Experience the revolution in measurement technology with the Radiation Detector. It belongs to the new generation of powerful magnetic field measuring devices and uses external digital axial and transverse field probes to carry out precise measurements of DC magnetic fields, alternating fields and pulsed fields of all kinds.
This device is ideally suited as a digital gaussmeter, magnetometer or tesla meter for recording and analyzing magnetic field strength, magnetic field intensity and magnetic flux density. The highly sensitive sensors guarantee reliable measurement results. The application range extends from weak geomagnetic fields to strong fields of up to 40,000 A/cm. This makes the device ideal for industrial magnetic field measurement, magnetic field analysis, flux measurement, field line analysis and various magnetic field test procedures. With this Radiation Detector, you receive professional measuring solutions "Made in Germany", which have been specially developed and manufactured for users.

The graphic LCD touch panel with a resolution of 320×480 pixels and innovative user guidance ensures convenient operation. As a highly developed digital Radiation Detector, it offers functions that go far beyond classic measurement.

An outstanding feature of the new probe electronics is the fast digitization of the measured values at up to 200 kHz. This allows pulse curves with a duration from 0.1 milliseconds to be displayed precisely - ideal for analyzing pulse fields, their intensity and duration.
Alternating field curves with frequencies of up to 20 kHz can also be recorded and saved. This is essential for demanding applications in industrial magnetic field analysis and flux density measurement.

Whether as a magnetometer, tesla meter or specialized solution - this device stands for innovative magnetic field measurement solutions from Germany and sets standards among professional measuring devices. Especially at very low magnetic field strengths, interference-free and precise measurement is crucial. The measuring electronics are located directly in the probe and digitize the signals from the Hall sensor. This technology is at the heart of modern magnetic field sensors and enables high-precision measurement even with the weakest fields. With stable DC fields, the scan function enables the magnetic field to be recorded over a large area with subsequent statistical analysis. This allows field curves to be analyzed in detail - ideal for field line analyses and flux density measurements. Pulse fields can be precisely visualized graphically and thus provide a precise basis for evaluating field intensity and pulse progression - essential for advanced measurement methods.

Data can be transferred via a wireless interface to Windows PCs or apps for Android and iOS - a modern solution for mobile magnetic field measurement systems. Thanks to this flexibility, even complex analyses of magnetic field strength, intensity or flux density can be carried out conveniently. A permanent power supply is possible via the USB interface. An SCPI interface is also integrated, allowing the device to be operated remotely in line mode - ideal for automated test procedures in industrial magnetic field measurement. Even the smallest differences in field strength can be recognized with a magnetic field measuring device - whether it is called a magnetometer, gaussmeter or tesla meter. The high precision enables measurements from the earth's magnetic field and residual magnetism (remanence) to strong magnetic fields with high intensity and flux density. The device is durable and delivers reproducible measurement results - perfect for industrial applications, research and development. An optional calibration standard (reference magnet) enables the measurement accuracy to be checked at any time - indispensable for standardized measurement solutions in the laboratory, development and production. Our systems are among the most reliable magnetic field measuring devices in Germany and fulfil the highest requirements for modern test procedures and measuring methods.