A monitoring terminal of a laboratory ultrasonic biological treatment device

Abstract

A monitoring terminal of a laboratory ultrasonic biological treatment device is composed of a shielding shell, a temperature measuring part, a sound transmission tube, a connecting hoop, a light transmitting tube, a light projection part, a light measuring part, a sound measuring part, a lower matching hoop, an upper matching Coupling and short joints. The temperature measuring part is attached to the left side of the sound transmission tube with its temperature sensing surface. The wall of the sound transmission tube is made of 304 type stainless steel sound guide material sheet. The wall of the light-transmitting tube is made of high-temperature glass transparent material, the upper port is connected with the sound transmission tube through the connecting hoop, and the lower port is connected with the rear conduit of the monitoring terminal through the lower coupling hoop. The light-projecting part is attached to the left side of the light-transmitting tube with its LED light-projecting end surface. The photometric part is a group of 200-400nM ultraviolet sensitive device circuit components, and its light-receiving end surface is attached to the right side of the light-transmitting tube. The sound measuring part is attached to the right side of the sound transmission tube with its sound receiving surface.

Description

technical field [0001] The invention relates to a laboratory ultrasonic biological treatment device, process and method. Background technique [0002] The laboratory equipment, process and method of ultrasonic biological treatment are still in the mode of single-frequency treatment, group control and inductive effect. The current laboratory method of ultrasonic biological treatment is: by setting or selecting a certain working frequency of the ultrasonic generating equipment in advance, and then using the ultrasonic frequency of this frequency to act on the treatment object. However, the processing rate of ultrasonic waves on objects is highly correlated with ultrasonic frequency, and the processing efficiency varies greatly with different ultrasonic frequencies; moreover, the type of biological cells to be processed is highly related to ultrasonic frequency, and different biological cells are sensitive to different frequency ultrasonic waves. very different. This has caus...

AI Technical Summary

Problems solved by technology

In essence, such a method cannot guarantee that the working ultrasonic frequency is the optimal frequency for the object, nor can it perform precise and fine frequency adjustments for different objects, and the accumulated experience is not the best process; in addition, the The method not only consumes a lot of manpower, financial resources and material resources in the initial stage, but also often requires observation, adjustment and maintenance during the use period.

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