VIU1: Communication & Supply

Gbit-Ethernet

This chapter provides information about the Ethernet interface and its chipset.

Overview

The Ethernet interface is integrated into the camera via an M12-X-Coded connector and allows the camera to be connected to the target network. The evoVIU features the integrated Qualcomm Atheros AR8033 Ethernet transceiver. The IEEE 802.3az standard is supported. The camera can therefore communicate at transfer speeds of 10/100/1000 Mbps.

Key Features Ethernet

• IEEE 802.3az – Standard

• M12 – X -coded – Female Connector

• 10BASE-Te/100BASE-TX/1000BASE-T IEEE 802.3 compliant

• 1000BASE-T PCS and Auto-Negotiation with Next-Page Support

• Automatic polarity correction via IEEE 802.3u-compliant auto-negotiation

• Fully integrated digital adaptive equalizers, echo cancellation, and near-end crosstalk (NEXT) suppression

• Robust cable discharge ±6 kV

• Automatic channel switching (ACS)

• Jumbo frame support up to 10 KB (full-duplex)

• Automatic MDI/MDIX crossover

• Adjustable options in VISIONWEB

• Auto/DHCP mode

• Static IP address

Variant number

XXXXX-XXX-X-X

Ethernet is always installed in the evoVIU as standard.

Supply & Docker

This chapter provides information about the supply and allocation of the various Docker modules.

Overview

The camera is powered via the middle connector. The connector is an M12 industrial connector, whose pin assignment depends on the hardware variant.

The evoVIU hardware offers the option of using various docker interfaces. Docker refers to the interface to another interface, transmission protocol, or external circuitry. In this regard, evoVIU also offers customers the option of requesting their own docker in the portfolio area, for example, to respond to specific system configurations.

The camera may only be connected by a qualified electronics technician.

Docker-A: IO-Link

// Docker A: IO-Link | M12 – 5pol A-codiert

In addition to the hardware trigger, the Docker-A also includes a preparatory implementation of IO-Link integration and is designed to enable the camera to be integrated into modern industrial environments in a process-oriented manner. IO-Link can be used later on to communicate the results generated by image processing and to configure the settings on the part of the system.

An important aspect here is the IODD file, which takes over the device description of the camera for the IO-Link master or the IO-Link master module. In this context, the camera operates as a slave. Port 5 can also be used as an additional trigger.

SYMBOL	PIN	Description
	1	24VDC
	2	DI - IO-Link
	3	GND
	4	C/Q - IO-Link
	5	Digital In - Trigger Input - Hardware-Trigger

• Power Supply

• Digitale In- and Output

• Trigger

• IO-Link

Docker-B: External Light

// Docker B: External Light | M12 – 5pol – A-codiert

The Docker B allows two loads of different heights to be controlled via Digital OUT 1/2. This means, for example, that two lights with up to 50W can be supplied and adjusted via VISIONWEB and VISIONAPI. Digital result transmission can also be enabled with this.

SYMBOL	PIN	Description
	1	24VDC
	2	Digital Output Pin2 (Ilimit: 880mA)
	3	GND
	4	Digital Output Pin4 (Ilimit: 880mA)
	5	Digital In - Triggereingang - Hardware-Trigger

• Power supply

• Digitale Ein- und Ausgänge

• Trigger

Docker-C: GPIO

// Docker C: GPIO | M12 -12pol – A-codiert

The Docker C includes comprehensive GPIO control of the camera results as digital input and output. The digital outputs can forward the results to the end points, while the inputs can be used for triggering or program settings. Pins 09-12 can still output or accept analog values from 0-10V or 4-20mA. With this Docker, the evoVIU can be integrated into older device groups or systems and provide simple information for image processing, control light modules via VISIONWEB and VISIONAPI, or adjust brightness.

SYMBOL	PIN	Description
	1	24VDC
	2	GND
	3	Digital IN1
	4	Digital IN2
	5	Digital OUT1 (Ilimit: 1000mA) or (Pin6…8)
	6	Digital OUT2 (Ilimit: 500mA)
	7	Digital OUT3 (Ilimit: 250mA)
	8	Digital OUT4 (Ilimit: 250mA)
	9	Analog/Digital IO1 (Input or Output)
	10	Analog/Digital IO2 (Input or Output)
	11	Analog/Digital IO3 (Input or Output)
	12	Analog/Digital IO4 (Input or Output)

• Power supply

• Digital inputs and outputs

• Trigger

• Analog inputs and outputs

Variant number

XXXXX-BXX-X-X

A: IO-Link END OF LIFE / B: External Light ACTIVE / C: GPIO MATURE

Wi-Fi / SMA-Antenna

This chapter provides information about the Wi-Fi/SMA antenna and its chipset.

Overview

The SMA antenna is included as standard in the evoVIU packaging and can be easily screwed onto the SMA socket. It is recommended to tighten the antenna afterwards with an open-end wrench.

The antenna provides the camera with the following options:

Technical Data:

// WiFi

The evoVIU contains the LSR pre-certified high-performance Sterling-LWB5 dual band 2.4/5 GHz Wi-Fi® Smart Ready multi-standard module, which is based on the CYW43353 chipset from Cypress and supports the IEEE standard 802.11 ac/a/b/g/n.

Key Features Wi-Fi

• IEEE 802 ac/a/b/g/n

• SMA-Female Connector

• Country certification: FCC (USA), IC (Canada), ETSI (Europe), Giteki (Japan), and RCM (AU/NZ)

• Adjustable options in VISIONWEB

  • Disabled – WiFi interface is switched off

  • Access point – WiFi interface provides an access point – information in the OverVIU information

  • Auto – Scan of the surrounding network area with login

  • Static – Own login to the WiFi network with IP address setting

Converting Wi-Fi to mobile

Application with mobile communication

Mobile communication is not yet possible at this time. We will inform you when a software update is available.

The following activity may only be performed by a trained specialist. Evopro accepts no liability for any damage incurred.

• Shut down the evoVIU Smart Camera via the application.

• Switch off the camera's power supply.

• Unscrew the rear plate of the camera.

• When dismantling, make sure that the thermal paste does not pull the SOM module down with it.

• The SMA antenna is plugged into the u.FL connector of the SOM module. Carefully unplug it and plug it back into the u.FL connector of the docker.

• Check that the thermal paste is still in the correct position on the cover plate.

• Check that the u.FL cable does not cause a short circuit with other electronic components.

• Insert the nanoSIM into the SIM slot of the docker.

• Screw the cover plate back on.

Smooth transition from Wi-Fi to mobile

If you can access the camera interface, you have done everything correctly.

If you cannot access the application, please check the above steps again. If the camera switches off after a short time, please check that the thermal paste is in the correct position.

Variant number

XXXXX-X0X-X-X

0: Wi-Fi / 1: Mobil