The SICK DBS60E-S4EM05000 is a high-performance, bearingless absolute encoder from the DBS60 series, designed for extreme industrial environments. This model features an exceptionally large 500 mm internal diameter and supports the EnDat 2.2 bidirectional digital interface, making it ideal for heavy-duty applications requiring absolute position feedback, advanced diagnostics, and reliable operation in challenging conditions.

The SICK DBS50E-SKEJ01024 is a high-precision, bearingless absolute encoder from the DBS50 series, designed to provide accurate rotational position feedback without requiring internal bearings. This model features a 102.4 mm internal diameter and supports the Hiperface DSL® digital interface, making it an ideal solution for advanced servo drive applications requiring high-resolution feedback, fast data transmission, and robust performance in demanding industrial environments.

The SICK DBS50E-S5CJ01024 is a high-precision, bearingless absolute encoder from the DBS50 series, designed to provide accurate rotational position feedback without requiring internal bearings. This model features a 102.4 mm internal diameter and supports the CANopen interface, making it an ideal solution for advanced applications requiring network integration, high-resolution feedback, and robust performance in demanding industrial environments.

The SICK DBS50E-S5EK01000 is a high-precision, bearingless absolute encoder from the DBS50 series, designed to provide accurate rotational position feedback without requiring internal bearings. This model features a 100 mm internal diameter and supports the EnDat 2.2 bidirectional digital interface, making it an ideal solution for advanced applications requiring high-resolution feedback, diagnostics, and parameterization capabilities in demanding industrial environments.

The SICK DBS60E-S4AK05000 is a high-precision, bearingless absolute encoder from the DBS60 series, designed to provide accurate rotational position feedback without requiring internal bearings. This model features an extremely large 500 mm internal diameter and supports the 1 Vpp sinusoidal output (analog incremental), making it an ideal solution for velocity control applications in extra-large-scale machinery where absolute positioning is not required but high-resolution analog feedback is essential.

The SICK DBS50E-SKEL02000 is a high-precision, bearingless absolute encoder from the DBS50 series, designed to provide accurate rotational position feedback without requiring internal bearings. This model features a 200 mm internal diameter and supports the EnDat 2.2 bidirectional digital interface, making it an ideal solution for advanced applications requiring high-resolution feedback, diagnostics, and parameterization capabilities in large-scale machinery.

The SICK DBS60E-S4EK03600 is a high-precision, bearingless absolute encoder from the DBS60 series, designed to provide accurate rotational position feedback without requiring internal bearings. This model features a large 360 mm internal diameter and supports the EnDat 2.2 bidirectional digital interface, making it an ideal solution for advanced applications requiring high-resolution feedback, diagnostics, and parameterization capabilities in large-scale machinery.

The SICK DBS36E-BBRK02500 is a high-resolution, bearingless rotary encoder from the DBS36 series. It is designed to measure rotational speed, position, and angle on a separate, customer-supplied shaft without requiring a direct mechanical coupling (like a coupling or integrated bearings).

The SICK DBS50E-SKAK01024 is a high-precision, bearingless absolute encoder from the DBS50 series. It is engineered to provide accurate rotational position and speed feedback by utilizing the existing bearings of a machine's shaft, eliminating the need for its own internal bearings or a flexible coupling.

The SICK DBS50E-S5EN00200 is a high-resolution, bearingless absolute encoder from the DBS50 series. It is designed to provide precise rotational position and speed feedback by utilizing the existing bearings of a machine's shaft, eliminating the need for its own internal bearings and thus avoiding a common point of failure.