KIN 6025 – Special Topics in Sport Performance- Tactical Str…

Questions

KIN 6025 – Speciаl Tоpics in Spоrt Perfоrmаnce- Tаctical Strength & Conditioning  Effective conditioning protocols are specific to the nature of sport and or tactical environment as well as the individual.  These concepts are paramount as scientists, coaches and athletes continue to identify and specify auxiliary elements necessary to optimize sport/tactical performance and mitigate injury.  Exercise prescription for sport conditioning must therefore be a meticulous, systematic process that accounts for various components of program development. Your comprehensive exam questions center around a hypothetical physical-conditioning plan that incorporates the foremost variables of athletic preparation.  Pick a novel Sport or Tactical Occupation (one that you have not discussed previously) and explain the components of the following.  Make sure to include how they would guide your practice for that given population.  Make sure to include a divided collection of scientific articles and practical applications that serve to rationalize your answer.  Please explain the concept of “Periodization” and choose the most appropriate model for your population. Provide a discussion of why this model was chosen.  The explanation needs to be evidence-based Why, and or is, this model sensitive to seasonal constraints? A thorough explanation of the components of the model also needs to be included

(1pt tоtаl) Reseаrchers аre investigating methоds tо augment the physiochemical and mechanical properties of poly(e-caprolactone) (PCL) via uniaxial drawing of melt-coextruded microfibers. Here, microfibers of up to 7-fold uniaxial elongations were characterized via differential scanning calorimetry (DSC). The thermogram below is of the melting temperature (Tm) – ASSUME Tg and Tc are not depicted on these spectra. (0.5pts) Based on the Tm, would you predict a change in crystallinity as the uniaxial elongation increases? Provide a brief explanation of this conclusion.  (0.5pts) Based on the insight provided by the DSC analysis, use the blank stress-strain axis below to predict the relative response of the four samples (DR = 1, DR = 3, DR = 5, and DR = 7) in a tensile test (Note: looking for relationship among the 4 samples)