Description

Specifications Table

Product Material – Borosilicate glass, neodymium magnets, aluminum frame
Grade – Research/educational grade
Application – Spectroscopy, atomic physics experiments, magnetic field studies

Product Overview

The Zeeman Effect Experiment (Complete Set) is a meticulously designed apparatus for demonstrating and analyzing the splitting of spectral lines under magnetic influence. This kit provides all necessary components to observe the normal and anomalous Zeeman effects with precision. The setup includes a high-quality Fabry-Pérot interferometer, permanent neodymium magnets with adjustable pole pieces, and a mercury vapor lamp as the light source. The optical components are mounted on a sturdy aluminum base with fine adjustment mechanisms for accurate alignment. The magnetic field strength can be varied using the included adjustable magnet assembly, allowing for detailed study of spectral line splitting patterns. The complete set comes with comprehensive instructions for assembly and calibration, making it suitable for both educational demonstrations and research applications. The components are constructed from durable materials including borosilicate glass for optical elements and corrosion-resistant metals for the structural components, ensuring long-term reliability and consistent performance in laboratory environments.

FAQs

1. What type of light source is included in this Zeeman Effect kit?

The kit includes a mercury vapor lamp which provides the characteristic spectral lines needed for observing the Zeeman effect.

2. Can this setup demonstrate both normal and anomalous Zeeman effects?

Yes, the complete set is designed to demonstrate both normal and anomalous Zeeman effects through its adjustable magnetic field configuration.

3. What is the typical magnetic field strength achievable with this apparatus?

The included neodymium magnets can generate field strengths sufficient to produce observable spectral line splitting, typically in the range of 0.5-1.5 Tesla depending on the configuration.

4. Are any special safety precautions required when using this equipment?

Standard laboratory safety procedures should be followed, particularly regarding the mercury vapor lamp which should be handled with care to avoid breakage and potential mercury exposure.

5. How should the optical components be cleaned and maintained?

The optical surfaces should be cleaned using lens tissue and appropriate optical cleaning solutions, while avoiding abrasive materials that could scratch the surfaces. Store components in a dry, dust-free environment when not in use.