Slide 1 — Title Movement Video Project: Joint and Movement Analysis Rasputin — Just Dance Names: [add names] Class: [add class] Date: [add date] Slide 2 — What We Analyzed For each movement, we identify: The anatomical movement The joint’s structural and functional classifications Why those classifications fit The bones that meet at the joint Structural classification describes the joint’s tissue and structure. Functional classification describes how much movement it permits. Slide 3 — Wrist Flexion and Extension | 0:00–0:07 Movements: Wrist flexion and wrist extension Joint: Radiocarpal joint — synovial, condyloid (ellipsoid), diarthrosis Why: The wrist moves freely through flexion and extension. Its synovial structure permits movement, and its condyloid shape allows movement in more than one plane. Articulating bones: Radius and proximal carpal bones, mainly the scaphoid and lunate. The ulna does not directly articulate with the carpal bones. Slide 4 — Shoulder Flexion | 0:10–0:24 Movement: Shoulder flexion Joint: Glenohumeral joint — synovial, ball-and-socket, diarthrosis Why: The arm moves forward and upward at the shoulder. The ball-and-socket joint allows movement in several directions. Articulating bones: Humerus and scapula Slide 5 — Thumb Opposition | 0:25–0:32 Movement: Thumb opposition Joint: Thumb carpometacarpal (CMC) joint — synovial, saddle, diarthrosis Why: The thumb moves across the palm toward the fingers. The saddle-shaped joint allows the thumb to move across the hand. Articulating bones: Trapezium and first metacarpal Slide 6 — Thumb Reposition | 0:25–0:32 Movement: Thumb reposition Joint: Thumb carpometacarpal (CMC) joint — synovial, saddle, diarthrosis Why: The thumb returns from opposition toward its anatomical position. It uses the same freely movable CMC joint. Articulating bones: Trapezium and first metacarpal Slide 7 — Leg Movement: Check the Joint | 0:33–0:40 Movement to describe: If the legs move toward the body’s midline, that is hip adduction. If the movement is a squat or bend, it includes knee flexion. Hip joint: Synovial, ball-and-socket, diarthrosis Why: The hip allows the thigh to move toward or away from the midline. Articulating bones: Femur and pelvis Knee, if bending: Synovial, modified hinge, diarthrosis. The knee is not a cartilaginous amphiarthrosis. Articulating bones: Femur and tibia; the patella also articulates with the femur. Slide 8 — Arm Moving Out and Back | 0:40–0:47 Movement: Shoulder abduction and adduction Joint: Glenohumeral joint — synovial, ball-and-socket, diarthrosis Why: The arm moves away from and back toward the body’s midline at the shoulder. “Abduction/adduction of the forearm” is not the best description when the whole arm moves side to side. Articulating bones: Humerus and scapula Slide 9 — Shoulder Rotation | 0:48–0:51 Movements: Medial rotation and lateral rotation of the arm Joint: Glenohumeral joint — synovial, ball-and-socket, diarthrosis Why: The upper arm rotates
Slide 1 — Title Movement Video Project: Joint and Movement Analysis Rasputin — Just Dance Names: [add names] Class: [add class] Date: [add date] Slide 2 — What We Analyzed For each movement, we identify: The anatomical movement The joint’s structural and functional classifications Why those classifications fit The bones that meet at the joint Structural classification describes the joint’s tissue and structure. Functional classification describes how much movement it permits. Slide 3 — Wrist Flexion and Extension | 0:00–0:07 Movements: Wrist flexion and wrist extension Joint: Radiocarpal joint — synovial, condyloid (ellipsoid), diarthrosis Why: The wrist moves freely through flexion and extension. Its synovial structure permits movement, and its condyloid shape allows movement in more than one plane. Articulating bones: Radius and proximal carpal bones, mainly the scaphoid and lunate. The ulna does not directly articulate with the carpal bones. Slide 4 — Shoulder Flexion | 0:10–0:24 Movement: Shoulder flexion Joint: Glenohumeral joint — synovial, ball-and-socket, diarthrosis Why: The arm moves forward and upward at the shoulder. The ball-and-socket joint allows movement in several directions. Articulating bones: Humerus and scapula Slide 5 — Thumb Opposition | 0:25–0:32 Movement: Thumb opposition Joint: Thumb carpometacarpal (CMC) joint — synovial, saddle, diarthrosis Why: The thumb moves across the palm toward the fingers. The saddle-shaped joint allows the thumb to move across the hand. Articulating bones: Trapezium and first metacarpal Slide 6 — Thumb Reposition | 0:25–0:32 Movement: Thumb reposition Joint: Thumb carpometacarpal (CMC) joint — synovial, saddle, diarthrosis Why: The thumb returns from opposition toward its anatomical position. It uses the same freely movable CMC joint. Articulating bones: Trapezium and first metacarpal Slide 7 — Leg Movement: Check the Joint | 0:33–0:40 Movement to describe: If the legs move toward the body’s midline, that is hip adduction. If the movement is a squat or bend, it includes knee flexion. Hip joint: Synovial, ball-and-socket, diarthrosis Why: The hip allows the thigh to move toward or away from the midline. Articulating bones: Femur and pelvis Knee, if bending: Synovial, modified hinge, diarthrosis. The knee is not a cartilaginous amphiarthrosis. Articulating bones: Femur and tibia; the patella also articulates with the femur. Slide 8 — Arm Moving Out and Back | 0:40–0:47 Movement: Shoulder abduction and adduction Joint: Glenohumeral joint — synovial, ball-and-socket, diarthrosis Why: The arm moves away from and back toward the body’s midline at the shoulder. “Abduction/adduction of the forearm” is not the best description when the whole arm moves side to side. Articulating bones: Humerus and scapula Slide 9 — Shoulder Rotation | 0:48–0:51 Movements: Medial rotation and lateral rotation of the arm Joint: Glenohumeral joint — synovial, ball-and-socket, diarthrosis Why: The upper arm rotates
Created using ChatSlide
This project focuses on the movement analysis of the dance piece 'Rasputin' through a structured setup. It includes an overview of joint structures and functions, with a detailed examination of upper-body movements such as wrist and shoulder actions, as well as thumb mechanics. Additionally, the project assesses lower-body movements, distinguishing between hip adduction and knee flexion, while accurately classifying the associated joints and their functions. Key takeaways will enhance...