全国服务热线:18631165157
网站公告:
诚信换来金招牌 服务赢得天下客...
公司新闻
联系我们
18631165157
地址:
安国市南阳工业区
邮箱:
415130881@qq.com
电话:
18631165157
传真:
0312-3427286
手机:
18631165157
公司新闻 News
当前位置:首页 > 新闻动态 > 公司新闻
卧式泡沫泵如何发挥最大流量
添加时间:2023.09.27

卧式泡沫泵如何发挥最大流量

卧式泡沫泵的流量调节方法有很多种,以下是一些常见的方法:

1. 阀门节流:改变离心泵流量最简单的方法就是调节泵出口阀门的开度,而水泵转速保持不变 (一般为额定转速),其实质是改变管路特性曲线的位置来改变泵的工况点。关小阀门时,管道局部阻力增加,水泵工况点向左移至B点,相应流量减少。阀门全关时,相当于阻力无限大,流量为零,此时管路特性曲线与纵坐标重合。

2. 变频调速:通过变频器控制电机转速,从而实现对卧式泡沫泵流量的调节。


3. 水泵串联调节:将卧式泡沫泵与另一台水泵串联,通过调节两台水泵的出口阀门开度来改变总流量。当一台水泵关小阀门时,另一台水泵的出口阀门开大,总流量增加;反之,当一台水泵开大阀门时,另一台水泵的出口阀门关小,总流量减少。这种方法适用于多台卧式泡沫泵并联使用的情况。

4. 水泵调速器调节:采用调速器对卧式泡沫泵进行调节。调速器可以改变电机的输入电压或电流,从而实现对电机转速的控制。通过调节电机转速,进而改变卧式泡沫泵的流量。这种方法具有较好的调节精度和稳定性,但需要配置专门的调速器设备。

5. 液力耦合器调节:液力耦合器是一种利用液体传递动力的装置,可以将卧式泡沫泵与电动机之间的传动损失降低到最低。通过调节液力耦合器的油压,可以实现对卧式泡沫泵流量的无级调节。液力耦合器具有结构简单、可靠性高、调节精度高等优点,但需要定期更换液体,维护成本较高。

6. 智能控制系统调节:采用先进的智能控制系统对卧式泡沫泵进行调节。智能控制系统可以根据实际工况需求,自动调整卧式泡沫泵的运行参数,实现流量的精确控制。这种方法具有自动化程度高、调节速度快、可靠性好等优点,但投资成本较高。

综上所述,卧式泡沫泵的流量调节方法有多种,可以根据实际工程需求和条件选择合适的调节方式。在实际应用中,也可以将多种调节方法结合使用,以实现更优的流量控制效果。卧式泡沫泵

How to maximize the flow of horizontal foam pump

There are many flow regulation methods for horizontal foam pump, and the following are some common methods:

1. Valve throttling: The simplest way to change the flow rate of a centrifugal pump is to adjust the opening of the pump outlet valve, while keeping the pump speed constant (usually at rated speed). Its essence is to change the position of the pipeline characteristic curve to change the pump operating point. When the valve is turned down, the local resistance of the pipeline increases, and the operating point of the water pump moves to the left at point B, resulting in a corresponding decrease in flow rate. When the valve is fully closed, it is equivalent to an infinite resistance and zero flow rate. At this point, the pipeline characteristic curve coincides with the vertical axis.

2. Frequency conversion speed regulation: the motor speed is controlled by the frequency converter, so as to realize the flow regulation of the horizontal foam pump.

3. Water pump series adjustment: connect the horizontal foam pump in series with another water pump, and change the total flow by adjusting the opening of the outlet valves of the two water pumps. When one water pump turns down the valve, the outlet valve of the other water pump opens larger, resulting in an increase in total flow rate; On the contrary, when one water pump opens the valve larger, the outlet valve of the other water pump closes smaller, and the total flow rate decreases. This method is suitable for parallel use of multiple horizontal foam pumps.

4. Water pump governor adjustment: the governor is used to adjust the horizontal foam pump. The governor can change the input voltage or current of the motor to achieve control of the motor speed. The flow of horizontal foam pump can be changed by adjusting the motor speed. This method has good adjustment accuracy and stability, but requires specialized governor equipment.

5. Adjustment of hydraulic coupler: hydraulic coupler is a device that uses liquid to transmit power, which can minimize the transmission loss between horizontal foam pump and motor. The flow of the horizontal foam pump can be adjusted steplessly by adjusting the oil pressure of the hydraulic coupler. Hydraulic couplers have the advantages of simple structure, high reliability, and high adjustment accuracy, but they require regular liquid replacement and high maintenance costs.

6. Intelligent control system adjustment: adopt advanced intelligent control system to adjust the horizontal foam pump. The intelligent control system can automatically adjust the operating parameters of the horizontal foam pump according to the actual working conditions, so as to achieve accurate flow control. This method has the advantages of high automation, fast adjustment speed, and good reliability, but the investment cost is high.

To sum up, there are many flow adjustment methods for horizontal foam pumps, and appropriate adjustment methods can be selected according to actual engineering needs and conditions. In practical applications, multiple adjustment methods can also be combined to achieve better flow control effects.