Movement in Action

Lesson Overview

This 120-minute Year 11 VCE Physical Education lesson focuses on Area of Study 1: How Does the Body Produce Movement?, aligning with the 2025 VCE study design. Through active participation, group collaboration, and targeted discussions, students will explore the core concepts of anatomy, biomechanics, and the energy systems used in physical activity. The lesson is designed to integrate practical activities and conceptual learning, catering to a diverse range of learners.

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Curriculum Context

• Subject: VCE Physical Education (2025 Study Design)

• Area of Study: Area 1 – How Does the Body Produce Movement?

• Relevant Key Knowledge:

  • Anatomical structures (muscles, joints, bones) involved in movement.
  • Types of muscle contractions.
  • Biomechanical principles (e.g., force, acceleration, levers).
  • The role and interplay of the three energy systems.

• Relevant Key Skills:

  • Identify skeletal and muscular structures and their roles in movement.
  • Conduct biomechanical analyses of sporting movements.
  • Interpret energy system utilisation in varied activities.

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Learning Objectives

By the end of this session, students will be able to:

• Analyse the role of major muscle groups and joint actions in movement.
• Apply biomechanical principles to optimise performance in physical tasks.
• Interpret which energy systems are predominant in specific physical activities.
• Understand how the body’s structures collaborate to produce efficient movement.

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Lesson Structure

Introduction (10 minutes)

1. Welcome and Warm-Up:

   • Quick dynamic warm-up focusing on full-body movements (e.g., lunges, squats, arm swings).
   • Brief discussion connecting the warm-up to anatomy, biomechanics, and energy systems.

2. Setting the Scene:

   • Teacher introduces the lesson focus: “Today, we’ll explore how our bodies work as biological machines to produce movement.”
   • Overview of learning objectives and relation to VCE coursework.

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Part A: Anatomy in Motion (30 minutes)

Activity 1 – Movement Matching Game (15 minutes):

• Each student receives a card:
  • Some cards list names of anatomical terms (e.g., quadriceps, hinge joint).
  • Other cards describe movements or activities (e.g., kicking a ball, performing a pull-up).
• Students pair up by matching structures to movements.
• Class discussion on:
  • How the muscle/joint pairs coordinate in each movement.
  • Key anatomical aspects of movements like flexion, extension, abduction, and adduction.

Activity 2 – Anatomical Relay (15 minutes):

• Set up four stations, each detailing a movement (e.g., squat, push-up).
• At each station:
  • Students act out the movement and identify the muscles, bones, and joints involved.
  • Groups record their observations on provided worksheets.
• Teacher facilitates a quick debrief after rotations, focusing on proper terminology.

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Part B: Biomechanics and Performance (40 minutes)

Activity 1 – Lever Analysis (20 minutes):

• Teacher demonstrates three basic sporting movements:
  1. Bicep curl (1st-class lever).
  2. Jump (2nd-class lever).
  3. Throwing a ball (3rd-class lever).
• As a class, discuss the role of levers in force production, acceleration, and efficiency.
• Students complete a worksheet by sketching the three levers, annotating with fulcrum, load, effort, and examples in sport.

Activity 2 – Biomechanics in Sports (20 minutes):

• Students split into pairs and use foam balls for a Force Accuracy Challenge.
  • Pairs create variations of throws using biomechanics principles (e.g., changing angles and forces applied).
• Teacher prompts discussion on how factors like gravity and force application impacted success.
• Link to practical implementation in real-life sports.

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Part C: Energy Systems in Action (30 minutes)

Teaching Overview (10 minutes):

• Provide a brief explanation of the three energy systems (ATP-PC, anaerobic glycolysis, and aerobic). Highlight examples of activities where each predominates.

Practical Activity (15 minutes) – Energy Pathway Circuit:

1. Design a circuit with three activity zones:
   • 10-second sprint (ATP-PC system).
   • Repeated shuttle runs lasting 60 seconds (anaerobic glycolysis).
   • Steady jogging for two minutes (aerobic).
2. After participation, students identify which energy system was most likely used and why.

Discussion & Reflection (5 minutes):

• Group discussion on how energy system interplay can impact performance.
• Tie back to examples from sports.

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Conclusion and Reflection (10 minutes)

1. Class Reflection (5 minutes):

   • Students share one new concept they learned and one question they have.
   • Teacher summarises how anatomy, biomechanics, and energy systems interlink to create movement.

2. Success Criteria Check-In (5 minutes):

   • Students use a checklist to confirm which objectives they achieved.
   • Homework assigned: Create a diagram demonstrating how the key components (anatomy, biomechanics, energy systems) work together in a sporting movement of choice.

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Teacher Preparation

• Materials:
  • Anatomical cards, foam balls, energy system cue cards, station posters, and worksheets.
• Equipment:
  • Cones, whiteboard, markers.
• Setup:
  • Arrange stations before class.

Differentiation

• Support: Provide visual aids and one-on-one guidance at stations.
• Extension: Challenge advanced learners with sports-specific biomechanical analyses (e.g., tennis serve).

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Assessment

Formative assessment throughout the session, evaluating:

• Participation in activities.
• Ability to match anatomy/biomechanics to movement.
• Contributions to group discussions.
• Understanding of energy systems during the circuit.

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Final Notes

This lesson leverages active learning strategies and collaboration while reinforcing essential VCE topics. It balances theoretical understanding with practical application to ensure students are engaged and informed. Teachers are encouraged to adapt pacing to suit their students’ needs.