KGS-60

The KGS-60 is a magnetic field current sensing instrument. It is widely used in metallurgy, magnetic field strength measurements, field mapping, environmental monitoring, power system monitoring and other applications. The KGS-60 is based on a Hall effect principle that enables it to detect and measure small amount of electrical current. The device can be used to measure AC and DC up to an accuracy of +/- 0,1%.

The KGS-60 field current sensor works by measuring the magnetic flux emitted from an external source and converting it into an analogue voltage signal that is relative to the current. The sensor is composed of a thin, highly conductive membrane which is divided into two parts. The upper part of the membrane is constructed with a slotted or printed conductive pattern that is in series with the lower part. This creates an electric field in which the magnetic field is the primary source of current.

When a current passes through the electric field, the magnetic flux is generated by the current. This flux is detected by the sensor and converted into an analogue voltage readout. The output from the KGS-60 is either a low voltage DC signal or a high voltage regulated voltage. The output is proportional to the amount of current flow and can be measured using standard multimeter or oscilloscope.

The KGS-60 is suitable for applications that require highly reliable measurements of AC and DC, such as field mapping, power system monitoring, environmental monitoring and metallurgical work. With its high accuracy and low power consumption, it is also an excellent choice for battery powered applications. The KGS-60 is available in various sizes and its signal output can be adjusted for optimal readability by the user.

The main benefits of using the KGS-60 for sensing small and low current devices are its low power requirements, high accuracy and reliability. The KGS-60 also enables easy and quick set up and operation. This makes it an ideal choice for applications requiring rapid set up and an easy to use system.