Faraday’s Effect with He-Ne Laser | AE 1036 | ASICO

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Faraday’s Effect with He-Ne Laser | AE 1036 | ASICO

High-precision Faraday’s Effect experiment setup with He-Ne laser, ideal for studying magneto-optical rotation in lab environments.

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Original price was: ₹58,800.00.Current price is: ₹52,920.00.

Description

Specifications Table

Product Material – Optical-grade glass, aluminum housing
Grade – Research/educational
Application – Magneto-optical rotation studies, Faraday effect demonstration

Product Overview

The Faraday’s Effect Experiment Setup with He-Ne Laser is a specialized apparatus designed for precise observation and measurement of the Faraday effect—a phenomenon where the plane of polarization of light rotates under the influence of a magnetic field. This setup integrates a stable He-Ne laser source, which emits a coherent, monochromatic beam essential for accurate polarization measurements. The optical components, including polarizers and analyzers, are constructed from high-quality optical glass to minimize light scattering and ensure clarity. The aluminum housing provides structural stability while shielding the setup from external electromagnetic interference. The system is optimized for educational and research applications, allowing users to vary magnetic field strength and observe corresponding polarization changes in real time. The included magnetic field generator produces a uniform field, enabling repeatable experiments. This setup is particularly valuable for demonstrating fundamental principles of electromagnetism and optics, making it a versatile tool for advanced laboratory work.

FAQs

1. What is the typical wavelength of the He-Ne laser in this setup?

The He-Ne laser in this Faraday’s Effect experiment setup typically operates at a wavelength of 632.8 nm, which is in the red region of the visible spectrum.

2. Can this setup be used with external magnetic fields?

Yes, the setup is compatible with external magnetic fields, provided they are uniform and within the operational range of the included components.

3. Are there any alternatives to the He-Ne laser for this experiment?

Alternatives like diode lasers can be used, but He-Ne lasers are preferred for their stability, coherence, and narrow bandwidth, which are critical for precise measurements.

4. How should this setup be stored when not in use?

Store the setup in a dry, dust-free environment, preferably in its original packaging or a protective case to prevent damage to optical components.

5. Is this setup suitable for undergraduate-level experiments?

Yes, this setup is designed for both educational and research purposes, making it suitable for undergraduate experiments with proper guidance.

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