Contents Contents 1 Contents..............................3 2 Safety instructions..........................6 Notes on the use of these operating instructions ................6 Explanation of icons........................7 General ............................8 Transport and installation ......................11 2.4.1 Lifting by crane ......................12 Ambient conditions........................13 2.5.1 In operation........................13 2.5.2 Transport and storage ....................13...
Page 4
Contents 5.6.9.2 Operating point setting using material thickness, welding current, wire speed......................39 5.6.9.3 Arc length correction setting................39 5.6.9.4 Accessory components for operating point setting ........39 5.6.10 MIG/MAG welding data display ..................40 5.6.11 forceArc.........................41 5.6.12 rootArc ..........................41 5.6.13 MIG/MAG functional sequences / operating modes.............42 5.6.13.1 Explanation of signs and functions..............42 5.6.14 MIG/MAG program sequence ("Program steps"...
Page 5
Resetting all JOBs ......................96 General operating problems ......................96 7.3.1 Interface for mechanised welding.................96 8 Technical data ............................97 Phoenix 301 Progress puls......................97 9 Accessories, options ........................... 98 General accessories ........................98 Welding torch ..........................98 9.2.1 Gas cooled ........................98 TIG combi torches........................
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. •...
Safety instructions Explanation of icons Explanation of icons Symbol Description Press Do not press Turn Switch Switch off machine Switch on machine ENTER (enter the menu) NAVIGATION (Navigating in the menu) EXIT (Exit the menu) Time display (example: wait 4s/press) Interruption in the menu display (other setting options possible) Tool not required/do not use Tool required/use...
Safety instructions General General DANGER Electric shock! Welding machines use high voltages which can result in potentially fatal electric shocks and burns on contact. Even low voltages can cause you to get a shock and lead to accidents. • Do not touch any live parts in or on the machine! •...
Page 9
Safety instructions 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 10
Safety instructions General CAUTION Obligations of the operator! The respective national directives and laws must be observed for operation of the machine! • National implementation of the framework directive (89/391/EWG), as well as the associated individual directives. • In particular, directive (89/655/EWG), on the minimum regulations for safety and health protection when staff members use equipment during work.
Safety instructions Transport and installation Transport and installation WARNING Incorrect handling of shielding gas cylinders! Incorrect handling of shielding gas cylinders can result in serious and even fatal injury. • Observe the instructions from the gas manufacturer and in any relevant regulations concerning the use of compressed air! •...
Safety instructions Transport and installation 2.4.1 Lifting by crane DANGER Risk of injury during lifting by crane! When lifting the equipment by crane, serious injuries can be inflicted by falling equipment or add-on units. • Transport on all lifting lugs at the same time (see Fig.
Safety instructions Ambient conditions Ambient conditions CAUTION Installation site! The machine must not be operated in the open air and must only be set up and operated on a suitable, stable and level base! • The operator must ensure that the ground is non-slip and level, and provide sufficient lighting for the place of work.
Intended use Applications Intended use This machine has been manufactured according to the latest developments in technology and current regulations and standards. It must only be operated in line with the instructions on correct usage. WARNING Hazards due to improper usage! Hazards may arise for persons, animals and material objects if the equipment is not used correctly.
Intended use Documents which also apply Documents which also apply 3.2.1 Warranty NOTE For further information, please see the accompanying supplementary sheets "Machine and Company Data, Maintenance and Testing, Warranty"! 3.2.2 Declaration of Conformity The designated machine conforms to EC Directives and standards in terms of its design and construction: •...
Machine description – quick overview Machine control – Operating elements Machine control – Operating elements M 3.72 Material Wire JOB- LIST Super- puls VOLT PROG HOLD Progress m/min Figure 4-3 099-005023-EW501 09.08.2010...
Page 21
Machine description – quick overview Machine control – Operating elements Item Symbol Description Lid (see chap. "Machine control – concealed operating elements") Button, Parameter selection left Welding current Material thickness Wire speed After each completed welding process, the last parameter values used for the HOLD welding process are shown on the display in the main program;...
Machine description – quick overview Machine control – Operating elements 4.3.1 Machine control – Concealed operating elements 11 12 M 3.71 Material Wire JOB- LIST Super- puls Figure 4-4 Item Symbol Description Select welding parameters button This button is used to select the welding parameters depending on the welding process and operating mode used.
Machine description – quick overview Machine control – Operating elements Item Symbol Description Super- Signal lamp, super pulse function puls Lights up when the super pulse function is active. Signal light, JOB-List Material Illuminates upon display or selection of the JOB number Wire Key button, JOB-List JOB-...
Design and function General Design and function General DANGER Risk of injury from electric shock! Contact with live parts, e.g. welding current sockets, is potentially fatal! • Follow safety instructions on the opening pages of the operating instructions. • Commissioning may only be carried out by persons who have the relevant expertise of working with arc welding machines! •...
Design and function Installation CAUTION Damage due to incorrect connection! Accessory components and the power source itself can be damaged by incorrect connection! • Only insert and lock accessory components into the relevant connection socket when the machine is switched off. •...
Design and function Mains connection Mains connection DANGER Hazard caused by improper mains connection! An improper mains connection can cause injuries or damage property! • Only use machine with a plug socket that has a correctly fitted protective conductor. • If a mains plug must be fitted, this may only be carried out by an electrician in accordance with the relevant national provisions or regulations (any phase sequence for three-phase machines)!
Design and function MIG/MAG welding MIG/MAG welding 5.6.1 Welding torch and workpiece line connection NOTE Fault with the wire guide! On delivery, the central connector (Euro) is fitted with a capillary tube for welding torches with spiral guides. Conversion is necessary if a welding torch with a plastic core is used! Welding torch with plastic core: •...
Design and function MIG/MAG welding 5.6.2 Fixing the wire spool retainer (pre-tension adjustment) NOTE Because the spool brake also secures the wire spool retainer, the following steps are to be carried out for every spool change and before every adjustment of the spool brake. Figure 5-4 Item Symbol Description...
Design and function MIG/MAG welding 5.6.3 Spool brake setting Figure 5-5 Item Symbol Description Allen screw Securing the wire spool retainer and adjustment of the spool brake • Tighten the Allen screw (8 mm) in the clockwise direction to increase the braking effect. NOTE Do not jam the wire spool! Tighten the spool brake until the wire spool no longer turns when the wire feed motor stops but...
Design and function MIG/MAG welding 5.6.4 Inserting the wire spool NOTE Standard D300 pin reels can be used. Adapters (see accessories) are required when using standardised basket coils (DIN 8559). Figure 5-6 Item Symbol Description Carrier pin For fixing the wire spool Knurled nut For fixing the wire spool •...
Design and function MIG/MAG welding 5.6.5 Changing the wire feed rollers NOTE Unsatisfactory welding results due to faulty wire feeding! Wire feed rollers must be suitable for the diameter of the wire and the material. • Check the roller label to verify that the rollers are suitable for the wire diameter. Turn or change if necessary! •...
Design and function MIG/MAG welding 5.6.6 Inching the wire electrode CAUTION Risk of injury due to welding wire escaping from the welding torch! The welding wire can escape from the welding torch at high speed and cause bodily injury including injuries to the face and eyes! •...
Design and function MIG/MAG welding 5.6.7 Definition of MIG/MAG welding tasks This range of machines feature simple operation with a very wide range of functions. • Various JOBs (i.e. welding tasks consisting of welding process, material type, wire diameter and shielding gas type) have been pre-defined (see appendix for a list of JOBs).
Design and function MIG/MAG welding 5.6.8.4 Choke effect / dynamics DY N m /m in Figure 5-9 Display Setting/selection Dynamics setting 40: Arc harder and narrower -40: Arc softer and wider 5.6.8.5 Superpulses m /m in Figure 5-10 Display Setting/selection Selects super pulses Switches function on or off.
Design and function MIG/MAG welding 5.6.8.6 Wire burn-back m /m in Figure 5-11 Display Setting/selection menu wire burn-back Set wire burn-back Parameter setting (setting range 0 to 499) Wire back-burn set too high: large drops developing on the wire electrode result in poor ignition properties or the wire electrode sticking to the welding nozzle.
Design and function MIG/MAG welding 5.6.9.1 Selecting the display unit VOLT PROG HOLD Progress Figure 5-12 The operating point (welding performance) can be displayed as the welding current, material thickness or wire speed. Operating Action Result element Switching the display between: Welding current Material thickness Wire speed...
Design and function MIG/MAG welding 5.6.9.2 Operating point setting using material thickness, welding current, wire speed Given below is a description of the setting work via the wire speed parameters as an example of operating point setting. Operating Action Result Display element Increase or reduce welding performance via the...
Design and function MIG/MAG welding 5.6.10 MIG/MAG welding data display To the left and right of the control displays are the "Parameter selection" buttons ( ). They are used to select welding parameters to be displayed. Each press of the button advances the display to the next parameter (LEDs next to the button indicate the selection).
Design and function MIG/MAG welding 5.6.11 forceArc The forceArc process is welding in the spray arc range with a considerably shortened arc. Disadvantages of short-circuit phases are compensated by the fast control inverter technology. Benefits of forceArc welding: • Good fusion penetration •...
Design and function MIG/MAG welding 5.6.13 MIG/MAG functional sequences / operating modes NOTE There are optimum pre-sets for welding parameters such as gas pre-flow and free-burn, etc. for numerous applications (although these can also be changed if required). 5.6.13.1 Explanation of signs and functions Symbol Meaning Press torch trigger...
Page 43
Design and function MIG/MAG welding Non-latched mode Figure 5-14 Step 1 • Press and hold torch trigger. • Shielding gas is expelled (gas pre-flows). • Wire feed motor runs at “creep speed”. • Arc ignites after the wire electrode makes contact with the workpiece; welding current flows. •...
Page 44
Design and function MIG/MAG welding Non-latched operation with superpulse Figure 5-15 Step 1 • Press and hold torch trigger. • Shielding gas is expelled (gas pre-flows). • Wire feed motor runs at “creep speed”. • Arc ignites after the wire electrode makes contact with the workpiece; welding current flows. •...
Page 45
Design and function MIG/MAG welding Special, non-latched START Figure 5-16 Step 1 • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) • Wire feed motor runs at “creep speed”. • Arc ignites after the wire electrode makes contact with the workpiece, welding current is flowing (start program P for the time t START...
Page 46
Design and function MIG/MAG welding Spots START Figure 5-17 NOTE The ignition time t must be added to the spot time t start 1st cycle • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) • Wire feed motor runs at "creep speed" •...
Page 47
Design and function MIG/MAG welding Special, non-latched with superpulse START Figure 5-18 Step 1 • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) • Wire feed motor runs at “creep speed”. • Arc ignites after the wire electrode makes contact with the workpiece, welding current is flowing (start program P for the time t START...
Page 48
Design and function MIG/MAG welding Latched mode Figure 5-19 Step 1 • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) • Wire feed motor runs at “creep speed”. • Arc ignites after the wire electrode makes contact with the workpiece; welding current flows. •...
Page 49
Design and function MIG/MAG welding Latched mode with superpulse Figure 5-20 Step 1: • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) • Wire feed motor runs at “creep speed”. • Arc ignites after the wire electrode makes contact with the workpiece; welding current flows. •...
Page 50
Design and function MIG/MAG welding Latched mode with alternating welding process Figure 5-21 1st cycle: • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) • Wire feed motor runs at "creep speed" • Arc ignites after the wire electrode makes contact with the workpiece; welding current flows •...
Page 51
Design and function MIG/MAG welding Latched special START Figure 5-22 Step 1 • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) • Wire feed motor runs at “creep speed”. • Arc ignites after the wire electrode makes contact with the workpiece, welding current is flowing (start program P START Step 2...
Page 52
Design and function MIG/MAG welding Latched special with welding process alternation NOTE This function can be activated using the PC300.NET software. Refer to the software operating instructions. START Figure 5-23 1st cycle • Press and hold torch trigger. • Shielding gas is expelled (gas pre-flows) •...
Page 53
Design and function MIG/MAG welding Latched special with alternating welding process NOTE This function can be activated using the PC300.NET software. Refer to the software operating instructions. START Figure 5-24 1st cycle • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) •...
Page 54
Design and function MIG/MAG welding Special, latched with superpulse START Figure 5-25 Step 1 • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) • Wire feed motor runs at “creep speed”. • Arc ignites after the wire electrode makes contact with the workpiece, welding current is flowing (start program P for the time t START...
Design and function MIG/MAG welding 5.6.14 MIG/MAG program sequence ("Program steps" mode) Certain materials, such as aluminium, require special functions in order to be able to weld them safely and at high quality. The latched special operating mode is used here with the following programs: •...
Design and function MIG/MAG welding 5.6.14.2 MIG/MAG overview of parameters Super- puls Figure 5-27 Basic Parameters Item Meaning / Explanation Setting Range Gas pre-flow time 0.0s to 20.0s 1% to 200% START Wire speed, relative -9.9V to +9.9V Arc length correction Duration 0.0s to 20.0s Slope duration from P...
Design and function MIG/MAG welding 5.6.14.3 Example, tack welding (non-latched) Figure 5-28 Basic parameters Parameter Meaning / explanation Setting range GASstr Gas pre-flow time 0.0s to 20.0s GASend: Gas post-flow time 0.0s to 20s RUECK Wire burn-back length 2 to 500 "P "...
Design and function MIG/MAG welding 5.6.14.5 Example, aluminium welding (latched special) START Figure 5-30 Basic parameters Welding parameter Meaning / explanation Setting range GASstr Gas pre-flow time 0.0s to 20.0s GASend: Gas post-flow time 0.0s to 20.0s RUECK Wire burn-back length 2 to 500 "P "...
Design and function MIG/MAG welding 5.6.14.6 Example, visible seams (latched super pulse) START Figure 5-31 Basic parameters Welding parameter Meaning / explanation Setting range GASstr Gas pre-flow time 0.0s to 20.0s GASend: Gas post-flow time 0.0s to 20.0s RUECK Wire burn-back length 2 to 500 PROC.SP.
Design and function MIG/MAG welding 5.6.14.7 Welding process changeover START Figure 5-32 Program Setting option Relates to Setting Pulse arc welding process on/off All special, non-latched 1 (= on) START Changes using PC300.Net software All special, latched 0 (= off) Welding process changeover Non-latched/latched mode 1 (= active)
Design and function MIG/MAG welding 5.6.15 Main program A mode Different welding tasks or positions on a workpiece demand various welding performances (operating points) or welding programs. The following parameters are stored in each of the up to 16 programs: •...
Page 62
Design and function MIG/MAG welding Example 1: Welding workpieces with different sheet metal thicknesses (non-latched) Figure 5-33 Example 2: Welding different positions on a workpiece (latched) Figure 5-34 Example 3: Aluminium welding of different sheet metal thicknesses (non-latched or latched special) Figure 5-35 NOTE...
Design and function MIG/MAG welding 5.6.15.1 Selecting parameters (program A) Operating Action Result Display element Change welding data display over to program display. (LED PROG is on) Select program number. Display example: Program "1". Select program sequence parameter "Main program (P )".
Design and function MIG/MAG welding 5.6.17 Standard MIG/MAG torch The MIG welding torch trigger is essentially used to start and stop the welding process. Operating elements Functions Torch trigger • Start/stop welding Other functions are also possible by tapping the torch trigger, depending on the machine type and control configuration: •...
Design and function MIG/MAG welding 5.6.19 Remote control CAUTION Using protective dust caps! Protective dust caps protect the connection sockets and therefore the machine against dirt and damage. • The protective dust cap must be fitted if there is no accessory component being operated on that connection.
Design and function MIG/MAG welding 5.6.21 Advanced settings The special parameters cannot be viewed directly since they are normally only set and stored once. The machine control offers the following special functions: 5.6.21.1 Selecting, changing and saving parameters VOLT A M P PROG HOLD m /m in...
Page 67
Design and function MIG/MAG welding Display Setting/selection Ramp time for wire inching 0 = normal inching (10s ramp time) 1 = fast inching (3s ramp time) (Ex works) Block program "0" 0 = P0 enabled (Ex works) 1 = P0 blocked POWERCONTROL torch display mode 0 = normal display (factory setting) program number/JOB or...
Design and function MIG/MAG welding Display Setting/selection Block JOB mode 0 = Block JOB mode not enabled (Ex works) 1 = Block JOB mode enabled Program selection with standard torch trigger 0 = no program selection (Ex works) 1 = program selection possible 5.6.21.2 Reset to factory settings NOTE All special parameters saved by the user will be overwritten by the factory settings!
Design and function MIG/MAG welding 5.6.21.3 The special parameters in detail Ramp time for wire inching (P1) The wire inching starts with a speed 1.0 m/min for 2 secs. It is subsequently increased to a ramp function to 6.0 m/min. The ramp time can be set between two ranges. During wire inching, the speed can be changed by means of the welding parameter setting rotary dial.
Page 70
Design and function MIG/MAG welding Correction operation, threshold value setting (P7) The correction operation is switched on and off for all JOBs and their programs at the same time. A correction operation is specified for wire speed (DV) and welding voltage correction (Ukorr) for each JOB. The correction value is saved separately for each program.
Page 71
Design and function MIG/MAG welding Operating Action Result Display (examples) element Left Right VOLT Press button until "PROG" LED comes PROG Left: Wire feed speed Right: Program number VOLT Press button and hold down for approx. PROG Left: Current limit value of the wire feed speed correction Right: Current limit value of the...
Page 72
Design and function MIG/MAG welding Switching programs with the standard torch trigger (P8) Special latched (latched absolute program sequence) • Cycle 1: absolute program 1 is run • Cycle 2: absolute program 2 is run after completion of "tstart". • Cycle 3: absolute program 3 is run until the "t3"...
Page 73
Design and function MIG/MAG welding The number of programs (P ) corresponds to the cycle number specified under N cycle. 1st cycle • Press and hold torch trigger. • Shielding gas is expelled (gas pre-flows). • Wire feed motor runs at "creep speed". •...
Page 74
Design and function MIG/MAG welding "Single or dual operation" (P10) setting NOTE If the system is fitted with two wire feeds, no further accessory components may be operated on the 7-pole connection socket (digital)! This relates to digital remote controls, robot interfaces, documentation interfaces, welding torches with digital control lead connection, etc.
Page 75
Design and function MIG/MAG welding Creating user-defined JOB lists A consecutive memory range where accessories such as the POWERCONTROL 2 torch can be used to switch between JOBs will be created. • Set special parameter P12 to "2". • Set "Program or Up/Down function" changeover switch to "Up/Down" position. •...
Page 76
Design and function MIG/MAG welding Block JOB mode (P16) The following accessory components support block JOB mode: • R20 remote control and POWERCONTROL welding torch Program 0 is always active in JOB 0 and program 1 in all other JOBs In this operating mode, a total of 27 JOBs (welding tasks) divided into three blocks can be called up using accessory components.
Design and function MIG/MAG welding 5.6.21.4 Switching between Push/Pull and intermediate drive DANGER Do not carry out any unauthorised repairs or modifications! To avoid injury and equipment damage, the unit must only be repaired or modified by specialist, skilled persons! The warranty becomes null and void in the event of unauthorised interference.
Design and function TIG welding TIG welding 5.7.1 Welding torch and workpiece line connection Figure 5-42 Item Symbol Description Welding torch Welding torch hose package Connection socket, 7-pole Connection for peripheral devices with digital interface 19-pole connection socket (analogue) For connecting analogue accessory components (remote control, welding torch control lead, etc.) Central connection for welding torch (Euro) Integrated welding current, shielding gas and torch trigger...
Design and function TIG welding 5.7.2 welding task selection • Select JOB 127 (TIG welding task). It is only possible to change the JOB number when no welding current is flowing. On decompact welding systems, the "JOB list" sticker is located on the inside on the wire feed unit cover; with compact machines it is on the right-hand power source cover.
Design and function TIG welding 5.7.5 Pulses, function sequences 5.7.5.1 Explanation of signs and functions Symbol Meaning Press torch trigger Release torch trigger Tap torch trigger (press briefly and release) Shielding gas flowing Welding output Gas pre-flows Gas post-flows Non-latched Special, non-latched Latched Special, latched...
Page 81
Design and function TIG welding Non-latched mode Figure 5-44 Selection • Select non-latched operating mode Step 1 • Press and hold torch trigger. • Shielding gas is expelled (gas pre-flows). The arc is ignited using liftarc. • Welding current flows with pre-selected setting. Step 2 •...
Page 82
Design and function TIG welding Latched mode Figure 5-46 Selection • Select latched operating mode Step 1 • Press and hold torch trigger • Shielding gas is expelled (gas pre-flows) The arc is ignited using liftarc. • Welding current flows with pre-selected setting. Step 2 •...
Design and function TIG welding Latched special START Figure 5-47 Selection • Select latched special mode Step 1 • Press and hold torch trigger. • Shielding gas is expelled (gas pre-flows). The arc is ignited using liftarc. • Welding gas flows at pre-selected setting in start program "P ".
Design and function TIG welding 5.7.7 TIG program sequence ("Program steps" mode) 5.7.7.1 TIG parameter overview Super- puls Figure 5-48 Basic parameters Item Meaning/explanation Setting range Gas pre-flow time 0 s to 0.9 s START 0% to 200% Ignition current Duration (start program) 0 s to 20 s Slope duration from P...
Design and function MMA welding MMA welding CAUTION Risk of being crushed or burnt. When replacing spent or new stick electrodes • Switch off machine at the main switch • Wear appropriate safety gloves • Use insulated tongs to remove spent stick electrodes or to move welded workpieces and •...
Design and function MMA welding 5.8.2 welding task selection • Select JOB 128 (MMA welding task). It is only possible to change the JOB number when no welding current is flowing. On decompact welding systems, the "JOB list" sticker is located on the inside on the wire feed unit cover; with compact machines it is on the right-hand power source cover.
Design and function MMA welding 5.8.5 Hotstart The hotstart device improves the ignition of the stick electrodes using an increased ignition current. a) = Hotstart time b) = Hotstart current Welding current Time Figure 5-50 For hotstart parameter settings, see "parameter overview" chapter 5.8.6 Antistick Anti-stick prevents the electrode from annealing.
Design and function Shielding gas supply Shielding gas supply 5.9.1 Connecting the shielding gas supply DANGER Risk of injury caused by shielding gas cylinders toppling over! Shielding gas cylinders may topple over and cause serious injury if not adequately secured! •...
Design and function Shielding gas supply Figure 5-52 Item Symbol Description Pressure reducer Shielding gas cylinder Output side of the pressure reducer Cylinder valve • Place the shielding gas cylinder into the relevant cylinder bracket. • Secure the shielding gas cylinder using a securing chain. •...
Design and function Interfaces 5.9.4 Setting the shielding gas quantity Welding process Recommended shielding gas quantity MAG welding Wire diameter x 11.5 = l/min MIG brazing Wire diameter x 11.5 = l/min MIG welding (aluminium) Wire diameter x 13.5 = l/min (100 % argon) Gas nozzle diameter in mm corresponds to l/min gas throughput Helium-rich gas mixtures require a higher gas volume! The table below can be used to correct the gas volume calculated where necessary:...
Maintenance, care and disposal General Maintenance, care and disposal DANGER Risk of injury from electric shock! Cleaning machines that are not disconnected from the mains can lead to serious injuries! • Disconnect the machine completely from the mains. • Remove the mains plug! •...
Information about giving back used equipment or about collections can be obtained from the respective municipal administration office. • EWM participates in an approved waste disposal and recycling system and is registered in the Used Electrical Equipment Register (EAR) under number WEEE DE 57686922. •...
Rectifying faults Meeting the requirements of RoHS Rectifying faults All products are subject to rigorous production checks and final checks. If, despite this, something fails to work at any time, please check the product using the following flowchart. If none of the fault rectification procedures described leads to the correct functioning of the product, please inform your authorised dealer.
Rectifying faults Error messages (power source) Error messages (power source) All products are subject to rigorous production checks and final checks. If, despite this, something fails to work at any time, please check the product using the following flowchart. If none of the fault rectification procedures described leads to the correct functioning of the product, please inform your authorised dealer.
Rectifying faults Resetting JOBs (welding tasks) to the factory settings Resetting JOBs (welding tasks) to the factory settings NOTE All customised welding parameters that are stored will be replaced by the factory settings. 7.2.1 Resetting a single JOB JOB- JOB- LIST LIST m /m in...
Rectifying faults General operating problems 7.2.2 Resetting all JOBs JOB- JOB- LIST LIST m /m in Figure 7-2 Display Setting/selection Reset to factory settings The RESET will be done after pressing the button. The menu will be ended when no changes are done after 3 sec. General operating problems 7.3.1 Interface for mechanised welding...
Technical data Phoenix 301 Progress puls Technical data Phoenix 301 Progress puls NOTE Performance specifications and guarantee only in connection with original spare and replacement parts! Welding current/voltage setting range: 5A/10.2V-300A/22.0V 5A/20.2V-300A/32.0V 5A/14.3V-300A/29.0V MIG/MAG Duty cycle at 25C 300A 100%...
Need help?
Do you have a question about the Phoenix 301 Progress puls and is the answer not in the manual?
Questions and answers