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The IO card can be controlled and monitored through an integrated Ethernet interface. The main circuit can be extended by two additional IO extension cards handling together up to 32 more digital inputs and 32 more RELAY outputs over the standard ports. There is also an integrated I2C interface featuring third party ICs and circuit connections. The MCU can handle external signals as interrupts, can store the input states until readout operations, and can execute macros regarding predefined switching sequences. All digital inputs are optically isolated.
The digital inputs are overvoltage protected and features selectable input logic. In accordance of the application requirements they can be individually selected as active HIGH or LOW inputs. Also an RS485 communication port is included in the latest version

The 2x16 IO Card controls this peripheral through I2C interface with a maximum frequency up to 400kHz. The digital inputs are overvoltage protected and features selectable input logic. In accordance of the application requirements, they can be individually selected as active HIGH or LOW inputs. Each input channel is optically coupled for more flexibility in applications.

The circuit comes with a predefined NI LabView VI interface for easy system integration and has a standalone graphical user interface for testing and configuration purposes

The 2x16 IO Card controls this peripheral through I2C interface with a maximum frequency up to 400kHz. The integrated low side driver outputs can sink up to 500mA individually. Each output channel can be controlled individually for more flexibility in applications.

The circuit comes with a predefined NI LabView VI interface for easy system integration and has a standalone graphical user interface for testing and configuration purposes

Targeting user’s protections, the device implements hardware techniques to improve safety. The spring loaded contacts insulation can withstand 5kV (tested) on adjacent poles. The mechanism was tested performing over 100k ON/OFF cycles without significant wearnes. The switch is pneumatically actuated with integrated electrovalve and autonomously switches off in case of air leakage

The Extension card is controlled and monitored by the 2x16 IO Eth V4.1 microcontroller on the same internal interface as the main circuits. The Extension card should be linked to a 2x16 IO Eth V4.1 by a ribbon cable. It is also possible to link one more extension circuits in the chain. Therefore the 2x16 IO Eth V4.1 card's MCU can extendedly handle more external signals, can store more input states until readout operations, can drive more outputs and can execute macros regarding predefined switching sequences.

The digital inputs are overvoltage protected and feature selectable input logic beside optical isolation. In accordance with the application requirements they can be individually selected as active HIGH or LOW inputs

The multiplexer circuit can be controlled and monitored through an Ethernet interface. In addition the circuit integrates a single bus structure over RS485 interface featuring address based extension of the switching matrix up to a maximum of 75 rows and 960 columns in one common MUX circuit.

All switches are implemented with OPTO-MOSFET based SSR relays. Each individual node can switch and hold a maximum current of 500mA.

Individual switches can be turned ON or OFF in sequential order or in a parallel handled group based on specialized commands sent to the MUX MCU over a TCP/IP socket

The multiplexer circuit can be controlled and monitored through an Ethernet interface featuring address based extension of the switching matrix up to a maximum of 120 rows and 480 columns in one common MUX circuit. All switches are implemented with OPTO-MOSFET based SSR relays. Each individual node can switch and hold a maximum current of 500mA. Individual switches can be turned ON or OFF in sequential order or in a parallel handled group based on specialized commands sent to the MUX MCU over a TCP/IP socket

Used in electronic circuit design where electrical values can be substituted into a circuit and replace standard value component helping to find the optimum value for circuit operation instead of trialling several components individually. The on-board relays control the resistors that get included in the network. In addition a small display shows the actual resistor value

The circuit allows accurate sensing distance adjustment and can switch various resistive, inductive and capacitive loads on output. The output is also protected against short circuits, thermal overloads and electrostatic discharges.

The interface board has dedicated soldering pads allowing it to directly connect reflective sensors (ANODE, CATHODE, EMITTER, COLLECTOR), supply voltage and output signal