Part C only. 5. The following table shows joint position coordinates for the hip, knee, and ankle during asingle frame of a countermovement jump.JointYposition28.95Markerposition57.01HipKneeAnkle41.3122.8749.369.03a. Determine the absolute angles of both the thigh and the shankb. Using the law of cosines, determine the relative knee joint angle in angle ofarticulationc. Determine the relative knee joint angle in degrees of flexion

Answer part (C): Given data: xknee=41.31yknee=22.87xAnkle=49.36yAnkle=9.03 Need to determine the…

5. The following table shows joint position coordinates for the hip, knee, and ankle during a single frame of a countermovement jump. Joint X Y Marker position position 28.95 Hip 57.01 Knee 41.31 22.87 9.03 Ankle 49.36 a. Determine the absolute angles of both the thigh and the shank b. Using the law of cosines, determine the relative knee joint angle in angle of articulation c. Determine the relative knee joint angle in degrees of flexion

5. The following table shows joint position coordinates for the hip, knee, and ankle during a single frame of a countermovement jump. Joint X Y Marker position position 28.95 Hip 57.01 Knee 41.31 22.87 9.03 Ankle 49.36 a. Determine the absolute angles of both the thigh and the shank b. Using the law of cosines, determine the relative knee joint angle in angle of articulation c. Determine the relative knee joint angle in degrees of flexion

Principles of Heat Transfer (Activate Learning with these NEW titles from Engineering!)

8th Edition

ISBN:9781305387102

Author:Kreith, Frank; Manglik, Raj M.

Publisher:Kreith, Frank; Manglik, Raj M.

Chapter11: Heat Transfer By Radiation

Section: Chapter Questions

Problem 11.12P

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