T-M15 Conservation of Energy DIY Learning Kit

Overview

The T-M15 Conservation of Energy DIY Learning Kit is a hands-on STEM project designed to teach the core physics principle of conservation of energy. Students assemble a working model that clearly shows how energy changes form – potential to kinetic, electrical, thermal, and mechanical – while total energy is conserved. This kit reinforces classroom theory with practical experimentation and visual learning.

Key Benefits for Students and Educators

• Reinforces physics concepts with active, experiential learning
• Builds problem-solving, observation, and fine motor skills
• Supports STEM curriculum objectives for science classes and labs
• Ideal for demonstrations, science fairs, and classroom projects
• Beginner-friendly design makes it suitable for a wide age range

Features and Highlights

• Energy Conversion Demonstration: Observe mechanical, electrical, and thermal energy changes in one model
• DIY Assembly: Unassembled kit with step-by-step instructions to promote hands-on learning
• Complete Components: Includes motor, pulley assembly, gears, linkages, wiring, and switches
• Power Options: Battery or solar power options available depending on the version
• Visual Learning: Moving parts and clear mechanical linkages show energy flow in action
• Safe Design: Student-friendly materials and components for classroom use

Package Contents

• Motor and pulley assembly
• Gears and mechanical linkages
• Power supply or solar component (depending on version)
• Base plate and structural parts
• Wiring, connectors, and switches
• Instruction manual and assembly guide

Specifications

• Concept Focus: Conservation and transformation of energy
• Assembly Type: DIY unassembled kit
• Power Source: Battery or solar (as applicable)
• Materials: High-quality plastic and metal components
• Skill Level: Beginner to intermediate
• Learning Topics: Physics, energy transformation, mechanical motion, renewable energy

How It Helps Teach Energy Concepts

During assembly and operation, learners can:

• Convert stored potential energy into kinetic motion using weights or springs
• Drive electrical components with mechanical motion to demonstrate electromechanical conversion
• Compare battery and solar power behavior to discuss renewable energy sources
• Measure and observe energy transfer between system components

Suggested Classroom Activities

• Guided build session followed by instructor-led discussion on energy conservation principles
• Student experiments altering load, gear ratios, or power source to observe changes in performance
• Science fair projects highlighting energy efficiency or renewable power comparisons

Safety and Support

• Designed with student safety in mind; all small parts and electrical components meet educational safety standards
• Clear assembly guide included; teacher tips help integrate the kit into lesson plans

Note: Images are for illustration purposes only.