Sacroiliac joint stabilization using implants provide better fixation in females compared to males: a finite element analysis

[21] Gundanna M(2017)Lumbar-sacral destruction fixation biomechanics: a finite element study Spine J 90 801-14

[22] Leasure J(2021)Biomechanical analysis of the tuning fork plate versus dual pelvic screws in a sacrectomy model: a finite element study Glob Spine J 143 1-1183

[23] Yerby SA(2020)Mechanical environment for lower canine T-loop retraction compared to en-masse space closure with a power-arm attached to either the canine bracket or the archwire Angle Orthod 231 1171-10

[24] Kondrashov D(2021)A novel three-dimensional finite element model to simulate third body effects on fretting wear of hertzian point contact in partial slip J Tribol 3 1-610

[25] Joukar A(2017)Finite element analysis of elastohydrodynamic lubrication in an artificial hip joint under squeeze film motion using fluid-structure interaction method Proc Inst Mech Eng Part J J Eng Tribol 12 603-9

[26] Kiapour A(2020)Clinically relevant finite element technique based protocol to evaluate growing rods for early onset scoliosis correction Jor Spine 15 1-1732

[27] Elgafy H(2018)In vitro biomechanical evaluation of a novel, minimally invasive, sacroiliac joint fixation device Int J Spine Surg 28 1724-undefined

[28] Erbulut DU(2020)Comparative analysis of the lateral and posterolateral trajectories for fixation of the sacroiliac joint: a cadaveric study J Orthop Surg Res undefined undefined-undefined

[29] Agarwal AK(2020)Evaluation of iliac screw, S2 alar-iliac screw and laterally placed triangular titanium implants for sacropelvic fixation in combination with posterior lumbar instrumentation: a finite element study Eur Spine J undefined undefined-undefined

[30] Goel VK(undefined)undefined undefined undefined undefined-undefined

[21] Gundanna M(2017)Lumbar-sacral destruction fixation biomechanics: a finite element study Spine J 90 801-14

[22] Leasure J(2021)Biomechanical analysis of the tuning fork plate versus dual pelvic screws in a sacrectomy model: a finite element study Glob Spine J 143 1-1183

[23] Yerby SA(2020)Mechanical environment for lower canine T-loop retraction compared to en-masse space closure with a power-arm attached to either the canine bracket or the archwire Angle Orthod 231 1171-10

[24] Kondrashov D(2021)A novel three-dimensional finite element model to simulate third body effects on fretting wear of hertzian point contact in partial slip J Tribol 3 1-610

[25] Joukar A(2017)Finite element analysis of elastohydrodynamic lubrication in an artificial hip joint under squeeze film motion using fluid-structure interaction method Proc Inst Mech Eng Part J J Eng Tribol 12 603-9

[26] Kiapour A(2020)Clinically relevant finite element technique based protocol to evaluate growing rods for early onset scoliosis correction Jor Spine 15 1-1732

[27] Elgafy H(2018)In vitro biomechanical evaluation of a novel, minimally invasive, sacroiliac joint fixation device Int J Spine Surg 28 1724-undefined

[28] Erbulut DU(2020)Comparative analysis of the lateral and posterolateral trajectories for fixation of the sacroiliac joint: a cadaveric study J Orthop Surg Res undefined undefined-undefined

[29] Agarwal AK(2020)Evaluation of iliac screw, S2 alar-iliac screw and laterally placed triangular titanium implants for sacropelvic fixation in combination with posterior lumbar instrumentation: a finite element study Eur Spine J undefined undefined-undefined

[30] Goel VK(undefined)undefined undefined undefined undefined-undefined