotypes | |
| ALL IN ONE SOLUTION | |
| Anatomy-driven modeling | |
| ankylosed hip | |
| anterior knee pain | |
| anterior overhang | |
| Anterolateral supine approach | |
| AR CT-based navigation | |
| ARCO | |
| arthroplasty | |
| Articular surface | |
| artificial intelligence | |
| artificial intelligence (AI) | |
| atolantoaxial joint | |
| aTSA | |
| Augmented Implants | |
| Augmented reality | |
| Augmented Reality navigation | |
| augmented reality technology | |
| Automatic Bones Segmentation | |
| B | |
| Bi-cruciate stabilized | |
| Bicompartmental knee arthroplasty | |
| bilateral contralateral laminoplasty | |
| Bilateral symmetry | |
| bioelectrical impedance analysis | |
| biomechanical study | |
| Biomechanical testing | |
| bone alignment correction | |
| Bone Cut Angle | |
| bone defects | |
| bone mineral density | |
| bone mineral density (BMD) | |
| bone model | |
| Bone tumor | |
| Bone tumor surgery | |
| Bone Union Propensity | |
| C | |
| CAD | |
| Cadaveric study | |
| Cam osteochondroplasty | |
| canal filled ratio | |
| Capitellar osteochondritis dissecans | |
| Carpal bones | |
| case report | |
| cervical pedicle screw | |
| cervical radiculopathy | |
| Classification framework | |
| Clinical feasibility | |
| clinical outcome | |
| Clinical outcomes | |
| Collaborative robot | |
| Collapse Risk Prediction | |
| Computational Biomechanics | |
| Computed tomography | |
| computed tomography-based navigation | |
| Computer simulation | |
| computer-aided design | |
| computer-assisted equipment | |
| Computer-assisted orthopedic surgery | |
| Computer-assisted surgery | |
| confidence | |
| continuous gap | |
| Conversion Total Hip Arthroplasty | |
| coordinate system | |
| Corrective osteotomy | |
| Cortical Bone Thickness | |
| craniomaxillofacial | |
| Cruciate-retaining total knee arthroplasty | |
| CT | |
| CT based navigation system | |
| CT image | |
| CT-based assessment | |
| CT-based navigation | |
| CT-based navigation system | |
| CT-to-X-ray registration | |
| cup coverage | |
| Cup placement accuracy | |
| cup position | |
| Curved varus osteotomy | |
| custom implants | |
| customized brace | |
| CUSUM | |
| Cut Digitization | |
| Cutting guide | |
| CVO | |
| D | |
| Deep learning | |
| Depth map estimation | |
| Depth-Accurate Augmented Reality Navigation | |
| Depth-Controlled Stereoscopic Imaging | |
| Developmental dysplasia of the hip | |
| Digital Twin | |
| Direct Superior Approach | |
| Distal tibia fracture | |
| Dixon MRI | |
| Drill Guidance | |
| Drill positioning | |
| DXA | |
| Dynamic hip–knee–ankle alignment | |
| E | |
| enhanced workflow | |
| express workflow | |
| F | |
| femoral antetorsion | |
| Femoral component rotation | |
| Femoral mechanical axis | |
| Femoral morphology | |
| femoral stem alignment | |
| Femur | |
| Finite Element Analysis | |
| Finite element modeling (FEM) | |
| flexed insertion | |
| Fluoroscopy | |
| foot | |
| forearm | |
| Forearm kinematics | |
| full-endoscopic cervical foraminotomy | |
| full-endoscopic spine surgery | |
| Functional alignment | |
| Functional alingnment | |
| Functional recovery | |
| G | |
| gait analysis | |
| Gait biomechanics | |
| Gait parameters | |
| generative adversarial network (GAN) | |
| Generative AI | |
| Geometric Analysis | |
| Glenoid pin placement | |
| glenosphere offset | |
| glenosphere size | |
| Guidewire Placement | |
| H | |
| Hallux valgus | |
| Handheld robotic system | |
| High tibial osteotomy | |
| highly porous cup | |
| Hip | |
| hip arthroplasty | |
| Hip arthroscopy | |
| Hip osteoarthritis | |
| hip parameters | |
| Hip preservation surgery | |
| hologram | |
| Human donor study | |
| I | |
| Iliopsoas impingement | |
| Image segmentation | |
| Image-Guided Surgery | |
| Imageless robotic TKA | |
| impingement | |
| implant alignment | |
| Implant placement accuracy | |
| Implant positioning accuracy | |
| In hospital workflow | |
| Intact ratio | |
| Inter-observer reliability | |
| intertrochanteric femoral fracture | |
| Intra-articular distractor | |
| Intra-observer repeatability | |
| Intramedullary nailing (IMN) | |
| Intramedullary pinning | |
| Intraoperative alignment | |
| Intraoperative fluoroscopy | |
| intraoperative navigation | |
| Intraoperative navigation systems | |
| J | |
| Japanese population | |
| JIC | |
| Joint-sparing reconstruction | |
| K | |
| Kinematic alignment | |
| Kinematics | |
| kinetics | |
| knee | |
| Knee arthroscopy | |
| KNEE BALANCE | |
| Knee kinematics | |
| knee morphology | |
| Knee osteoarthritis | |
| Kneeling | |
| L | |
| Laminectomy | |
| Lapidus surgery | |
| Large bone reconstruction | |
| large language models | |
| Lateral Pivot | |
| laxity | |
| Learning curve | |
| Limb reconstruction | |
| Long Bone Fracture Reduction | |
| lower trapezius transfer | |
| lumbar spinal stenosis | |
| M | |
| Mako | |
| Mandibular Reconstruction | |
| Markerless motion capture | |
| Measured resection | |
| measurements | |
| Mechanical alignment | |
| medial joint opening | |
| Medial Pivot | |
| Medially Stabilized Implants | |
| Medical image registration | |
| Mesh-to-NURBS | |
| Metrics | |
| mid-flexion | |
| Mini-Plate-Based-Fixation | |
| minimally Invasive | |
| Minimally invasive surgery | |
| misplacement | |
| mixed reality | |
| Model Predictive Control | |
| Model study | |
| Morphological remodeling | |
| MR imaging | |
| MRI | |
| multibody simulation | |
| Muscle atrophy | |
| muscle fat infiltration | |
| Muscle fatty degeneration | |
| Muscle quality | |
| Muscle volume | |
| muscle volume estimation | |
| Musculoskeletal Model | |
| muskuloskeleta disease | |
| Myosteatosis | |
| N | |
| Navbit Sprint | |
| Navigation | |
| Navigation system | |
| Navigation-assisted THA | |
| NDI navigation | |
| Neural Radiance Fields | |
| Novel design | |
| O | |
| O-arm navigation | |
| O-arm navigation system | |
| obturator externus | |
| Omnidirectional Video | |
| ONFH | |
| open-wedge high tibial osteotomy (owHTO) | |
| Operating room workflow | |
| Opioid Consumption | |
| Optical Tracking | |
| Oral Function | |
| Oral hypofunction | |
| orthopedic oncology | |
| Osteogenesis imperfecta | |
| Osteonecrosis of the Femoral Head | |
| Osteoporosis | |
| osteosclerosis | |
| osteotomy | |
| Osteotomy accuracy | |
| P | |
| Pain catastrophizing | |
| Parallel Motion | |
| patellofemoral alignment | |
| Patient reported pain | |
| Patient satisfaction | |
| Patient specific guides | |
| Patient specific implants | |
| Patient-specific guide | |
| Patient-specific implants (PSI) | |
| Patient-specific instruments (PSI) | |
| Patient-Specific Modeling | |
| patient-specific positioning | |
| Patient-specific surgical guides | |
| Patient-specific surgical instruments | |
| pedicle screw augmentation | |
| Periprosthetic Fracture | |
| Personalized alignment | |
| Phenotype preservation | |
| physical activity | |
| Physical AI | |
| Planar Probe | |
| plantar pressure | |
| PMMA | |
| portable navigation | |
| pose normalization | |
| Posterior cruciate ligament | |
| Posterior tibial slope | |
| preoperative planning | |
| Preoperative three-dimensional planning | |
| Pressure-dispersion pad | |
| PRIMARY TOTAL KNEE ARTHROPLASTY | |
| principal component analysis (PCA) | |
| Process efficiency | |
| Pronation-supination | |
| Proteomics | |
| proximal femoral axis | |
| Proximal femoral fracture | |
| PSI | |
| psoas syndrome | |
| Q | |
| QCT | |
| R | |
| Radar chart method | |
| Radiocapitellar biomechanics | |
| radiography | |
| radiological outcome | |
| range of motion | |
| range of motion simulation | |
| RCT | |
| real-time communication | |
| Registration | |
| reproducibility | |
| Restricted Kinematic Alignment | |
| Retinal Projection | |
| reverse shoulder arthroplasty | |
| Reverse Total Shoulder Arthroplasty | |
| REvision surgery | |
| Revision TKA | |
| Revision Total Hip Arthroplasty | |
| Robot-assisted THA | |
| Robotic surgery | |
| Robotic-arm assisted | |
| Robotic-assisted surgery | |
| Robotic-assisted total knee arthroplasty | |
| Robotics | |
| robot-assisted surgery | |
| ROSA | |
| Rotational acetabular osteotomy | |
| Rotational Alignment | |
| Rotational mismatch | |
| rotator cuff | |
| rTSA | |
| S | |
| Sacral canal | |
| Sacroiliac joint dysfunction | |
| Sacrum | |
| safe zone | |
| sagittal alignment | |
| sarcoma | |
| sarcopenia | |
| Scaphoid Fracture | |
| Scapulohumeral Rhythm | |
| Scapulothoracic Joint | |
| Schatzker IV tibial plateau fracture | |
| screw length | |
| Segmental bone defects | |
| segmentation | |
| semitendinosus tendon graft | |
| severe deformity | |
| Severity Classification | |
| Sex-specific anatomy | |
| shape model | |
| shape prediction | |
| shape reconstruction | |
| shoulder | |
| side-to-side difference | |
| Simulation study | |
| Single-view radiograph | |
| skeletal muscle | |
| Skeletal muscle mass index | |
| Skin incision orientation | |
| Sleeve | |
| soft tissue balance | |
| Soft-tissue balancing | |
| Soft-Tissue Sarcoma | |
| spinal fusion | |
| Spinal Orthoses | |
| spine surgery | |
| splint design | |
| standardisation | |
| Statistical pose model | |
| statistical shape model | |
| statistical shape modelling | |
| Steinberg | |
| stem anteversion | |
| Stem Bypass Length | |
| streamlined cemented dual-mobility cup | |
| Stress Concentration | |
| Subchondral bone density | |
| Supine position | |
| Surgical navigation | |
| Surgical Planning | |
| Surgical Training System | |
| Systemic valgus bias | |
| T | |
| targeted FE model | |
| tendon transfer | |
| THA | |
| the theoretical plane to place the implant | |
| Three-dimensional computed tomography | |
| Three-dimensional CT | |
| Three-dimensional evaluation | |
| Three-dimensional evaluation of implant placement accuracy | |
| Three-dimensional printing | |
| Tibia‑first gap balancing | |
| tibiofemoral resultant force | |
| tipping point | |
| TKA | |
| TLIF | |
| Total Ankle Arthroplasty | |
| total hip arthroplasty | |
| total hip arthroplasty (THA) | |
| Total knee arthroplasty | |
| Total knee replacement | |
| Total shoulder arthroplasty | |
| transtrochanteric rotational osteotomy | |
| Trauma Surgery | |
| trochlear hypoplasty | |
| Trochlear morphology | |
| trustworthy AI | |
| Tumor sub-segmentation | |
| U | |
| UK biobank | |
| Ultrasound | |
| uncertainty estimation | |
| Unicompartmental knee arthroplasty | |
| Unsupervised machine learning | |
| Upper Limb | |
| V | |
| validity | |
| Virtual planning | |
| Virtual surgical planning | |
| W | |
| Wireless Surgical Robotics | |
| Wrist deformity diagnosis | |
| Wrist joint | |
| ・ | |
| ・Cartilage visualization on CT | |
| ・Dual-energy CT | |
| ・Material decomposition | |