Showing all 10 results

K18 series Open-Loop current sensor

Accuracy: 1%
Measuring Range: 3A|5A|10A|15A|20A|25A|30A
Output: ±4V@IPN
Supply Voltage: ±15V

 

The K18 series is an Open-Loop current sensor based on the Hall effect. It provides electronic measurement of DC, AC or pulse currents at the same time, and their combinations with galvanic between the primary (high current) and secondary circuits, PCB mount design is suitable for general low power applications.

LF01 series fluxgate current sensor

Accuracy: 0.1%
Measuring Range: 6A|15A|25A|50A
Output: 2.5±0.625V@IPN
Supply Voltage: 5V

The LF01 series fluxgate current sensor incorporates dynamic fluxgate detection technology. Its design is simple and practical, with the ability to inhibit high-temperature drift. Fluxgate technology makes use of the phenomenon of magnetic core saturation to modulate the measured magnetic field, transforming it into an electric field and thus, completing the magnetic field measurement process.

LF01-25 fluxgate current sensor

Accuracy: 0.1%
Measuring Range: 25A
Output: 2.5±4V@IPN
Supply Voltage: 5V

The LF01 series fluxgate current sensor incorporates dynamic fluxgate detection technology. Its design is simple and practical, with the ability to inhibit high-temperature drift. Fluxgate technology makes use of the phenomenon of magnetic core saturation to modulate the measured magnetic field, transforming it into an electric field and thus, completing the magnetic field measurement process.

N25 Close-Loop current sensor

Accuracy: 0.2%
Measuring Range: 25A
Output: 1,2,3,4:1000(A)
Supply Voltage: ±15V

The N25 is a current transducer which operates on the principle of magnetic compensation with multirange and small size. It measures DC, AC or pulse currents and their combinations, with galvanic isolation techniques used to separate the primary and secondary circuits.

N25A Close-Loop current sensor

Accuracy: 0.15%
Measuring Range: 25A
Output: 1:1000(A)
Supply Voltage: ±15V

The NxxA series is a current transducer which operates on the principle of magnetic compensation. It measures DC, AC or pulse currents and their combinations, with galvanic isolation techniques used to separate the primary and secondary circuits.

N25NEP Close-Loop current sensor

Accuracy: 0.15%
Measuring Range: 25A
Output: 1:1000(A)
Supply Voltage: ±15V

The NxxNEP is a current transducer which operates on the principle of magnetic compensation. It measures DC, AC or pulse currents and their combinations, with galvanic isolation techniques used to separate the primary and secondary circuits.

N25S Close-Loop current sensor

Accuracy: 0.2%
Measuring Range: 25A
Output: 2.5±0.625V@IPN
Supply Voltage: 5V

The N25S is a current transducer which operates on the principle of magnetic compensation with multi-range and small size. It measures DC, AC or pulse currents and their combinations, with galvanic isolation techniques used to separate the primary and secondary circuits.

N25SR Close-Loop current sensor

Accuracy: 0.2%
Measuring Range: 25A
Output: 2.5±0.625V@IPN
Supply Voltage: 5V

The N25SR is a current transducer which operates on the principle of magnetic compensation with multirange and small size. It measures DC, AC or pulse currents and their combinations, with galvanic isolation techniques used to separate the primary and secondary circuits.

NxxA series Close-Loop current sensor

Accuracy: 0.15%
Measuring Range: 25A|50A|100A
Output: 1:1000/1:2000(A)
Supply Voltage: ±15V

 

The NxxA series is a current transducer which operates on the principle of magnetic compensation. It measures DC, AC or pulse currents and their combinations, with galvanic isolation techniques used to separate the primary and secondary circuits.

NxxNEP Close-Loop current sensor

Accuracy: 0.15%
Measuring Range: 25A|50A|100A|125A
Output: 1:1000/1:2000(A)
Supply Voltage: ±15V

The NxxNEP is a current transducer which operates on the principle of magnetic compensation. It measures DC, AC or pulse currents and their combinations, with galvanic isolation techniques used to separate the primary and secondary circuits.