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E-mail
rebecca.sun@ql-lab.com
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13761033926
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No. 52 Zilang Road, Xishou, Xinma Industrial Zone, Qilin Town, Haimen City
Haimen Qilin Bell Instrument Manufacturing Co., Ltd
Intelligent transfer shaker can achieve precise speed adjustment and motion amplitude control
Date: 2025-04-11Read: 0
Intelligent transfer shaker is a device that integrates intelligent technology, advanced mechanical design, and precise control system, widely used in fields such as biomedicine, scientific research, laboratories, and chemical engineering. By simulating the transfer process of samples such as cells and microorganisms through reasonable vibration and shaking methods, the uniformity of the samples and the stability of the experiment can be enhanced.
Intelligent transfer shakerWorking principle:
1. Drive system: Typically equipped with high-performance electric motors, the mechanical structure of the shaking table platform is driven horizontally or vertically by the motors. Motor drive systems typically have high-precision speed control and strong load capacity to adapt to the needs of different sample containers.
2. Intelligent control system: Built in highly flexible control system that can adjust the speed, frequency, and motion amplitude of the shaker according to needs. Some advanced intelligent rocking bed systems are also equipped with touch screens or computer interfaces, which can be remotely controlled or programmed to achieve precise control.
3. Feedback mechanism: It has a real-time feedback mechanism, which monitors the operating status of the shaker in real time through sensors, such as speed, amplitude, temperature and other parameters, and transmits the data to the control system to ensure that the equipment is always in the best working condition.
4. Selection of vibration modes: According to experimental requirements, different vibration modes can be provided, such as planar shaking, centrifugal shaking, up and down oscillation, etc., to adapt to different experimental needs and ensure the accuracy of the experiment and the uniformity of the sample.
5. Temperature control system: Some are also equipped with a temperature control system, which can control the temperature of the samples inside the shaker through built-in heating or cooling devices. This is crucial for temperature sensitive experiments to ensure the accuracy and reliability of experimental data.
The main functions of the intelligent transfer shaker are:
1. Automation control: The intelligent control system makes the operation of equipment more convenient. By setting the program, users can achieve automatic start stop, speed adjustment, oscillation mode selection, etc. of the shaking table, reducing the complexity of manual operation and improving work efficiency.
2. High precision regulation: It can achieve precise speed regulation and motion amplitude control, ensuring the uniformity and stability of vibration during the experimental process. This is crucial for experiments such as cell culture and mixed reactions.
3. Diversified shaking modes: Different shaking modes can be provided, including linear shaking, circular shaking, rotary shaking, etc., suitable for different experimental needs. For example, some cell culture experiments require relatively stable shaking, while some chemical reactions may require stronger oscillation modes.
4. Temperature control function: The temperature control system can accurately adjust the temperature inside the shaker, reducing the impact of temperature on the experimental process. In biological experiments, many processes such as cell culture or enzyme reactions are highly sensitive to temperature, so precise control of the temperature control system is the key to successful experiments.
5. Data recording and monitoring: Some are equipped with data recording and real-time monitoring functions, which can record the working status, temperature, speed and other information of the shaker, and transmit it in real time through data display screens or remote systems. This not only facilitates users to understand the experimental status, but also facilitates data analysis and experimental optimization in the later stage.