Dog therapy is implemented in various healthcare fields because of its unique ability to reduce perceived anxiety and hormonal stress, increase positive patient relationships with practitioners, and assist with demonstrating procedures. However, implementation of dog therapy in a clinical athletic training setting is not frequently discussed in relevant literature. This article outlines recommendations for the use and efficacy of therapy dogs in an athletic training facility, based on data from several studies across various healthcare fields. We provide information regarding best practice recommendations to incorporate therapy dogs into athletic training services, as well as the necessary administrative aspects and safeguards. Athletic trainers can use these recommendations and framework to explore the implementation of dog therapy into clinical practice.
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Recommendations for Implementation of Dog Therapy Intervention in the Athletic Training Facility
Rebecca Covach, Lindsey Keenan, and Emily Duckett
A Viscoelastic Constitutive Model Can Accurately Represent Entire Creep Indentation Tests of Human Patella Cartilage
Kathryn E. Keenan, Saikat Pal, Derek P. Lindsey, Thor F. Besier, and Gary S. Beaupre
Cartilage material properties provide important insights into joint health, and cartilage material models are used in whole-joint finite element models. Although the biphasic model representing experimental creep indentation tests is commonly used to characterize cartilage, cartilage short-term response to loading is generally not characterized using the biphasic model. The purpose of this study was to determine the short-term and equilibrium material properties of human patella cartilage using a viscoelastic model representation of creep indentation tests. We performed 24 experimental creep indentation tests from 14 human patellar specimens ranging in age from 20 to 90 years (median age 61 years). We used a finite element model to reproduce the experimental tests and determined cartilage material properties from viscoelastic and biphasic representations of cartilage. The viscoelastic model consistently provided excellent representation of the short-term and equilibrium creep displacements. We determined initial elastic modulus, equilibrium elastic modulus, and equilibrium Poisson’s ratio using the viscoelastic model. The viscoelastic model can represent the short-term and equilibrium response of cartilage and may easily be implemented in whole-joint finite element models.
