Electric Potential Demonstrator for Physics Lab, DC 6V Educational Teaching Kit with Stable Electrode Contact

Electric Potential Demonstrator for Physics Lab, DC 6V Educational Teaching Kit with Stable Electrode Contact Description

Potential Demonstrator for school physics labs to study electrical potential, potential difference, and equipotential surfaces. Designed for hands on classroom demonstrations, student experiments, and teacher led lab activities. Key benefits Visualizes potential distribution and equipotential surfaces so students can observe field behavior directly. Simple, repeatable setup that supports quick classroom demonstrations. Secure electrode contact using wiring forks and nuts for consistent results. Compatible with common DC 6V classroom power supplies. What the kit includes and materials Pre drilled white paper, carbon paper, and conductive paper sized to fit the instrument plate. Plastic plate that holds the paper layers flat during experiments. Two electrodes with nuts and conductive wire contact. Two wiring forks provided for making connections to the electrodes. How it works and setup steps Stack the pre drilled white paper, carbon paper, and conductive paper in that onto the screw mount and lay the stack flat on the plastic plate. Attach a wiring fork to each electrode and tighten the nuts so the electrodes press against the conductive paper with firm, even pressure. Connect the ends of the wiring forks to a DC 6V power supply to create a stable potential difference and begin mapping potentials or observing equipotential patterns. Performance and compatibility Designed for use with standard classroom DC 6V supplies and common laboratory probes. Stable contact pressure from the tightened nuts helps reduce contact resistance and improves reproducibility of results. Paper and conductive layer arrangement supports clear, repeatable equipotential patterns for student observation. Suggested use scenarios Classroom demonstration: Teacher applies DC 6V across the electrodes and displays equipotential lines by sprinkling conductive ink or using probes to map potential on the conductive paper. Student lab activity: Small groups set up the stack, connect the wiring forks, and measure potential differences between points to calculate field behavior and reinforce theory. Lab assessment or project work: Use the demonstrator to compare different electrode geometries and study how shape and spacing affect potential distribution. Practical notes Ensure the paper layers are flat and the electrodes are tightened evenly for results. Use appropriate probes and measurement instruments compatible with the demonstrator and DC 6V supply. Store paper components flat to prevent creasing that can affect contact quality. This demonstrator provides a practical, low complexity way to conduct school level experiments on potential, potential difference, and equipotential surfaces while maintaining reproducible connections and straightforward setup.