Electronic data processing - Import export

The µCAN.4.ai-F1 is the versatile universal measuring module for analogue standard signals. The module is designed to measure +/- 40 V or -20…+20 mA signals at an overall sampling rate of 4 kHz.

Equipped with CAN or CANopen interfaces and a 19″ slide-in casing, the MicroControl µLAB is particulary suitable for measuring electric, thermal and mechanic signals in engine or components testing facilities. The signal wires are connected to the module by plug-in connectors in the front plate.

Equipped with CAN or CANopen interfaces and a 19″ slide-in casing, the MicroControl µLAB is particulary suitable for measuring electric, thermal and mechanic signals in engine or components testing facilities. The signal wires are connected to the module by plug-in connectors in the front plate.

Equipped with CAN or CANopen interfaces and a 19″ slide-in casing, the MicroControl µLAB is particulary suitable for measuring electric, thermal and mechanic signals in engine or components testing facilities The signal wires are connected to the module by plug-in connectors in the front plate.

Equipped with CAN or CANopen interfaces and a 19″ slide-in casing, the MicroControl µLAB is particulary suitable for measuring electric, thermal and mechanic signals in engine or components testing facilities. The signal wires are connected to the module by plug-in connectors in the front plate.

The module µCAN.4.ci-SNAP is equipped with 4 fast counters of up to 100 kHz. Additional four I/O terminals can be configured individually as digital inputs or outputs.

The µCAN.8.pwm-SNAP unit is equipped with 8 outputs which provide pulse width modulated signals (PWM) within the range of 0% to 100% for controlling of actuators (valves etc.)

The µCAN.8.dio-SNAP is a freely configurable digital I/O module featuring 8 channels. Module ID and bit rate can be set via DIP switch or via CAN bus (LSS, CiA 305). The module supports the protocols CANopen CANopenFD and J1939.

The modul µCAN.4.ao-SNAP features four independent analogue outputs which optionally provide a voltage or a current signal. The CAN interface supports CANopen and J1939 protocols.

The transducer unit µCAN.8.ti-SNAP is equipped with 8 inputs for thermocouples or Pt100 sensors. The integrated CAN interface supports CANopen and J1939 protocols. Bit rate and node-ID may be set via DIP switches inside the device or via LSS.

The decentralized module µCAN.6.ai-SNAP is designed to acquire up to 6 analogue current / voltage signals and converts them into digital CAN signals.

The module µCAN.1.ti-SNAP is designed to acquire temperature signals via Pt100 or J, K and L type thermocouples.

The module µCAN.1.sg-SNAP is designed to acquire strain gauge measurement signals such as forces, torques, sequences and voltages and transfers them via CAN.

The measurement data acquisition module µCAN.1.ai-SNAP acquires analogue measurement signals and links them to the digital CAN world.

The µCAN.4.ci-BOX is equipped with 4 fast counters of up to 100 kHz. The CAN module acquires and processes the binary pulses and transmits them to a higher-level system.

At its eight outputs the µCAN.8.pwm-BOX provides pulse width modulated signals (PWM) within a range of 0% to 100% for controlling of actuators (valves etc.). The outlets are overload and short circuit protected. The µCAN.8.pwm-BOX is connected with the central control unit via CAN bus.

The 8 terminals of the µCAN.8.dio-BOX may individually be set to act as digital inputs or digital outputs. The module preprocesses and filters the digital signals. Its CAN interface supports the protocols CANopen, CANopen FD and J1939.

The µCAN.4.sg-BOX is a decentralized measurement data acquisition module for the acquisition of four strain gauges or resistance bridges. The resistance bridge data is acquired at a total sampling rate of 400 Hz.

The decentralized module µCAN.4.ao-BOX features four analogue outputs which optionally provide a voltage signal (+/- 10 V) or a current signal (0…20 mA). The CAN interface supports the protocols protocols CANopen and J1939.

The µCAN.4.ai-BOX is an extended universal measurement module for the acquisition of analogue standard signals. The device is designed for measuring signals of +/- 10 V, 0…20 mA or 4…20 mA. The CAN interface supports the protocol CANopen.

The µCAN.1.ti-BOX is the single channel solution for the acquisition of temperature signals. Resistance sensors as well as thermocouples may be connected to the module. The CAN interface supports the protocol CANopen.

The µCAN.1.sg-BOX is a decentralized CAN module for the acquisition of strain gauge or resistance bridge signals. The CAN interface supports the protocol CANopen.

The µCAN.1.ai-BOX is a decentralized universal data acquisition module for analogue standard signals (current / voltage). The CAN interface supports the protocol CANopen.

From the Idea to Prototyping to Series Production and Evolution – MicroControl plans, develops and manufactures individual solutions. MicroControl experts will work in close liaison with the customer to realize hardware and software for the desired application. In a following step, a prototype will be developed and manufactured – either by the customer or MicroControl. In the conceptual stage, the required technical specifications of the customer’s application are checked continually.

This pioneering controller goes far beyond the functionality of conventional PLC controllers. As an all in one IoT gateway, CANopen automation controller and top-hat rail PC, the µMIC.200 offers an end-to-end solution.

I/O modules are a fundamental component in industrial automation. They act as an interface between the control unit and the operational devices of the production line, facilitating precise control of complex processes. Our products have a CAN interface, so we support the CANopen, CANopen FD and J1939 protocols

• You already use CAN bus, but would like to exploit the opportunities more effectively? • You are new to CAN bus and want to avoid mistakes? • You have worked with other fieldbuses before and look for an introduction to the CAN features? Benefit form MicroControl’s expertise and attend our webinars! MicroControl’s presence in various bus markets and our expertise gained in more than 25 years of experience guarantee relevant and up-to-date hands-on webinars. Increase quality and efficiency of your development projects, reduce time to market and give your products the competitive edge.

CANopen has been developed by the members of the international user and producer assosiation CAN in Automation (CiA). The CANopen application layer defines different communication services and protocols (e.g. process and service data) as well as a network management. CANopen is mainly used as an embedded network in machinery, but also as a general industrial communications system. It is based on the international standards ISO 11898-1 (CAN protocol) and ISO 11898-2 (fast physical layer). The CANopen application layer has been standardized by the CENELEC and is defined in the European standard EN 50325-4.

Linux is an open operating system. The term “Linux” actually refers to the Kernel of a unix-related operating systemes (derivative). The term is often used as a synonym for the complete operating system (distribution). Further to the programmes necessary in an operating system, e.g. for file and user management, additional graphic frontends, office applications, multi media tools, databases, web browsers and other programmes are covered. Linux is freely available, i.e. the sources are open and the systems may easily be adapted to the individual application. Linux is freely copiable and there are no software license fees and, in addition, it is non-proprietary.