Microwave Ferromagnetic Resonance Apparatus Complete Model for Advanced Physics Lab

The Microwave Ferromagnetic Resonance Apparatus Complete Model for Advanced Physics Lab is designed to investigate the interaction between microwave radiation and ferromagnetic materials. Ferromagnetic Resonance is a fundamental phenomenon in solid-state physics and microwave ferrite technology, providing valuable insight into the magnetic behavior of materials subjected to microwave fields. This apparatus enables students to observe and analyze ferromagnetic resonance curves, study magnetic material properties, and gain practical experience with microwave measurement techniques. The system combines microwave technology with magnetic field control, making it an effective educational platform for understanding resonance phenomena, microwave ferrite materials, and magnetic characterization methods. The apparatus is suitable for advanced physics education and research applications, providing hands-on training in microwave instrumentation, magnetic measurements, and resonance analysis. Physics Lab Experiments from Atico Exports.
Experiments:

Microwave Component Study:

• Understand the functions and applications of microwave components
• Learn the operation of microwave signal generation and detection systems
• Study microwave transmission and measurement techniques

Ferromagnetic Resonance Investigation:

• Observe ferromagnetic resonance phenomena
• Understand resonance conditions in ferromagnetic materials
• Study the interaction between microwave radiation and magnetization

Resonant Magnetic Field and Frequency Measurement:

• Determine resonant magnetic field values
• Measure microwave operating frequency
• Analyze resonance characteristics of ferromagnetic specimens

Gyromagnetic Ratio and g-Factor Calculation:

• Calculate the gyromagnetic ratio (γ)
• Determine the Lande g-factor (g)
• Evaluate magnetic properties of ferromagnetic materials

Resonance Line Width and Relaxation Time Analysis:

• Measure ferromagnetic resonance line width (ΔH)
• Estimate relaxation time (τ) of microwave ferrite materials
• Investigate dynamic magnetic behavior

Microwave System Setup and Alignment:

• Learn microwave system configuration procedures
• Adjust magnetic field and microwave parameters
• Optimize experimental conditions for accurate measurements

• Ferromagnetic Resonance Studies
• Microwave Ferrite Characterization
• Solid-State Physics Experiments
• Magnetic Material Analysis
• Microwave Engineering Education
• Advanced Physics Laboratory Training
• Resonance Measurement Techniques
• Research and Teaching Applications

Microwave System:

Specimen:

• Mono-Crystal Sample

Microwave Frequency Meter Range:

• 8.6 GHz – 9.6 GHz

Waveguide Dimensions:

• 22.86 mm × 10.16 mm

Electromagnet:

Maximum Input Voltage:

• ≥ 20 V

Voltage Accuracy:

• 1% ± 1 Digit

Input Current Range:

• 0 – 2.5 A

Current Accuracy:

• 1% ± 1 Digit

Stability:

• ≤ 1 × 10⁻³ + 5 mA

Magnetic Field Strength:

• 0 – 450 mT

Pole Spacing:

• Approximately 20 mm

Dimensions:

• 140 mm Diameter × 270 mm Height

Sweep Field:

Output Voltage:

• ≥ 6 V

Output Current Range:

• 0.2 A – 0.7 A

Solid-State Microwave Signal Source:

Frequency Range:

• 8.6 – 9.6 GHz

Frequency Drift:

• ≤ ±5 × 10⁻⁴ / 15 min

Operating Voltage:

• 12 VDC

Output Power:

• 20 mW

Modulation Parameters:

Operation Mode:

• Equal Amplitude

Internal Modulation:

• Square-Wave

Repetition Frequency:

• 1000 Hz

Accuracy:

• ±15%

Skewness:

• < ±20%

Voltage Standing Wave Ratio:

• < 1.2

Waveguide Dimensions:

• 22.86 mm × 10.16 mm

Components Included:

Controller Unit:

• Quantity: 1

Electromagnet:

• Quantity: 1

Support Base:

• Quantity: 3

Microwave System Assembly:

• Quantity: 1 Set

Mono-Crystal Sample:

• Quantity: 1

Connection Cable Set:

• Quantity: 1 Set

Instruction Manual:

• Quantity: 1

• High-Quality Microwave Components
• Stable Experimental Performance
• Accurate Resonance Measurements
• Comprehensive Educational Content
• Easy System Configuration
• Reliable Magnetic Field Control
• Practical Microwave Technology Training
• Suitable for Advanced Laboratory Applications
• Simple and Compact Structure
• High-Quality Microwave Components
• Stable and Reliable Performance
• Precise Ferromagnetic Resonance Measurements
• Comprehensive Microwave Experimentation
• Educational and Research-Oriented Design
• Detailed Instruction Manual
• Ideal for Advanced Physics Laboratories