ENTUBE DE-HB (50V 10V DIFFSC)

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Entube De-HB (50V 10V diffsc) monitors, also known as De-HB, are current/voltage transducers used widely in industrial applications. With a low cost and high accuracy, these transducers are the ideal choice for many operations. The following is an overview of Entube De-HB and the various application fields and working principles associated with them.

Application Fields

Entube De-HB is used to measure a variety of part, such as high-voltage alternating current, low-voltage alternating current, direct current, and current/voltage loss caused by capacitance. The current and voltage drop across the entrance of the transducer must be in the range of 0.05V and 0.3V. The Entube De-HB can also measure the insulation resistance of materials. To measure insulation resistance, the transducer must be connected to a testing instrument.

The Entube De-HB is used widely in the power industry. Power companies use transducers to monitor the power grid system, track and analyze the performance of power facilities, measure current, voltage, and power, detect faults, and collect statistical data. The transducer can also be installed in micro-grids and distributed energy systems.

Entube De-HB is widely used in industrial automation and control systems. It can be used to measure process parameters, such as temperature, pressure, and humidity, as well as the performance of industrial equipment. The transducer can also generate signals to convert analog signals to digital signals.

Entube De-HB is also used in renewable energy systems. These transducers are used for voltage and current measurements in solar, wind, hydro, and other renewable energy sources. They are also used to measure the power output of renewable energy sources.

Working Principle

The Entube De-HB operates on the principle of differential measurement. The transducer consists of two conducting elements: the primary element and the secondary element, which are placed close together. When current is applied to the primary element, a magnetic field is created which induces currents in the secondary element. The primary and secondary element are connected to a voltage divider and the voltage signals from the two elements are then compared and processed.

The primary element of the Entube De-HB contains the sensing coils which receive the input signals. The signals interact with the magnetic material to generate a field. The secondary element contains the sensing coils which measure the induced voltage. The voltage signals from the two elements are then compared and processed and the differential voltage between them is measured.

The Entube De-HB has a wide dynamic range and high accuracy. The accuracy of the transducer can be improved by configuring it in a differential measurement configuration. This configuration increases the resolution of the transducer, resulting in higher accuracy. The transducer also has a wide input range and can measure currents up to 50V and voltage drops up to 10V with minimal error.

In addition, the Entube De-HB is resistant to noise and has a high frequency response. The measurement accuracy is further enhanced by its low input voltage and low temperature coefficient. The transducer also consumes low power and operates without external power, making it ideal for battery-powered applications.

Conclusion

Entube De-HB is a reliable and accurate current/voltage transducer suitable for a wide range of industrial applications. It is resistant to noise, has a wide dynamic range, and operates on low power. The transducer has a wide input range and can measure currents up to 50V and voltage drops up to 10V with minimal error. Finally, the Entube De-HB has a low temperature coefficient and is able to measure insulation resistance.

The specific data is subject to PDF, and the above content is for reference