Beckhoff EPI1 Series Documentation

Beckhoff EPI1 Series Documentation

Io-link box modules with digital inputs
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Documentation | EN
EPI1xxx, ERI1xxx
IO-Link box modules with digital inputs
2022-07-21 | Version: 1.6

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Summary of Contents for Beckhoff EPI1 Series

  • Page 1 Documentation | EN EPI1xxx, ERI1xxx IO-Link box modules with digital inputs 2022-07-21 | Version: 1.6...
  • Page 3: Table Of Contents

    Table of contents Table of contents 1 Foreword .............................. 5 Notes on the documentation ...................... 5 Safety instructions .......................... 6 Documentation issue status ...................... 7 2 Product overview ............................ 8 EPI1xxx, ERI1xxx Module overview.................... 8 EPI1008-000x, ERI1008-000x ...................... 9 2.2.1 Introduction ........................ 9 2.2.2 Technical Data .........................
  • Page 4 Table of contents 5.2.3 Removal of IO-Link devices .....................  45 5.2.4 Activating the configuration .................... 46 Settings of the IO-Link devices .......................  47 EPIxxxx, ERIxxxx - Setting of the IO-Link device parameters ............ 49 ADS access to device parameters .................... 60 Configuration of the digital inputs ....................
  • Page 5: Foreword

    , XTS and XPlanar are registered trademarks of and licensed by Beckhoff Automation GmbH. Other designations used in this publication may be trademarks whose use by third parties for their own purposes could violate the rights of the owners. Patent Pending...
  • Page 6: Safety Instructions

    All the components are supplied in particular hardware and software configurations appropriate for the application. Modifications to hardware or software configurations other than those described in the documentation are not permitted, and nullify the liability of Beckhoff Automation GmbH & Co. KG. Personnel qualification This description is only intended for trained specialists in control, automation and drive engineering who are familiar with the applicable national standards.
  • Page 7: Documentation Issue Status

    Foreword Documentation issue status Version Comment • Imprint updated • Structure update • Dimensions updated • UL requirements updated • Status LEDs for power supply updated • Chapter "process data" added • ERI1xxx added • Introduction updated • Technical Data updated •...
  • Page 8: Product Overview

    Product overview Product overview EPI1xxx, ERI1xxx Module overview Digital input modules Module Signal Number of Filter (Default Housing connection inputs setting) 8 x M8 3.0 ms Industrial housing EPI1008-0001 [} 9] 8 x M8 3.0 ms Zinc die-cast housing ERI1008-0001 [} 9] 4 x M12 3.0 ms Industrial housing EPI1008-0002 [} 9]...
  • Page 9: Epi1008-000X, Eri1008-000X

    Product overview EPI1008-000x, ERI1008-000x 2.2.1 Introduction IO-Link n.c. interface Class A n.c. +24 V U Digital Input inputs EPI1008-0001 ERI1008-0001 n.c. IO-Link interface Class A n.c. +24 V U Input B Digital Input A n.c. inputs EPI1008-0002 ERI1008-0002 8 digital inputs 24 V The EPI1008 IO-Link box module with digital inputs acquires binary control signals from the process level and transfers them, with electrical isolation, to the controller.
  • Page 10: Technical Data

    Product overview 2.2.2 Technical Data All values are typical values over the entire temperature range, unless stated otherwise. IO-Link Connection 1 x M12 plug, 5-pin, A-coded Data transfer rate 230.4 kbaud (COM 3) Specification version IO-Link V1.1, Class A Requirements for IO-Link master V1.1 Current consumption from L+ 100 mA + sensor supply Digital inputs EPI1008-0001...
  • Page 11 Product overview Test Explanation Vibration 10 frequency sweeps in 3 axes 5 Hz < f < 60 Hz displacement 0.35 mm, constant amplitude 60.1 Hz < f < 500 Hz acceleration 5 g, constant amplitude Shocks 1000 shocks in each direction, in 3 axes 35 g, 11 ms EPI1xxx, ERI1xxx Version: 1.6...
  • Page 12: Process Image

    Product overview 2.2.3 Process image Input 0 to Input 7 The IO-Link device is connected to IO-Link Port1 of the IO-Link master (EP6224-2022). You will find the 8 digital inputs of the module (here using the EPI1008-0001 as an example) under Input 0 to Input 7.
  • Page 13: Epi1809-002X, Eri1809-002X

    Product overview EPI1809-002x, ERI1809-002x 2.3.1 Introduction IO-Link n.c. interface Class A n.c. +24 V U Digital Input inputs EPI1809-0021 ERI1809-0021 n.c. IO-Link interface Class A n.c. Digital +24 V U inputs Input B Input A n.c. EPI1809-0022 ERI1809-0022 16 digital inputs 24 V The EPI1809-002x, ERI1809-002x IO-Link box modules with digital inputs acquire binary control signals from the process level, and transfer them, electrically isolated, to the controller.
  • Page 14: Technical Data

    Product overview Quick links Installation [} 21] 2.3.2 Technical data All values are typical values over the entire temperature range, unless stated otherwise. IO-Link Connection 1 x M12 plug, 5-pin, A-coded Data transfer rate 230.4 kbaud (COM 3) Specification version IO-Link V1.1, Class A Requirements for IO-Link master V1.1 Current consumption from L+ 100 mA + sensor supply...
  • Page 15 Product overview Additional tests The devices have undergone the following additional tests: Test Explanation Vibration 10 frequency sweeps in 3 axes 5 Hz < f < 60 Hz displacement 0.35 mm, constant amplitude 60.1 Hz < f < 500 Hz acceleration 5 g, constant amplitude Shocks 1000 shocks in each direction, in 3 axes 35 g, 11 ms EPI1xxx, ERI1xxx Version: 1.6...
  • Page 16: Process Image

    Product overview 2.3.3 Process image Input 0 to Input 15 The IO-Link device is connected to IO-Link Port1 of the IO-Link master. You will find the 16 digital inputs of the module (here using the EPI1809-0021 as an example) under Input 0 to Input 15.
  • Page 17: Io-Link Basics

    The IO-Link master provides the interface to the higher-level controller and controls communication with the connected IO-Link devices. The IO-Link masters from Beckhoff have several IO-Link ports, to each of which one IO-Link device can be connected. IO-Link is not a fieldbus, but rather a point-to-point connection.
  • Page 18 IO-Link basics CAUTION Risk of device damage The IO-Link devices must be supplied from the 24 V power supply of the IO-Link master provided for this purpose. Otherwise, damage to the IO-Link port is possible. Version: 1.6 EPI1xxx, ERI1xxx...
  • Page 19: Establishment Of Io Link Communication

    IO-Link basics Establishment of IO Link communication The establishment of the IO-Link communication is illustrated in Fig. Establishment of IO-Link communication. This illustrates in particular the sequence when automatically scanning [} 40] the IO-Link port. Fig. 3: Establishment of IO Link communication •...
  • Page 20: Device Description Iodd

    In order to be able to use the functionality of the parameter server, both the IO-Link master and the IO-Link device must be specified to V1.1. The IO-Link revision of the device can be read for the individual port under Settings [} 47]. All IO-Link masters from Beckhoff with current firmware support the IO-Link specification V1.1.
  • Page 21: Mounting And Connection

    Mounting and connection Mounting and connection Mounting 4.1.1 Dimensions EPIxxxx-xx0x and ERIxxxx-xx0x 26.5 13.5 Ø 3.5 All dimensions are given in millimeters. The drawing is not true to scale. Housing features Housing material PA6 (polyamide) Sealing compound polyurethane Mounting two mounting holes Ø 3.5 mm for M3 Metal parts brass, nickel-plated Contacts...
  • Page 22: Dimensions Epixxxx-Xx2X And Erixxxx-Xx2X

    Mounting and connection 4.1.2 Dimensions EPIxxxx-xx2x and ERIxxxx-xx2x 26.5 Ø 4.5 All dimensions are given in millimeters. The drawing is not true to scale. Housing features Housing material PA6 (polyamide) Sealing compound polyurethane Mounting two mounting holes Ø 4.5 mm for M4 Metal parts brass, nickel-plated Contacts...
  • Page 23: Fixing

    Mounting and connection 4.1.3 Fixing Protect connectors against soiling Protect all connections from contamination during module installation! Protection class IP65 can only be guaranteed if all cables and connectors are connected! Unused connections must be pro- tected with the appropriate connectors! Connector sets see catalog. Modules with narrow housing are installed with two M3 screws.
  • Page 24: Tightening Torques For Plug Connectors

    Mounting and connection 4.1.4 Tightening torques for plug connectors Screw connectors tight with a torque wrench. (e.g. ZB8801 from Beckhoff) Connector diameter Tightening torque 0.4 Nm 0.6 Nm Version: 1.6 EPI1xxx, ERI1xxx...
  • Page 25: Io-Link Connection

    Mounting and connection IO-Link connection 4.2.1 IO-Link master connection IO-Link interface The IO-Link specification defines various IO-Link pin assignment, which are described in the following section. The switching and communication line is marked with (C/Q). Port Class A (type A): The function of pin 2 and pin 5 is not preset. The vendor can assign an additional digital channel to pin 2.
  • Page 26: Connection Io-Link Device

    IO-Link cable Fig. 9: Example IO-Link cable: male to female The cables available from Beckhoff for the IO-Link system can be found under the following link under "Accessories": https://beckhoff.de/english/fieldbus_components_accessories/m12_sensor_5w.htm? id=51657421126830456 IO-Link cable A 3-core IO-Link cable may be sufficient for Class A masters/devices from Beckhoff. A Class B master/device requires a 5-wire IO-Link cable.
  • Page 27: Io-Link Status Led

    Mounting and connection IO-Link connection, Device (narrow housing) IO-Link connection, Device (wide housing) 4.2.3 IO-Link status LED IO-Link Device status LED (wide housing) IO-Link Device status LED (narrow housing) LED display Display Meaning IO-Link status LED (X1) IO-Link communication inactive flashes green (1Hz) IO-Link communication active red illuminated...
  • Page 28: Signal Connection

    Mounting and connection Signal connection 4.4.1 Digital inputs M8 and M12 The digital input modules acquire the binary control signals from the process level and transmit them to the higher-level automation unit. The signals are optionally connected via screw-in M8 connectors (EPI1xxx-00x1, ERI1xxx-00x1) or screw-in M12 connectors (EPI1xxx-00x2, ERI1xxx-00x2).
  • Page 29: Ul Requirements

    Mounting and connection UL Requirements The installation of IO-Link box modules certified by UL has to meet the following requirements. Supply voltage CAUTION CAUTION! This UL requirements are valid for all supply voltages of all marked IO-Link box modules. For the compliance of the UL requirements IO-Link box modules should only be supplied •...
  • Page 30: Cabling

    (type B) cable with a maximum length of 20 m. The IO-Link cables are available as straight and angled versions. Further information about the IO-Link connection can be found under: IO-Link master connection [} 25] Fig. 12: Example IO-Link cable: male to female Sensor cable Fig. 13: Selection of sensor cables available from Beckhoff Version: 1.6 EPI1xxx, ERI1xxx...
  • Page 31: Commissioning And Configuration

    EtherCAT XML device description and configuration files The display matches that of the CoE objects from the EtherCAT XML Device Description. We rec- ommend downloading the latest XML file from the download area of the Beckhoff website and in- stalling it according to installation instructions.
  • Page 32: Integrating Io Link Devices

    Commissioning and configuration 5.1.1 Integrating IO link devices There are several ways of integrating an IO-Link device: 1. Importing the IODD file [} 32] (offline & online) 2. Automatic scanning of the IO-Link ports [} 33] (online) 3. Manual insertion via catalog [} 33] (offline & online) Fig. 15: "IO-Link"...
  • Page 33 Commissioning and configuration • Offline configuration: the IO-Link device catalog is called with the "Catalog" button; the device descriptions that have already been imported are listed here, arranged in a tree structure according to the vendor. The selection of the IO-Link device must be confirmed with "OK". •...
  • Page 34: Removal Of The Io-Link Devices

    Commissioning and configuration Fig. 16: Creating IO link devices Reading the IODD Even when manually creating and scanning, the IODD should always be read in as well in order to display further sensor-specific information. 5.1.2 Removal of the IO-Link devices If an IO-Link device that is already configured is to be removed, this can be done via the selection "none" in the IO-Link Device Catalog.
  • Page 35: Configuration Of The Io-Link Devices

    The device catalog contains an alphabetically sorted list of the IO-Link devices for which a device description (IODD) exists in the local TwinCAT installation. The IODDs for the EPIxxxx, ERIxxxx IO-Link Box modules from Beckhoff can be downloaded via the Download finder. The downloaded zip file contains the IODD device description files for the Beckhoff EPIxxxx, ERIxxxx IO-Link Box modules.
  • Page 36: Integrating Io-Link Devices

    Commissioning and configuration 5.2.2 Integrating IO-Link devices The integration of the IODD file should always be the first step, since this enables the breakdown of the individual process data of the IO-Link devices as well as the display of the parameters. There are several ways of integrating an IO-Link device: 1.
  • Page 37 Commissioning and configuration 5.2.2.1 1. Importing the device description IODD Importing the device description simplifies the integration of the IO-Link devices. The individual process data are broken down, enabling simple parameterization of the sensor. The IODD only needs to be imported during the initial commissioning of a new IO-Link device.
  • Page 38 Commissioning and configuration Fig. 20: IODD Finder, selection and import of the .xml-file 4. After clicking the download symbol, the .xml file of the selected IO-Link sensor/device is imported and stored in the following folder: - for TwinCAT 2.x: \TwinCAT\IO\IOLink - for TwinCAT 3.x: \TwinCAT\3.X\Config\IO\IOLink 5.
  • Page 39 Commissioning and configuration 5.2.2.2 2. Assigning IO-Link device to port n Online configuration ü Requirement: The IO-Link device is connected. 1. Press the button Scan devices (see chapter Automatic scanning [} 40]) ð The device is automatically detected and created with the corresponding parameters. If several devices are stored in the IODD file, the first entry is always selected here.
  • Page 40 Commissioning and configuration 5.2.2.3 3. Automatic scanning of the IO-Link ports This part of the documentation describes the configuration of the physically available IO-Link devices in TwinCAT. During automatic scanning of the IO-Link ports, the steps “WakeUp pulse”, “Baud rate setting”, “Reading of the communication parameters”, plus “Parameter server”...
  • Page 41 Commissioning and configuration The IO-Link devices are now entered in the General display. The Port2 “Details” field displays information about the connected device. Additionally the tabs Settings [} 42] and Parameter [} 43] can be opened. Fig. 24: Device at Port2, Display “Details”, open tabs “Settings” and “Parameter” EPI1xxx, ERI1xxx Version: 1.6...
  • Page 42 Commissioning and configuration Show settings of the device 3. Right-click on port2, to display more details in dialog “Settings”. 4. If necessary, change the settings as described in chapter Settings of the IO-Link devices [} 47]. Fig. 25: Settings of the device assigned to port2 Version: 1.6 EPI1xxx, ERI1xxx...
  • Page 43 Commissioning and configuration Show parameters of the device 5. Open the Parameter tab via - double-click on Port2 or - richt-click on Port2 and select “Parameter” in the menu. ð The Parameters of of the respective IO link device are listed. 6.
  • Page 44 Commissioning and configuration 5.2.2.4 4. Manual insertion via Create Device This part of the documentation describes the manual configuration of the IO-Link devices in TwinCAT. The manual insertion of the IO-Link device should only be carried out if the IODD from the vendor and the IO-Link device are not available.
  • Page 45: Removal Of Io-Link Devices

    Commissioning and configuration 5.2.3 Removal of IO-Link devices To remove a device that has already been inserted, proceed as follows. 1. Right-click on the port to open the context menu and select “Delete”. Fig. 28: Remove the device from port2 2. Activate the IO link configuration [} 46], so that changes become effective. ð...
  • Page 46: Activating The Configuration

    Commissioning and configuration 5.2.4 Activating the configuration Changes in the IO-Link configuration tool only become effective when you activate the IO-Link configuration. There are two ways to activate the IO-Link configuration: • Click on the "Reload Devices" button • Activate the TwinCAT configuration: Click on the "Activate Configuration"...
  • Page 47: Settings Of The Io-Link Devices

    Commissioning and configuration Settings of the IO-Link devices To find the basic settings of the devices for each port, proceed as follows. 1. right-click on the port to open the context menu and select “Settings”. ð A new tab “Portx:: Settings” opens where the settings described below can be made. Fig. 30: Context menu - Settings Fig. 31: Settings of the IO-Link devices EPI1xxx, ERI1xxx...
  • Page 48 ð complex data types (process data) are created as octet strings. Advantage: simple further processing in the 9. Firmware Update of the Beckhoff IO-Link devices For a firmware update use the “Download” button. Observe the description in the documentation of EPIxxxx boxes in chapter Firmware Update des IO-Link Devices.
  • Page 49: Epixxxx, Erixxxx - Setting Of The Io-Link Device Parameters

    Commissioning and configuration EPIxxxx, ERIxxxx - Setting of the IO-Link device parameters This chapter explains how to read out and set the IO-Link device parameters. The number and type of the objects shown on the “Parameters” tab vary according to the type of sensor. The default settings as stored in the IODD can initially be seen.
  • Page 50 Commissioning and configuration “Compare” button 1. Press the “Compare” button. ð the parameter data of the configuration are compared with the parameter sets in the sensor. ð The result is displayed in the “Parameter” tab see following figures. Conformity of configuration and sensor data The match is confirmed by a green tick in front of the index.
  • Page 51 Commissioning and configuration Fig. 34: Compare configuration and sensor data EPI1xxx, ERI1xxx Version: 1.6...
  • Page 52 Commissioning and configuration “Read” button The default values from the IODD file are always preset 1. Press the “Read” button ð The current parameter values of the sensor are read. The successful reading of the data is confirmed with a green tick in front of the index. “Write”...
  • Page 53 Commissioning and configuration “Set Default” button 1. Press the “Set Default” button. ð All parameter values are set to the default settings. Write default-values to the sensor Note that the default-values must also be written to the device via the “Write” button. Fig. 36: Reset parameter values to default EPI1xxx, ERI1xxx Version: 1.6...
  • Page 54 Commissioning and configuration “Export / Import” button The set parameter values can be exported as a .vbs file and restored later via Import. 1. Press the “Export / Import” button (see the diagram below (1)). ð The Import / Export dialog is opened 2.
  • Page 55 Commissioning and configuration “Store” button 1. Click “Store” (data storage): ð The Beckhoff IO-Link master stores sensor-dependent-data, e. g. the following parameters (0x0018) “Application-Specific Tag”, (0x08n0) “Settings” and 0x3800 “Range Settings”. The success of storing process is marked with the storing symbol.
  • Page 56 Commissioning and configuration Activate store button via PLC As for CoE, the Indexgroup of an ADS command is specified as 0xF302 for the IO link data channel. According to the IO-Link specification devices with ISDU support shall use index 0x0002 to receive the SystemCommand.
  • Page 57 Commissioning and configuration Fig. 41: Store parameters EPI1xxx, ERI1xxx Version: 1.6...
  • Page 58 Commissioning and configuration Standard Command (Index 0x0002) The IO-Link master writes various IO-Link-specific commands to the “Standard Command” during startup. Some of these commands are available in the TwinCAT interface (see figure below). 1. Click “Standard Command” in the parameter list of the “All Objects” user role, then double-click “Standard Command”...
  • Page 59 Commissioning and configuration “Application Specific Tag” (Index 0x0018) Application-specific information can be entered and stored here. 1. Click “Application-Specific Tag” in the parameter list, then double-click “Application-Specific Tag” in the right-hand field. 2. Enter application-specific information and confirm with the Enter key. 3.
  • Page 60: Ads Access To Device Parameters

    Commissioning and configuration ADS access to device parameters The exchange of the acyclic data takes place via a specified index and subindex range that is device-specific and can be read about in the corresponding vendor documentation. Parameter data exchange An intelligent IO-Link sensor/actuator (in the previous figure marked "Sensor (IO-Link Device)") can support parameterization by SPDU (Service Protocol Data Units).
  • Page 61 Commissioning and configuration Fig. 44: AoE-NetID allocation PortNo The individual IO-Link ports for the master are allocated via the port number. The port numbers are allocated in ascending order from 0x1000. I.e. IO-Link Port1 === PortNo 0x1000 and IO-Link Portn === PortNo 0x1000 + n-1. The following specification applies for the EP6224 (4-port IO-Link master): IO-Link Port1 === PortNo 0x1000 IO-Link Port2 === PortNo 0x1001...
  • Page 62 Commissioning and configuration Fig. 45: Reading of the Application-Specific Name Example showing the principle in the code Reading of Application-Specific Name, index 0x0018 subindex 0x00 at IO-Link Port2. AmsAddr adsAdr; adsAdr.netId.b[0] = 0x0A; //AoE-NetID of EP6224 adsAdr.netId.b[1] = 0x03; //AoE-NetID of EP6224 adsAdr.netId.b[2] = 0x02;...
  • Page 63: Configuration Of The Digital Inputs

    Commissioning and configuration Configuration of the digital inputs 5.6.1 Input filter (Index 0x0800:01) The function of the Input filter is explained in the chapter Input debouncing and pulse extension [} 66]. For parameterization of the input filter proceed as follows: 1. Select Specialist in the tab Parameter. 2.
  • Page 64: Signal Extension (Index 0X0800:02)

    Commissioning and configuration 5.6.2 Signal Extension (Index 0x0800:02) The function of the Signal Extension is explained in the chapter Input debouncing and pulse extension [} 66]. For parameterization of the input filter proceed as follows: 1. Select Specialist in the tab Parameter 2.
  • Page 65: Diagnosis (Index 0X0A00)

    Commissioning and configuration 5.6.3 Diagnosis (Index 0x0A00) The Diagnosis parameters vary between the different devices. The meaning of Diagnosis parameters (Index 0x0A00) can be read in the respective chapter Object description and parameterization. (EPI1008-000x, ERI1008-000x [} 75] / EPI1809-002x, ERI1809-002x [} 78]) As an example, the Diagnosis parameters of the EPI1809-0021 are presented in the figure below.
  • Page 66: Input Debouncing And Pulse Extension

    Commissioning and configuration Input debouncing and pulse extension The EPI1xxx, ERI1xxx digital IO-Link box modules support configurable input debouncing and variable pulse extension for all digital inputs. These can be set via device parameter object 0x0800. The set value applies to all digital inputs together. How to set the parameters of the IO-Link devices is explained at Configuration of the digital inputs [} 63].
  • Page 67 Commissioning and configuration Pulse extension time: variable adjustable via device parameter (object 0x0800 subindex 2) Value Pulse extension time [ms] The parameter specifies the extension time of the input pulse in case of pulse change. Short changes of the input pulse during pulse extension are ignored. Fig. 50: Pulse extension If input debouncing and pulse extension are active, then the input pulse is always filtered first and then the result is extended.
  • Page 68: Process Data

    Commissioning and configuration Process data The System Manager shows the EPI1xxx, ERI1xxx process data which are arranged in the tree structure under the associated Port (A) (in the following example EPI1809-0022 is connected to port 1). Depending on the number of channels the EPI1xxx, ERI1xxx offer 8-bit or 16-bit intput data for transmission (A, B).
  • Page 69: Firmware Update Of The Io-Link Device

    5. Select IO-Link firmware files via the Download button (use the file extension *.efw). The Firmware Update dialog is only displayed for supported Beckhoff IO-Link devices. Once the *.efw file has been checked, the firmware update starts automatically. This process must not be interrupted! After a successful update, the box is automatically restarted and therefore usually does not have to be de-energized.
  • Page 70 Commissioning and configuration The firmware version that is currently used can be obtained as follows (see the figure below): 1. Select the EP622x-xxxx Box in the System Manager, 2. In the IO-Link tab, right click on the appropriate port 3. open the Parameter tab, 4.
  • Page 71: Device Parameters

    IO-Link IODD Device Description The display corresponds to the display of the IO-Link device parameters. It is advisable to download the latest IO-Link IODD device description files from the Download section of the Beckhoff website and install them according to the installation instructions.
  • Page 72 Data Storage Lock 0x000C:03 Local Parameterization Lock 0x000C:04 Local User Interface Lock Subindex Name Flags Default value 0x0010 Vendor Name Beckhoff Automation GmbH & Co. KG 0x0011 Vendor Text www.beckhoff.com 0x0012 Product Name EPI1809-0021 0x0013 Product ID EPI1809-0021 0x0014 Product Text...
  • Page 73: Epi1008-000X, Eri1008-000X - Object Description And Parameterization

    0x0018 (application-specific tag) and 0x08n0 (settings) are secured with the IO-Link master. In order to use this functionality, the IO-Link master must also support it. (e.g. with the Beckhoff EP6224-xxxx IO-Link master from firmware 10) Changes to these parameters are saved by the IO-Link master and restored when the box is replace with an identical IO-Link box.
  • Page 74 Index 0010 Vendor Name Index Name Meaning Data type Flags Default (hex) 0010 Vendor Name manufacturer designation String Beckhoff Automation GmbH & Co. KG Index 0011 Vendor Text Index Name Meaning Data type Flags Default (hex) 0011 Vendor Text manufacturer specific text String www.beckhoff.com...
  • Page 75 Device parameters Index 0A00 Diagnosis Index Name Meaning Data type Flags Default (hex) 0A00:01 Overtemperature overheating of the IO-Link modules BOOL FALSE 0A00:02 Short detected short circuit on the IO-Link C/Q data line BOOL FALSE 0A00:03 US low supply voltage too low (< 18V) BOOL FALSE 0A00:04...
  • Page 76: Epi1809-002X, Eri1809-002X - Object Description And Parameterization

    0x0018 (application-specific tag) and 0x08n0 (settings) are secured with the IO-Link master. In order to use this functionality, the IO-Link master must also support it. (e.g. with the Beckhoff EP6224-xxxx IO-Link master from firmware 10) Changes to these parameters are saved by the IO-Link master and restored when the box is replace with an identical IO-Link box.
  • Page 77 Index 0010 Vendor Name Index Name Meaning Data type Flags Default (hex) 0010 Vendor Name manufacturer designation String Beckhoff Automation GmbH & Co. KG Index 0011 Vendor Text Index Name Meaning Data type Flags Default (hex) 0011 Vendor Text manufacturer specific text String www.beckhoff.com...
  • Page 78 Device parameters Index 0A00 Diagnosis Index Name Meaning Data type Flags Default (hex) 0A00:01 Overtemperature overheating of the IO-Link modules BOOL FALSE 0A00:02 Short detected short circuit on the IO-Link C/Q data line BOOL FALSE 0A00:03 US low supply voltage too low (< 18V) BOOL FALSE 0A00:04...
  • Page 79: Appendix

    Appendix Appendix General operating conditions Protection degrees (IP-Code) The standard IEC 60529 (DIN EN 60529) defines the degrees of protection in different classes. 1. Number: dust protection and Definition touch guard Non-protected Protected against access to hazardous parts with the back of a hand. Protected against solid foreign objects of Ø 50 mm Protected against access to hazardous parts with a finger.
  • Page 80: Accessories

    Protective cap for M12 sockets, IP67 (50 pcs.) ZS5100-0000 Inscription labels, unprinted, 4 strips of 10 ZS5000-xxxx Printed inscription labels on enquiry Further accessories Further accessories can be found in the price list for fieldbus components from Beckhoff and online at https://www.beckhoff.com. Tools Ordering information Description ZB8801-0000 Torque wrench for plugs, 0.4…1.0 Nm...
  • Page 81: Support And Service

    Please contact your Beckhoff branch office or representative for local support and service on Beckhoff products! The addresses of Beckhoff's branch offices and representatives round the world can be found on her internet pages: https://www.beckhoff.com You will also find further documentation for Beckhoff components there.
  • Page 83 Beckhoff Automation GmbH & Co. KG Hülshorstweg 20 33415 Verl Germany Phone: +49 5246 9630 info@beckhoff.com www.beckhoff.com...

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