EWM RINT X12 Operating Instructions Manual
EWM RINT X12 Operating Instructions Manual

EWM RINT X12 Operating Instructions Manual

Analoge / digital interface
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Operating instructions
099-000769-EW501
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and benefit!
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und Profitieren!
www.ewm-group.com
Analoge / digital interface
RINT X12
Observe additional system documents!
29.06.2015
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Summary of Contents for EWM RINT X12

  • Page 1 Operating instructions Analoge / digital interface RINT X12 099-000769-EW501 Observe additional system documents! 29.06.2015 Register now and benefit! Jetzt Registrieren und Profitieren! www.ewm-group.com...
  • Page 2 +49 2680 181-0. A list of authorised sales partners can be found at www.ewm-group.com. Liability relating to the operation of this equipment is restricted solely to the function of the equipment. No other form of liability, regardless of type, shall be accepted.
  • Page 3: Table Of Contents

    3.4.4 Service documents (spare parts and circuit diagrams) ..........9 4 Machine description – quick overview ....................10 5 Design and function ..........................11 Connecting the RINT X12 ......................11 5.1.1 The system bus ......................11 5.1.2 The parallel cabling ...................... 11 Basic configuration using plug-in jumpers ...................
  • Page 4 9 Overview of machine software functions (firmware) ................ 45 10 Configuration data overview ....................... 46 11 Circuit diagrams ........................... 48 11.1 Control signal operation ....................... 48 11.2 Program operation ........................50 12 Appendix A ............................52 12.1 Overview of EWM branches......................52 099-000769-EW501 29.06.2015...
  • Page 5: Safety Instructions

    Safety instructions Notes on the use of these operating instructions Safety instructions Notes on the use of these operating instructions DANGER Working or operating procedures which must be closely observed to prevent imminent serious and even fatal injuries. • Safety notes include the "DANGER" keyword in the heading with a general warning symbol. •...
  • Page 6: Explanation Of Icons

    Safety instructions Explanation of icons Explanation of icons Symbol Description Special technical points which users must observe. Correct Wrong Press Do not press Press and keep pressed Turn Switch Switch off machine Switch on machine ENTER ENTER (enter the menu) ENTER NAVIGATION NAVIGATION (Navigating in the menu)
  • Page 7: General

    Safety instructions General General WARNING Risk of accidents if these safety instructions are not observed! Non-observance of these safety instructions is potentially fatal! • Carefully read the safety information in this manual! • Observe the accident prevention regulations in your country. •...
  • Page 8: Intended Use

    Change XX.XX.XXXX Draft version 01/03/2015 MAG, superPuls and lift arc signals, selection of advanced JOBs, EWM Config function, latched modes, Tetrix, additional control voltage, tigSpeed activation Use and operation solely with the following machines WIG / TIG MIG / MAG...
  • Page 9: Documents Which Also Apply

    3.4.1 Warranty For more information refer to the "Warranty registration" brochure supplied and our information regarding warranty, maintenance and testing at www.ewm-group.com! 3.4.2 Declaration of Conformity The designated machine conforms to EC Directives and standards in terms of its design and construction: •...
  • Page 10: Machine Description - Quick Overview

    The interface is intended for operation on digital power sources in the Phoenix / alpha Q (MIG/MAG) and Tetrix / forceTig (WIG) machine series. The same RINT X12 can be used for both power sources. To change from a Phoenix / alpha Q to a Tetrix / forceTig -based welding system, it is merely necessary to change the configuration.
  • Page 11: Design And Function

    5.1.1 The system bus The RINT X12 is integrated into the Phoenix / alpha Q and Tetrix / forceTig welding system using a digital system bus. Different connection types are available depending on the installation method for the control: Figure 5-1...
  • Page 12: Basic Configuration Using Plug-In Jumpers

    Basic configuration using plug-in jumpers Basic configuration using plug-in jumpers The RINT X12 has a series of jumpers to configure various basic settings that cannot be changed during operation. These settings must be made before switching on the power source! 5.2.1...
  • Page 13: Main Control Signal Standardisation

    0 to nominal system current (factory setting) The nominal system current comes from the type designation and is automatically detected by the RINT X12 when the system is switched on. 5.2.4 Selecting the JOB counting method The counting method for welding characteristics (JOBs) usually is 1 to 255. The values are stored in an 8 bit field so that, in general, 256 JOBs can be selected.
  • Page 14: Permanently Configurable Standard Signals

    (main switch). With the EWM Config Tool the function of the signal can be changed so that the RINT X12 is completely neutralised when the signal is stopped, i.e. all prioritisations of control signals are stopped, for example.
  • Page 15: Operating Modes

    The factory settings are such that JP9 and JP10 are not set. 5.3.5 Pulse process With the JP11 jumper, a pulse process can be pre-defined on the RINT X12. Alternatively, the signal can also be actuated by an external signal: JP11 Operating mode Standard welding is active.
  • Page 16: Special Signals

    The relais are used for process signals Signal not active The relais are used for process monitoring This configuration does affect the RINT X12 Phoenix / alpha Q only. 5.4.2 Advanced JOB mode With jumper 13 the so-called advanced JOB mode is activated. In this mode, the information for operating mode and welding type is no longer taken from the X5/3, X5/4 and X5/5 signals but from the information relating to the respective welding program.
  • Page 17: Pulse Mode (For Phoenix / Alpha Q Only)

    Signal active superPuls enabled. Signal not active superPuls disabled. Use of this signal has to be enabled with the EWM Config Tool first. 5.5.5 Lift arc (only Phoenix / alpha Q MM) This signal switches ignition to lift arc mode. X5/5...
  • Page 18: Gas Test 1

    Design and function Standard signals for free actuation 5.5.8 Gas test 1 The signal permits the manual actuation of the gas valve, e.g. to rinse the gas line. The process shielding gas is actuated in Tetrix / forceTig systems with plasma equipment. X10/5 Operating mode Signal not...
  • Page 19: 5.5.12 Cold Wire On

    Design and function Standard signals for free actuation 5.5.12 Cold wire on In Tetrix / forceTig systems with cold wire equipment, the cold wire is started with the X10/11 input. X10/11 Operating mode Signal not Cold wire is stopped active Signal Cold wire is started active...
  • Page 20: Job Mode

    JOBs. Each power source can store up to 256 of these JOBs. A JOB defines the welding characteristics. JOBs can be selected using two signal groups on the RINT X12. 5.6.1 Enabling JOB selection To enable the JOB selection, the selection option must first be enabled via this signal.
  • Page 21: Chosing The Process Logic

    Chosing the process logic Chosing the process logic The respective welding characteristic curve is set via job control. For setting of working points the RINT X12 offers two different possibilities for control. 5.7.1 Program operation Every job contains 15 different working points, whichcan be directly set via four digital signals. The parameters of the working points can be modified with a control panel or more comfortable by using the parameter software PC300.NET.
  • Page 22: Control Signal Operation

    Control signal operation Contrary to the program operation mode the respective process parameter will not be stored in the power source but directly fed to the RINT X12. With this method control data storage is passed to the upper controller.
  • Page 23 With the previous RINT X11 control, it was necessary to activate the signal for control signal mode and select program number 0. With RINT X12, it is no longer necessary to additionally select program 0.
  • Page 24: Advanced Control Signal Operation

    Control signal operation has been improved in comparison to RINT X11. Advanced control signal operation is activated automatically once a specific software version is available in the power source. In addition to main current and cold wire, the RINT X12 also has 3 more control voltages for parameterising pulse modes.
  • Page 25: Process Signals

    X7/3 on X7/2 Arc not detected X7/3 on X7/1 Arc detected The RINT X12 has a device to store the signal to improve signal matching with the cascade control. 5.8.2 Ready for welding This signal indicates general readiness for welding and should be checked before starting.
  • Page 26: Process Active

    Design and function Process signals 5.8.5 Process active The signal is active for the duration of the entire process, starting with the gas pre-flows to the completion of the gas post-flows after the process. The positioning device can be used as a condition of movement. Signals switched on Signal X8/3 on X8/1 Process is active...
  • Page 27: I > 0 Auxiliary Process

    Design and function Process signals 5.8.8 I > 0 Auxiliary process The signal displays the current burn status of the arc for the auxiliary process (signal can only be used for the Tetrix / forceTig series). Signals switched on Signal X8/12 on X8/10 Arc auxiliary process detected X8/12 on X8/11...
  • Page 28: 5.8.10 Output Of Analogue Values

    Design and function Process signals 5.8.10 Output of analogue values For the output of welding voltage and welding current, the RINT X12 has two analogue outputs as follows: Output Parameter Standardisation X11/1 Welding voltage 0..10 V equivalent to 0 to 100 V...
  • Page 29: Special Functions

    5.9.1 Position search This function is implemented as standard in the RINT X12, and makes it possible to locate the workpiece by means of sensor voltage. The function is activated by the X10/8 control signal and it then allows contact with the workpiece to be detected by means of the K7 relay.
  • Page 30: Process Data Monitoring (Phoenix / Alpha Q)

    5.10 Process data monitoring (Phoenix / alpha Q) On the RINT X12 in combination with welding machines in the Phoenix / alpha Q machine series; there are 4 output signals available for monitoring the welding process. This provides cost-effective monitoring options for the most critical process values.
  • Page 31 Design and function Process data monitoring (Phoenix / alpha Q) The monitoring outputs are defined as follows: Signals switched on Signal X8/1 on X8/3 Welding voltage outside the tolerances X8/2 on X8/3 Welding voltage ok X8/4 on 8/6 Welding current outside the tolerances X8/5 on 8/6 Welding current ok X8/7 on X8/9...
  • Page 32: Signals For Matching With The Positioning Device

    Design and function Signals for matching with the positioning device 5.11 Signals for matching with the positioning device Experience has shown that the signal matching between the welding power source and the positioning device is very important. If interference occurs suddenly due to a loss of signal (e.g. arc interruption), or if intermittent signals occur, the positioning device can itself enter an error status condition.
  • Page 33: 5.11.3 Arc Interruption Time: Tz-Libo

    Design and function Signals for matching with the positioning device 5.11.3 Arc interruption time: TZ-LIBO For the work process it is desirable that the process runs without interference. However, in poor conditions it is likely that welding interference will occur, and this results in intermittent signals for the duration of the process.
  • Page 34: 5.11.5 Output Of Analogue Values

    Design and function Signals for matching with the positioning device 5.11.5 Output of analogue values For the output of welding voltage and welding current, the RINT X12 has two analogue outputs as follows: Output Parameter Standardisation X11/1 Welding voltage 0..10 V equivalent to 0 to 100 V...
  • Page 35: The Diagnostics Interface

    PC and to the adapter cable required for the connection to the 6-pole Minifit X12 socket on the RINT X12, by means of the adapter cable item no. 094-013051-XXXXX. • When using a RINT X12 ATCASE, the adapter cable is not necessary as the connection cable can be inserted directly into the casing. •...
  • Page 36: Overview Of Plug (Jumper) Configurations

    Overview of plug (jumper) configurations Scope of diagnostics Overview of plug (jumper) configurations The following table gives an overview of the RINT X12 jumper assignment: JP no.: Function/meaning Assignment 1 & 2 Main control signal standardisation Phoenix / alpha Q...
  • Page 37 Diagnostics possible via X12 Depending on the configuration, the latched operating mode can be activated using the EWM Config Tool. Given below is a list of all relevant control signal assignments of the RINT X12 to the cascade control. 099-000769-EW501 29.06.2015...
  • Page 38: Operating Modes, Start, Machine Functions

    Operating modes, start, machine functions Operating modes, start, machine functions Digital inputs (X5, 8 pole; X10, 12 pole) Pin no.: Function/ Signal form for Standardisation/logic RINT X12 Meaning X5/1 0 V 4 X5/2 +24 V 1 X5/3 Non-latched mode Digital input (- See 5.3.4 Operating modes...
  • Page 39: Job Selection, Switching, Internal/External Job Selection

    JOB selection, switching, internal/external JOB selection JOB selection, switching, internal/external JOB selection Digital inputs (X9, 12 pole) Pin no.: Function / Signal form for Standardisation / logic RINT X12 Meaning X9/1 0 V 4 X9/2 +24 V 1 X9/3 JOB bit 0...
  • Page 40: Control Voltages (Nominal Values)

    Overview of plug (jumper) configurations Control voltages (nominal values) Control voltages (nominal values) Analog inputs (X6, 6 pole) Pin no.: Function/ Signal form for Standardisation/logic RINT X12 Meaning X6/1 +10 V (Uref) X6/2 0 V3 (Uref) X6/3 Wire feed speed (Phoenix / Analog input 0..10 V...
  • Page 41: Process Signals

    Overview of plug (jumper) configurations Process signals Process signals Relay outputs (X7, 12 pole) Pin no.: Function / Signal form for Standardisation / Logic RINT X12 Meaning X7/1 I>0 Relay output 1 2-3 -> I=0 X7/2 I>0 Relay output 1 1-3 ->...
  • Page 42: Welding Data Monitoring Signals

    10-12 -> I = 0 auxiliary process (Tetrix / forceTig) X8/12 Relay output 8 Analogue output signals PIN no. Function/Meaning Signal form for RINT X12 Standardisation logic X11/1 Actual welding voltage value Analogue output 0...10 V 0...100 V welding voltage X11/2 X11/3 Actual welding current value Analogue output 0...10 V...
  • Page 43: Error Messages On The System

    Error messages on the system Phoenix / alpha Q system Error messages on the system Phoenix / alpha Q system The following error messages are displayed on operating units for welding machines of the Phoenix / alpha Q series: Error number Meaning Error can be reset (display)
  • Page 44: Tetrix / Forcetig System

    Error messages on the system Tetrix / forceTig system Tetrix / forceTig system The following error messages are displayed on operating units for welding machines of the Tetrix /forceTig series: Error number Meaning Error can be reset (display) General errors Cold wire feed error Inverter temperature error No, automatic reset...
  • Page 45: Overview Of Machine Software Functions (Firmware)

    Overview of machine software functions (firmware) Tetrix / forceTig system Overview of machine software functions (firmware) The table below provides information about the relevant functionality of the interface machine software (firmware). Machine Item number Hardware Function software platform number (firmware) 0.0.1.0 042-00973-00000 Initial version...
  • Page 46: Configuration Data Overview

    Tetrix / forceTig system Configuration data overview Which configuration data can be set in RINT X12 depends on the firmware version. If EWM-Config does not show a current parameter in the software, make sure the parameter files for this program are up to date.
  • Page 47 Configuration data overview Tetrix / forceTig system Parameter Setting Meaning Available from SW Activate control voltage No analysis of the analog 0.0.5.0 X6/8 channel. The analog channel.is analysed based on the control voltage selection. Control voltage X6/8 Hot wire The control voltage controls 0.0.5.0 parameter the hot wire current.
  • Page 48: Circuit Diagrams

    Circuit diagrams Control signal operation Circuit diagrams 11.1 Control signal operation Figure 11-1 099-000769-EW501 29.06.2015...
  • Page 49 Circuit diagrams Control signal operation Figure 11-2 099-000769-EW501 29.06.2015...
  • Page 50: Program Operation

    Circuit diagrams Program operation 11.2 Program operation Figure 11-3 099-000769-EW501 29.06.2015...
  • Page 51 Circuit diagrams Program operation Figure 11-4 099-000769-EW501 29.06.2015...
  • Page 52: Overview Of Ewm Branches

    Appendix A Overview of EWM branches Appendix A 12.1 Overview of EWM branches 099-000769-EW501 29.06.2015...

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