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Daniel Baumgartner

Researcher at Zurich University of Applied Sciences/ZHAW

Publications -  25
Citations -  564

Daniel Baumgartner is an academic researcher from Zurich University of Applied Sciences/ZHAW. The author has contributed to research in topics: Rotator cuff & Office chair. The author has an hindex of 8, co-authored 25 publications receiving 464 citations. Previous affiliations of Daniel Baumgartner include ETH Zurich & Winterthur Museum, Garden and Library.

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Supraspinatus tendon load during abduction is dependent on the size of the critical shoulder angle: A biomechanical analysis

TL;DR: The results support the concept that a high CSA can induce SSP overload particularly at low degrees of active abduction, and require substantially increased compensatory supraspinatus loads.
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Medial support by fibula bone graft in angular stable plate fixation of proximal humeral fractures: an in vitro study with synthetic bone

TL;DR: Medial support with an intramedullary fibular graft in an angular stable fixation of the proximal humerus in vitro increases overall stiffness of the bone-implant construct and reduces migration of the humeral head fragment.
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Inclination-dependent changes of the critical shoulder angle significantly influence superior glenohumeral joint stability

TL;DR: Glenoid inclination-dependent changes of the critical shoulder angle have a significant impact on superior glenohumeral joint stability and could explain the clinically observed association between large angles and degenerative rotator cuff tears.
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Glenohumeral joint reaction forces increase with critical shoulder angles representative of osteoarthritis ‐ a biomechanical analysis

TL;DR: It is suggested that a CSA typical for OA predisposes the glenohumeral joint to higher joint reaction forces and could plausibly play a role in joint overloading and development of OA.
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Biomechanical testing of a polymer-based biomaterial for the restoration of spinal stability after nucleotomy

TL;DR: PGA/HA biomaterial seems to be well suited for cell-free and cell-based regenerative treatment strategies in spinal surgery, and its abilities to restore spinal stability and potentially close annulus defects open up new vistas for regenerative approaches to treat intervertebral disc degeneration and for preventing implant herniation.