TALK KEYWORD INDEX
This page contains an index consisting of author-provided keywords.
1 | |
1.finite element analysis | |
2 | |
2.total knee arthroplasty | |
3 | |
3.deformation of tibial tray | |
3D Analysis | |
3D anisotropic distance transform | |
3D computer assisted spine surgery | |
3D geometric analysis | |
3D Mesh | |
3D pose estimation | |
3D printed model | |
3D printer | |
3D printing | |
A | |
Accuracy | |
acetabular anteversion | |
acetabular bone defect | |
acetabular cup placement | |
Acetabular cup position | |
acetabular inclination | |
AI | |
alignment | |
Allograft | |
Anterior cruciate ligament reconstruction | |
Anterior knee pain | |
Anterolateral approach | |
areal bone mineral density | |
Arthroplasty | |
Artificial Intelligence | |
Augmented Reality | |
Autograft | |
B | |
biomechanics | |
Bone | |
Bone resection | |
Bone tumors | |
bone–implant interface | |
bone–implant mismatch | |
C | |
C-reactive protein | |
CAOS | |
CAS | |
CATS | |
Cemented stem | |
center of gravity | |
clinical | |
Clinical outcome prediction | |
clinical outcomes | |
Clinical practice | |
Component alignment | |
computational modelling | |
Computed tomography | |
Computer Assisted Surgery | |
Computer Navigated | |
Computer navigation | |
computer tomography | |
computer-assisted bone tumor resection surgery | |
Computer-assisted surgery | |
Convention | |
Conventional | |
Conventional TKR | |
conventional total knee arthroplasty | |
Convolutional Neural Network | |
Coronal alignment | |
Coronal Plane Alignment of the Knee (CPAK) | |
Crowe | |
cruciate-retaining total knee arthroplasty | |
CT | |
CT scans | |
CT-based navigation | |
CT-Scan | |
curved periacetabular osteotomy | |
Curved varus osteotomy | |
Custom-made implant | |
D | |
dangerous region generation | |
Database study | |
DDH | |
deep learning | |
Deep-Learning | |
Deformity | |
Developmental Dysplasia of the Hip | |
Developmental hip dysplasia | |
dislocation | |
distal femoral landmark registration | |
dysplasia | |
E | |
endothelial damage markers | |
Erythrocyte sedimentation rate | |
Extrapolation | |
F | |
femoral head coverage | |
Femoral rotation | |
Forearm X-ray | |
Functional alignment | |
Functional axial rotation | |
Functional Biomechanics | |
Functional outcome | |
G | |
Gap Balance | |
Gap balancing | |
Generative pre-trained transformer | |
Glenoid bone loss computation | |
gravity line | |
H | |
Handheld robot | |
Handheld Surgical Drilling System | |
Hemicortical resection | |
hip | |
Hip dysplasia | |
Hip instability | |
Hip osteoarthritis | |
Hip Replacement | |
hip resurfacing arthroplasty | |
hip score | |
Holograms | |
I | |
iliopsoas impingement | |
iliopsoas tendonitis | |
image analysis | |
Image matching | |
image segmentation | |
image-free navigation | |
impingement | |
Implant design | |
implant size | |
Inflammation | |
inflammation markers | |
Interleukin-6 | |
intraoperative 3D image | |
K | |
Kinematic alignment | |
KL | |
knee | |
Knee Arthroplasty | |
knee dimensions | |
Knee joint | |
Korea | |
L | |
Lateral decubitus position | |
Learning curve | |
lessons | |
Long term results | |
low-dose biplanar X-ray | |
Lower limb alignment | |
M | |
Machine learning | |
MAKO | |
Mako system | |
malalignment | |
manual localization of anatomical landmarks | |
Measured resection | |
Measurement | |
Medial proximal tibial angle | |
Minimally invasive spine surgery | |
Mixed Reality | |
Model-based computation | |
monocular | |
Motion Analysis | |
MPTA | |
muscle | |
muscle cross-sectional area | |
muscle volume | |
Musculoskeletal tumor surgery | |
N | |
Navigated Hip Arthroplasty | |
Navigated total hip arthroplasty | |
navigation | |
navigation system | |
nnU-Net | |
Non invasive device | |
Novel measurement technique | |
O | |
O arm navigation | |
O-arm navigation | |
oncology | |
Operative time | |
Orthopaedic Fixation | |
Orthopaedic Oncology | |
Orthopaedics | |
Orthopedics | |
Osteoarthritis | |
Osteonecrosis of femoral head | |
Outlier | |
over-/underhag | |
P | |
Pain | |
particle swarm optimization | |
Patellofemoral joint | |
Patellofemoral ligament | |
Patient Reported Outcome Measures | |
Pelvic Fractures | |
pelvic tilt | |
Phenotype | |
Planning | |
Planning Software | |
plasma thrombotic markers | |
Polyethylene | |
Population Study | |
portable navigation system | |
Postoperative outcome | |
Pre operative planning | |
preoperative planning | |
PSI | |
psoas syndrome | |
Q | |
quantitative CT (QCT) | |
R | |
Radial fractures | |
Radiographic parameters | |
range of motion | |
Registration | |
risk factors | |
Robot | |
Robot assisted surgery | |
Robotic | |
Robotic assisted TKR | |
Robotic assisted total knee arthroplasty | |
Robotic surgery | |
Robotic total hip arthroplasty | |
Robotic Ultrasound System | |
robotic-assisted | |
Robotic-assisted total hip arthroplasty | |
robotics | |
ROSA | |
rotational laxity | |
S | |
Scapula | |
Segmentation | |
Shoulder Arthroplasty | |
Shoulder CT scan | |
soft tissue balancing | |
Spinal surgery | |
Spinal tumor | |
Spine Surgery | |
spinopelvic sagittal alignment | |
spinopelvicmotion | |
Standing position | |
surgery | |
Surgical decision support | |
Surgical Navigation | |
Surgical outcome prediction | |
Surgical planning | |
surgical tool detection | |
surgical tool localisation | |
Surrogate Marker | |
syndesmostic instability | |
T | |
TEA | |
TEA projection | |
Technology | |
Tension | |
THA | |
thigh circumference | |
THR | |
three dimensions | |
Tibial rotation | |
Tibial tunnel placement | |
Tibiofemoral rotation | |
Tibiofemoral rotational mismatch | |
TKA | |
total hip arthroplasty | |
Total hip replacement | |
Total Knee Arthoplasty | |
Total knee arthroplasty | |
Total Knee Replacement | |
Trauma | |
tumor | |
U | |
UKA | |
Ultrasound | |
Unicompartmental knee arthroplasty | |
V | |
VisionTransformer | |
W | |
whole body sagittal alignment |