T-M109 Electromagnetic Swing DIY Learning Kit

T-M109 Electromagnetic Swing DIY Learning Kit

The T-M109 Electromagnetic Swing DIY Learning Kit is a hands-on educational project that introduces learners to the fundamentals of electromagnetism, magnetic fields, and motion. Students assemble a working electromagnetic pendulum to observe how electric current and magnetic forces create controlled motion. This kit is designed for STEM classes, science fairs, and home experimentation.

What students will learn

• Principles of electromagnetism and magnetic fields
• How electric current generates magnetic force in a coil
• Relationships between magnetic attraction, repulsion, and motion
• Basic circuit assembly and mechanical construction
• Experimental observation and troubleshooting skills

Key Features and Benefits

• Educational value: Demonstrates core physics concepts in a visible, memorable way
• STEM-focused: Encourages critical thinking, experimentation, and hands-on learning
• Complete kit: Includes motor or battery holder, copper coil, permanent magnet, wooden base, swing arm, pivot parts, and connectors
• Easy assembly: Parts are pre-cut and designed for simple fitting; no soldering required
• Safe design: Operates on low-voltage DC 3V to 5V power for classroom safety
• Durable materials: Non-toxic components built to withstand repeated use

Package Includes

• Wooden base and support frame
• Electromagnet coil
• Swing arm and pivot components
• Permanent magnet
• Connecting wires
• DC motor or battery holder (depending on version)
• Instruction manual with assembly steps and experiment suggestions

Specifications

• Model: T-M109
• Materials: Wood, copper coil, magnet, plastic
• Power supply: DC 3V to 5V
• Assembly time: Approximately 20 to 30 minutes
• Skill level: Beginner to intermediate

Assembly and Experiment Tips

1. Follow the step-by-step instruction manual for initial assembly and wiring.
2. Verify connections and ensure the coil is positioned correctly relative to the magnet.
3. Start with the lowest voltage recommended and increase gradually to observe changes in motion.
4. Encourage students to record observations: swing amplitude, frequency, and how adjustments affect motion.
5. Try variations such as changing the magnet distance or coil turns to explore magnetic field strength.

Safety and Classroom Use

• Designed for low-voltage use to reduce electrical risk.
• Supervise younger students during assembly and testing.
• Avoid short circuits and ensure batteries are inserted correctly.
• Store small parts and magnets safely to prevent swallowing or interference with electronic devices.

Project Ideas and Applications

• Classroom demonstration of electromagnetic oscillation and energy conversion
• Science fair project exploring how coil turns or voltage affect swing motion
• Hands-on lab for physics units covering electromagnetism and simple circuits
• Maker activities combining the kit with sensors or microcontrollers for data logging

Note: Images are for illustration purposes only.