Werner Schmoelz

Head of Biomechanics

Medical University of Innsbruck

Austria

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Werner Schmoelz is the Head of Biomechanics at the Medical University of Innsbruck, Austria. His research focuses on biomechanics and includes topics such as forensic analysis of bone damage, tendon properties, and the efficacy of various surgical techniques in orthopaedic applications. Recent publications examine the mechanical and structural implications of different procedures and materials used in bone and joint reconstruction.

Werner Schmoelz

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Articles (17)

HR-pQCT and 3D Printing for Forensic and Orthopaedic Analysis of Gunshot-Induced Bone Damage

N-chlorotaurine does not alter structural tendon properties: a comparative biomechanical study.

Anatomical landmarks are more accurate in identifying the ideal femoral insertion for modified Larson reconstruction of posterolateral corner than radiological landmarks.

Strain-based measurement system on an internal fixator for healing analysis of spinal defects through load redistribution.

Proximal Junction and Transitional Mechanics and Effect of a Novel Tether Pedicle Screw in Long-Segment Spinal Instrumentation.

In vitro biomechanical evaluation of a strutted intradiscal spacer for lumbar discectomy.

Posterolateral Knee Ligament Reconstruction Using the Arciero Technique Provides Greater Rotational Stability Than the Modified Larson Technique: A Biomechanical Study

Does the Addition of Low-Dose Antibiotics Compromise the Mechanical Properties of Polymethylmethacrylate (PMMA)?

Overconstraint Associated With a Modified Lemaire Lateral Extra-Articular Tenodesis Is Decreased by Using an Anterior Femoral Insertion Point in a Cadaveric Model

Pedicle screw augmentation in posterior constructs of the thoracolumbar spine: How many pedicle screws should be augmented?

Modified Lemaire Tenodesis Forces in Cadaveric Specimens Are Not Affected by Random Small-Scale Variations in the Femoral Insertion Point During Active Knee Joint Flexion-Extension

Biomechanische Studien zur Verankerung von Pedikelschrauben

Einfluss von verschieden Dekompressionstechniken in der lumbalen Wirbelsäule auf den Bewegungsumfang

The effect of various options for decompression of degenerated lumbar spine motion segments on the range of motion: a biomechanical in vitro study

Actuator and Contact Force Modeling of an Active Soft Brace for Scoliosis

Characterizing the Mechanical Behavior of Bone and Bone Surrogates in Compression Using pQCT

Modified Lemaire tenodesis reduces anterior cruciate ligament graft forces during internal tibial torque loading

Collaborators (5)

Richard Lindtner

Vigilio Fontanari

Gerald Degenhart

David Putzer

Dietmar Dammerer

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