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    Personalized Biomechanical Modeling of Pathologic Fracture: CTFEA Reveals Limitations of Traditional Fracture Risk Assessment in Benign Bone Tumors

    Source: Journal of Biomechanical Engineering:;2026:;volume( 148 ):;issue:002::page 73
    Author:
    Cameron, Emily G.
    ,
    Winsor, Carla
    ,
    Laende, Elise K.
    ,
    Outerleys, Jereme B.
    ,
    Rudan, John F.
    ,
    Borschneck, Dan P.
    ,
    Ploeg, Heidi-Lynn
    DOI: 10.1115/1.4069925
    Publisher: The American Society of Mechanical Engineers (ASME)
    Abstract: Abstract. Benign bone tumors such as chondroblastoma, giant cell tumors (GCT), and aneurysmal bone cysts (ABC) are rare but clinically significant lesions that frequently occur in the epiphyseal regions of long bones, particularly near load-bearing joints in children and young adults. These tumors compromise the structural integrity of bone, leading to an elevated risk of pathologic fracture. Traditional methods for estimating fracture risk rely on simple geometric thresholds and volumetric ratios, but they fail to account for patient-specific differences in bone geometry, material heterogeneity, and physiological loading conditions. As a result, risk is often misclassified, which may lead to either overtreatment or missed prevention opportunities. To address this limitation, this study presents a preliminary demonstration of computed tomography-based finite element analysis (CTFEA) as a novel alternative method (NAM); computational framework using patient-specific CTFEA to evaluate fracture risk in four patients with benign knee tumors. Clinical computed tomography (CT) imaging and motion capture-informed joint loading were used to develop anatomically accurate, mechanically calibrated models incorporating nonlinear bone behavior. CTFEA simulations focused on walking, jogging, and partial weight-bearing conditions, captured localized stress and strain distributions, and were benchmarked against clinical and volumetric assessment criteria. CTFEA outperformed traditional methods by revealing mechanical vulnerabilities, including in cases classified as low-risk clinically, through its ability to simulate individualized loading scenarios. These findings demonstrate the feasibility and potential of CTFEA as a noninvasive, patient-specific alternative to animal or oversimplified models, with direct implications for preoperative planning and fracture risk stratification in orthopedic surgery.
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      Personalized Biomechanical Modeling of Pathologic Fracture: CTFEA Reveals Limitations of Traditional Fracture Risk Assessment in Benign Bone Tumors

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    https://yetl.yabesh.ir/yetl1/handle/yetl/4316090
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    • Journal of Biomechanical Engineering

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    contributor authorCameron, Emily G.
    contributor authorWinsor, Carla
    contributor authorLaende, Elise K.
    contributor authorOuterleys, Jereme B.
    contributor authorRudan, John F.
    contributor authorBorschneck, Dan P.
    contributor authorPloeg, Heidi-Lynn
    date accessioned2026-08-23T08:06:32Z
    date available2026-08-23T08:06:32Z
    date copyright2026/02/01
    date issued2026
    identifier issn0148-0731
    identifier otherbio-25-1123.pdf
    identifier urihttp://yetl.yabesh.ir/yetl1/handle/yetl/4316090
    description abstractAbstract. Benign bone tumors such as chondroblastoma, giant cell tumors (GCT), and aneurysmal bone cysts (ABC) are rare but clinically significant lesions that frequently occur in the epiphyseal regions of long bones, particularly near load-bearing joints in children and young adults. These tumors compromise the structural integrity of bone, leading to an elevated risk of pathologic fracture. Traditional methods for estimating fracture risk rely on simple geometric thresholds and volumetric ratios, but they fail to account for patient-specific differences in bone geometry, material heterogeneity, and physiological loading conditions. As a result, risk is often misclassified, which may lead to either overtreatment or missed prevention opportunities. To address this limitation, this study presents a preliminary demonstration of computed tomography-based finite element analysis (CTFEA) as a novel alternative method (NAM); computational framework using patient-specific CTFEA to evaluate fracture risk in four patients with benign knee tumors. Clinical computed tomography (CT) imaging and motion capture-informed joint loading were used to develop anatomically accurate, mechanically calibrated models incorporating nonlinear bone behavior. CTFEA simulations focused on walking, jogging, and partial weight-bearing conditions, captured localized stress and strain distributions, and were benchmarked against clinical and volumetric assessment criteria. CTFEA outperformed traditional methods by revealing mechanical vulnerabilities, including in cases classified as low-risk clinically, through its ability to simulate individualized loading scenarios. These findings demonstrate the feasibility and potential of CTFEA as a noninvasive, patient-specific alternative to animal or oversimplified models, with direct implications for preoperative planning and fracture risk stratification in orthopedic surgery.
    publisherThe American Society of Mechanical Engineers (ASME)
    titlePersonalized Biomechanical Modeling of Pathologic Fracture: CTFEA Reveals Limitations of Traditional Fracture Risk Assessment in Benign Bone Tumors
    typeJournal Paper
    journal volume148
    journal issue2
    journal titleJournal of Biomechanical Engineering
    identifier doi10.1115/1.4069925
    journal fristpage73
    journal lastpage85
    page13
    treeJournal of Biomechanical Engineering:;2026:;volume( 148 ):;issue:002
    contenttypeFulltext
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    DSpace software copyright © 2002-2015  DuraSpace
    نرم افزار کتابخانه دیجیتال "دی اسپیس" فارسی شده توسط یابش برای کتابخانه های ایرانی | تماس با یابش
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