2π-LABS GmbH products

The X1000 Series Industrial Radar Sensors by 2π-SENSE offer a unique capability in radar technology designed for industrial applications. These sensors operate within the 126 to 182 GHz D-band frequency range, achieving a sweep bandwidth of 56 GHz and a remarkable -3 dB range resolution of 2.4 mm in air. Utilized in various industrial settings, these sensors support applications such as precise distance sensing, multi-layer thickness analysis, foam density measurement, and non-destructive testing (NDT). The sensors come equipped with IP67-rated protection for harsh environments, dual 1 Gigabit Ethernet interfaces, and versatile dielectric lens antennas. Additional options include high stability oscillators for improved accuracy, ruggedized transport cases, and various mounting solutions allowing for flexible integration. The X1000 series positions itself as a solution for high-demand environments where advanced profiling and measurement accuracy are critical, leveraging technologies like FMCW modulation and advanced multi-channel receiver architectures.

The X1000 series scientific radar sensors from 2π-LABS are designed to empower researchers with high-performance radar technology, offering exceptional range resolution, stability, and accuracy. These pocket-sized sensors are equipped with a WR 6.5 waveguide interface and compatible with UG-387/U standard flanges, with dielectric lens antennas available as alternatives. The sensors provide a plug-and-play experience through a USB-C interface for power and data, and support a SCPI-like protocol and an open source Python library, ensuring seamless integration with existing research tools. Operating at a frequency range of 126 to 182 GHz, the X1000 series delivers a -3 dB range resolution of 2.4 mm in air. The system supports FMCW modulation and provides precise measurements at rates of up to 1 kHz, with accuracy levels reaching up to 1 μm. This technology is particularly beneficial for scientific endeavors requiring meticulous measurement and adaptability, with an array of optional accessories to further customize the user experience.

The  technology works, similar to other frequency-modulated continuous-wave (FMCW) systems, by transmitting and receiving linearly swept frequency signals generated by a tunable oscillator. Both signals are multiplied with each other resulting in a beat frequency signal due to the time delay between both signals.