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Product Details
YCG-2C Ultrasonic Grating Experimental Device
The phenomenon where light waves are diffracted by ultrasonic waves while propagating in a liquid medium is called ultrasonic light diffraction (also known as the acousto-optic effect). This phenomenon results from the interaction between light waves and sound waves in the medium. Ultrasonic waves modulate the density of the liquid, turning the originally uniform and transparent liquid into an "ultrasonic optical grating" with periodically varying refractive index. When a light beam passes through, diffraction occurs, allowing accurate measurement of the speed of sound waves in the liquid. Moreover, with the development of laser and ultrasonic technologies, the acousto-optic effect has been widely applied. By completing the ultrasonic optical grating experiment, one can understand the experimental principle of the acousto-optic effect, use it to measure the speed of sound waves in the liquid, and also help students learn more about the applications of various devices.
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YCG-2C Ultrasonic Grating Experimental Device
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YCG-2C Ultrasonic Grating Experimental Device
The phenomenon where light waves are diffracted by ultrasonic waves when propagating in a liquid medium is called ultrasonic light diffraction (also known as the acousto-optic effect). This phenomenon results from the interaction between light waves and sound waves in the medium. Ultrasonic waves modulate the density of the liquid, turning the originally uniform and transparent liquid into an "ultrasonic optical grating" with periodically varying refractive index. When a light beam passes through, diffraction occurs, allowing accurate measurement of the sound wave propagation speed in the liquid. Moreover, with the development of laser and ultrasonic technologies, the acousto-optic effect has been widely applied. By completing the ultrasonic optical grating experiment, one can understand the experimental principle of the acousto-optic effect, measure the propagation speed of sound waves in the liquid using this effect, and also help students learn more about the applications of various devices.
Main Parameters:
1. Experimental host, sodium lamp light source, optical rail, ultrasonic tank, collimator tube, and micrometer eyepiece system, etc.
2. Ultrasonic signal source with frequency adjustment (continuously adjustable), resolution 0.001 MHz
3. Photolithography slit: slit width 0.03 mm, slit length 5 mm
4. Lens: aperture diameter φ40 mm, focal length 190 mm
5. Ultrasonic tank: length 100 mm, width 50 mm, height 65 mm
6. Micrometer eyepiece: focal length -31.46 mm; eyepiece magnification 20x;
7. Optical rail: 1 m optical rail
8. Input voltage: 220V 50Hz
9. Output signal frequency: 8 to 12 MHz
10. Telescope focal length: 170 mm
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