Description
Specifications Table
Product Material – Borosilicate glass with tungsten electrodes
Grade – Laboratory/Research
Application – Atomic physics experiments, electron collision studies
Product Overview
The Franck-Hertz Argon Tube Experiment Set is a precision-engineered apparatus designed for advanced atomic physics experiments. Constructed from high-quality borosilicate glass with durable tungsten electrodes, this set ensures accurate demonstration of electron-argon atom collisions and discrete energy transfer. The tube contains ultra-pure argon gas, enabling clear visualization of energy quantization effects when electrons pass through the gas. Ideal for educational and research applications, this experiment set provides reliable performance with consistent results, making it a valuable tool for studying fundamental quantum phenomena. The robust design minimizes external interference while maintaining optimal gas pressure for reproducible experiments. Whether used in academic laboratories or independent research settings, this Franck-Hertz tube delivers exceptional clarity in demonstrating atomic energy levels and the Franck-Hertz effect.
FAQs
1. What gas is used in this Franck-Hertz tube?
This experiment set uses high-purity argon gas to demonstrate electron collisions and energy quantization effects.
2. Can this tube be used with standard power supplies?
Yes, the Franck-Hertz argon tube is compatible with most laboratory power supplies that provide adjustable voltage in the required range.
3. How should this experiment set be stored when not in use?
Store the tube in a dry, dust-free environment at room temperature, preferably in its original packaging to prevent damage.
4. What alternatives exist for demonstrating similar physics principles?
Alternative methods include mercury vapor tubes or neon discharge tubes, though argon provides clearer energy level transitions.
5. Is this suitable for demonstrating the Franck-Hertz effect in educational settings?
Absolutely, this set is specifically designed for educational demonstrations of the Franck-Hertz effect with reliable, repeatable results.
