Mach3 CNC

[000000000]

Sziasztok.  
"" LittleSV""Ígértem a g-kódot.
""
N5 (File Name = proba3 on Friday, July 03, 2014)
N10 (Default Mill Post)
N15  G91.1
N20 G0  Z1.0000  
N25 M3  
N30  X485.2515  Y985.2515  
N35  Z0.1000  
N40 G1  X970.5030  Y1000.0000  Z0.0000  F60.00  
N45  X1000.0001  Y29.4971    
N50  X29.4971  Y0.0000    
N55  X0.0000  Y970.5029    
N60  X485.2515  Y985.2515    
N65 G0  Z1.0000  
N70 M5
N75 M30
""
 
A beállítás amit írtál teljes siker(Köszönöm).

[krnj79r9n]

Sziasztok, hogy tudom az mach3-ban egyszerűen megoldani, hogy van egy generált G kódom és azt szeretném egy táblából többször kimarni. Természetesen valamennyi eltolással.
 
Csak ciklussal, vagy van erre valami mód, hogy többször lefusson a program, úgy hogy a következő maráshoz odébb helyezi a 0 pontot (home).

[s7manbs8]

Arra van egy kód benne.

[s7manbs8]

G52, én ezzel tologattam el.
 
    des
 
 
Summary of G-Codes
 
All MachMotion CNC controls use the Mach3 software. Click on G-code you would like to have more more information about.
PDF    
Mach3 GCode Language Reference
   Download PDF
 
G0 Rapid positioning              G54 Use fixture offset 1
G1 Linear interpolation              G55 Use fixture offset 2
G2 Clockwise circular/helical interpolation              G56 Use fixture offset 3
G3 Counterclockwise circular/Helical interpolation              G57 Use fixture offset 4
G4 Dwell              G59 Use fixture offset 6 / use general fixture number
G10 Coordinate system origin setting              G61/G64 Exact stop/Constant Velocity mode
G12 Clockwise circular pocket              G68/G69 Rotate program coordinate system
G13 Counterclockwise circular pocket              G70/G71 Inch/Millimeter unit
G15/G16 Polar Coordinate moves in G0 and G1              G73 Canned cycle - peck drilling
G17 XY Plane select              G80 Cancel motion mode
G18 XZ plane select              G81 Canned cycle - drilling
G19 YZ plane select              G82 Canned cycle - drilling with dwell
G20/G21 Inch/Millimeter unit              G83 Canned cycle - peck drilling
G28 Return home              G85/G86/G88/G89 Canned cycle - boring
G28.1 Reference axes              G90 Absolute distance mode
G30 Return home              G90.1 Absolute IJK mode
G31 Straight probe              G91 Incremental distance mode
G40 Cancel cutter radius compensation              G91.1 Incremental IJK mode
G41/G42 Start cutter radius compensation left/right              G92 Offset coordinates and set parameters
G43 Apply tool length offset (plus)              G92.x Cancel G92 etc.
G49 Cancel tool length offset              G93 Inverse time feed mode
G50 Reset all scale factors to 1.0              G94 Units Per Min.
G51 Set axis data input scale factors              G98 Rapid Height By Z Height
G52 Temporary coordinate system offsets              G99 Rapid Height By R Height
G53 Move in absolute machine coordinate system                
 
 
G00 Rapid Move
 
(a)  For rapid linear motion, program G0 X~ Y~ Z~ A~ B~ C~, where all the axis words are optional, except that at least one must be used. The G0 is optional if the current motion mode is G0. This will produce co-ordinated linear motion to the destination point at the current traverse rate (or slower if the machine will not go that fast). It is expected that cutting will not take place when a G0 command is executing.
 
(b) If G16 has been executed to set a Polar Origin then for rapid linear motion to a point described by a radius and angle G0 X~ Y~ can be used. X~ is the radius of the line from the G16 polar origin and Y~ is the angle in degrees measured with increasing values counterclockwise from the 3 o&p12/G-codes/pages.html#39;clock direction (i.e. the conventional four quadrant conventions).
 
Coordinates of the current point at the time of executing the G16 are the polar origin.
 
It is an error if:
 
¨    all axis words are omitted.
 
If cutter radius compensation is active, the motion will differ from the above; see Cutter Compensation. If G53 is programmed on the same line, the motion will also differ; see Absolute Coordinates.
 
Return to G-code list
 
 
G01 Linear Move
 
(a)   For linear motion at feed rate (for cutting or not), program G1 X~ Y~ Z~ A~ B~ C~, where all the axis words are optional, except that at least one must be used. The G1 is optional if the current motion mode is G1. This will produce co-ordinated linear motion to the destination point at the current feed rate (or slower if the machine will not go that fast).
 
(b) If G16 has been executed to set a polar origin then linear motion at feed rate to a point described by a radius and angle G0 X~ Y~ can be used. X~ is the radius of the line from the G16 polar origin and Y~ is the angle in degrees measured with increasing values counterclockwise from the 3 o'clock direction (i.e. the conventional four quadrant conventions).
 
Coordinates of the current point at the time of executing the G16 are the polar origin.
 
It is an error if:
 
¨    all axis words are omitted.
 
If cutter radius compensation is active, the motion will differ from the above; see Cutter Compensation. If G53 is programmed on the same line, the motion will also differ; see Absolute Coordinates.
 
Return to G-code list
 
 
G02 & G03 Arc Move
 
 A circular or helical arc is specified using either G2 (clockwise arc) or G3 (counterclockwise arc). The axis of the circle or helix must be parallel to the X, Y, or Z-axis of the machine coordinate system. The axis (or, equivalently, the plane perpendicular to the axis) is selected with G17 (Z-axis, XY-plane), G18 (Y-axis, XZ-plane), or G19 (X-axis, YZ-plane). If the arc is circular, it lies in a plane parallel to the selected plane.
 
If a line of code makes an arc and includes rotational axis motion, the rotational axes turn at a constant rate so that the rotational motion starts and finishes when the XYZ motion starts and finishes. Lines of this sort are hardly ever programmed.
 
If cutter radius compensation is active, the motion will differ from the above; see Cutter Compensation.
Two formats are allowed for specifying an arc. We will call these the center format and the radius format. In both formats the G2 or G3 is optional if it is the current motion mode.
Arc Center Format
 
In the center format, the coordinates of the end point of the arc in the selected plane are specified along with the offsets of the center of the arc from the current location. In this format, it is OK if the end point of the arc is the same as the current point. It is an error if:
 
¨    when the arc is projected on the selected plane, the distance from the current point to the center differs from the distance from the end point to the center by more than 0.0002 inch (if inches are being used) or 0.002 millimetre (if millimetres are being used).
 
The center is specified using the I and J words. There are two ways of interpreting them. The usual way is that I and J are the center relative to the current point at the start of the arc. This is sometimes called  Incremental IJ mode. The second way is that I and J specify the center as actual coordinates in the current system. This is rather misleadingly called  Absolute IJ mode. The IJ mode is set using the Configure>State… menu when Mach3 is set up. The choice of modes are to provide compatibility with commercial controllers. You will probably find Incremental to be best. In Absolute it will, of course usually be necessary to use both I and J words unless by chance the arc's centre is at the origin.
 
When the XY-plane is selected, program G2 X~ Y~ Z~ A~ B~ C~ I~ J~ (or use G3 instead of G2). The axis words are all optional except that at least one of X and Y must be used. I and J are the offsets from the current location or coordinates - depending on IJ mode (X and Y directions, respectively) of the center of the circle. I and J are optional except that at least one of the two must be used. It is an error if:
 
¨    X and Y are both omitted,
 
¨    I and J are both omitted.
 
When the XZ-plane is selected, program G2 X~ Y~ Z~ A~ B~ C~ I~ K~ (or use G3 instead of G2). The axis words are all optional except that at least one of X and Z must be used. I and K are the offsets from the current location or coordinates - depending on IJ mode (X and Z directions, respectively) of the center of the circle. I and K are optional except that at least one of the two must be used. It is an error if:
 
¨    X and Z are both omitted,
 
¨    I and K are both omitted.
 
When the YZ-plane is selected, program G2 X~ Y~ Z~ A~ B~ C~ J~ K~ (or use G3 instead of G2). The axis words are all optional except that at least one of Y and Z must be used. J and K are the offsets from the current location or coordinates - depending on IJ mode (Y and Z directions, respectively) of the center of the circle. J and K are optional except that at least one of the two must be used. It is an error if:
 
¨    Y and Z are both omitted,
 
¨    J and K are both omitted.
 
Here is an example of a center format command to mill an arc in Incremental IJ mode:
 
 G17 G2 x10 y16 i3 j4 z9
 
That means to make a clockwise (as viewed from the positive z-axis) circular or helical arc whose axis is parallel to the Z-axis, ending where X=10, Y=16, and Z=9, with its center offset in the X direction by 3 units from the current X location and offset in the Y direction by 4 units from the current Y location. If the current location has X=7, Y=7 at the outset, the center will be at X=10, Y=11. If the starting value of Z is 9, this is a circular arc; otherwise it is a helical arc. The radius of this arc would be 5.
 
The above arc in Absolute IJ mode would be:
 
G17 G2 x10 y16 i10 j11 z9
 
In the center format, the radius of the arc is not specified, but it may be found easily as the distance from the center of the circle to either the current point or the end point of the arc.
 
Return to G-code list
 
 
G4 Dwell
 
For a dwell, program G4 P~ . This will keep the axes unmoving for the period of time in seconds or milliseconds specified by the P number. The time unit to be used is set up on the Config>Logic dialog. For example, with units set to Seconds, G4 P0.5 will dwell for half a second. It is an error if:
 
¨    the P number is negative.
 
Return to G-code list
 
 
G10 Tool Offset and Work Offset Tables
 
To set the offset values of a tool, program
G10 L1 P~ X~ Z~ A~, where the P number must evaluate to an integer in the range 0 to 255 - the tool number - Offsets of the tool specified by the P number are reset to the given. The A number will reset the tool tip radius. Only those values for which an axis word is included on the line will be reset. The Tool diameter cannot be set in this way.
 
To set the coordinate values for the origin of a fixture coordinate system, program
G10 L2 P~ X~ Y~ Z~ A~ B~ C~, where the P number must evaluate to an integer in the range 1 to 255 - the fixture number - (Values 1 to 6 corresponding to G54 to G59) and all axis words are optional. The coordinates of the origin of the coordinate system specified by the P number are reset to the coordinate values given (in terms of the absolute coordinate system). Only those coordinates for which an axis word is included on the line will be reset.
 
It is an error if:
 
¨    the P number does not evaluate to an integer in the range 0 to 255.
 
If origin offsets (made by G92 or G92.3) were in effect before G10 is used, they will continue to be in effect afterwards.
 
The coordinate system whose origin is set by a G10 command may be active or inactive at the time the G10 is executed.
 
The values set will not be persistent unless the tool or fixture tables are saved using the buttons on Tables screen.
Example: G10 L2 P1 x3.5 y17.2 sets the origin of the first coordinate system (the one selected by G54) to a point where X is 3.5 and Y is 17.2 (in absolute coordinates). The Z coordinate of the origin (and the coordinates for any rotational axes) are whatever those coordinates of the origin were before the line was executed.
 
Return to G-code list
 
 
G12 & G13 CW/CCW Circular Pocket
 
These circular pocket commands are a sort of canned cycle which can be used to produce a circular hole larger than the tool in use or with a suitable tool (like a woodruff key cutter) to cut internal grooves for "O" rings etc.
 
Program G12 I~ for a clockwise move and G13 I~ for a counterclockwise move.
 
The tool is moved in the X direction by the value if the I word and a circle cut in the direction specified with the original X and Y coordinates as the centre. The tool is returned to the centre.
 
Its effect is undefined if the current plane is not XY.
 
Return to G-code list
 
 
G15 & G16 Exit and Enter Polar Mode
 
It is possible for G0 and G1 moves in the X/Y plane only to specify coordinates as a radius and angle relative to a temporary center point. Program G16 to enter this mode. The current coordinates of the controlled point are the temporary center.
 
Program G15 to revert to normal Cartesian coordinates.
 
G0 X10 Y10        // normal G0 move to 10,10
G16 //start of polar mode.
G10X10Y45  
( this will move to X 17.xxx, Y 17.xxx which is a spot on a circle) (of radius 10 at 45 degrees from the initial coordinates of 10,10.)
 
This can be very useful, for example, for drilling a circle of holes. The code below moves to a circle of holes every 10 degrees on a circle of radius 50 mm  centre X = 10, Y = 5.5 and peck drills to Z = -0.6
 
G21            // metric
G0 X10Y5.5
G16
G1 X50 Y0      //polar move to a radius of 50 angle 0deg
G83 Z-0.6      // peck drill
G1 Y10         // ten degrees from original center...
G83 Z-0.6
G1 Y20         // 20 degrees....etc...
 
G1 Y30
 
G1 Y40
> ...etc....
G15            //back to normal cartesian
 
Notes:
 
(1) you must not make X or Y moves other than by using G0 or G1 when G16 is active
 
(2) This G16 is different to a Fanuc implementation in that it uses the current point as the polar center. The Fanuc version requires a lot of origin shifting to get the desired result for any circle not centred on 0,0
 
Return to G-code list
 
 
G17,G18 & G19 Plane Selection
 
Program G17 to select the XY-plane, G18 to select the XZ-plane, or G19 to select the YZ-plane. The effects of having a plane selected are discussed in under G2/3 and Canned cycles
 
Return to G-code list
 
 
G20 & G21 Unit Selection
 
Program G20 to use inches for length units. Program G21 to use millimetres.
It is usually a good idea to program either G20 or G21 near the beginning of a program before any motion occurs, and not to use either one anywhere else in the program. It is the responsibility of the user to be sure all numbers are appropriate for use with the current length units. See also G70/G71 which are synonymous.
 
Return to G-code list
 
 
G28 & G30 Return to Home
 
A home position is defined (by parameters 5161-5166). The parameter values are in terms of the absolute coordinate system, but are in unspecified length units.
 
To return to home position by way of the programmed position, program
G28 X~ Y~ Z~ A~ B~ C~ (or use G30). All axis words are optional. The path is made by a traverse move from the current position to the programmed position, followed by a traverse move to the home position. If no axis words are programmed, the intermediate point is the current point, so only one move is made.
 
Return to G-code list
 
 
G28.1 Reference Axis
 
Program G28.1 X~ Y~ Z~ A~ B~ C~ to reference the given axes. The axes will move at the current feed rate towards the home switch(es), as defined by the Configuration. When the absolute machine coordinate reaches the value given by an axis word then the feed rate is set to that defined by Configure>Config Referencing. Provided the current absolute position is approximately correct, then this will give a soft stop onto the reference switch(es).
 
Return to G-code list
 
 
G31 Straight Probe
 
Program G31 X~ Y~ Z~ A~ B~ C~ to perform a straight probe operation. The rotational axis words are allowed, but it is better to omit them. If rotational axis words are used, the numbers must be the same as the current position numbers so that the rotational axes do not move. The linear axis words are optional, except that at least one of them must be used. The tool in the spindle must be a probe.
 
It is an error if:
 
¨    the current point is less than 0.254 millimetre or 0.01 inch from the programmed point.
 
¨    G31 is used in inverse time feed rate mode,
 
¨    any rotational axis is commanded to move,
 
¨    no X, Y, or Z-axis word is used.
 
In response to this command, the machine moves the controlled point (which should be at the end of the probe tip) in a straight line at the current feed rate toward the programmed point. If the probe trips, the probe is retracted slightly from the trip point at the end of command execution. If the probe does not trip even after overshooting the programmed point slightly, an error is signalled.
 
After successful probing, parameters 2000 to 2005 will be set to the coordinates of the location of the controlled point at the time the probe tripped and a triplet giving X, Y and Z at the trip will be written to the triplet file if it has been opened by the M40 macro/OpenDigFile() function (q.v.)
Straight Probe Command
 
Using the straight probe command, if the probe shank is kept nominally parallel to the Z-axis (i.e., any rotational axes are at zero) and the tool length offset for the probe is used, so that the controlled point is at the end of the tip of the probe:
 
                          without additional knowledge about the probe, the parallelism of a face of a part to the XY-plane may, for example, be found.
 
                          if the probe tip radius is known approximately, the parallelism of a face of a part to the YZ or XZ-plane may, for example, be found.
 
                          if the shank of the probe is known to be well-aligned with the Z-axis and the probe tip radius is known approximately, the center of a circular hole, may, for example, be found.
 
                          if the shank of the probe is known to be well-aligned with the Z-axis and the probe tip radius is known precisely, more uses may be made of the straight probe command, such as finding the diameter of a circular hole.
 
If the straightness of the probe shank cannot be adjusted to high accuracy, it is desirable to know the effective radii of the probe tip in at least the +X, -X, +Y, and -Y directions. These quantities can be stored in parameters either by being included in the parameter file or by being set in a Mach3 program.
 
Using the probe with rotational axes not set to zero is also feasible. Doing so is more complex than when rotational axes are at zero, and we do not deal with it here.
Example Code
 
As a usable example, the code for finding the center and diameter of a circular hole is shown in figure 11.5. For this code to yield accurate results, the probe shank must be well-aligned with the Z-axis, the cross section of the probe tip at its widest point must be very circular, and the probe tip radius (i.e., the radius of the circular cross section) must be known precisely. If the probe tip radius is known only approximately (but the other conditions hold), the location of the hole center will still be accurate, but the hole diameter will not.
 
N010 (probe to find center and diameter of circular hole)
 
N020 (This program will not run as given here. You have to)
 
N030 (insert numbers in place of .)
 
N040 (Delete lines N020, N030, and N040 when you do that.)
 
N050 G0 Z F
 
N060 #1001=
 
N070 #1002=
 
N080 #1003=
 
N090 #1004=
 
N100 #1005=[/2.0 - #1004]
 
N110 G0 X#1001 Y#1002 (move above nominal hole center)
 
N120 G0 Z#1003 (move into hole - to be cautious, substitute G1 for G0 here)
 
N130 G31 X[#1001 + #1005] (probe +X side of hole)
 
N140 #1011=#2000 (save results)
 
N150 G0 X#1001 Y#1002 (back to center of hole)
 
N160 G31 X[#1001 - #1005] (probe -X side of hole)
 
N170 #1021=[[#1011 + #2000] / 2.0] (find pretty good X-value of hole center)
 
N180 G0 X#1021 Y#1002 (back to center of hole)
 
N190 G31 Y[#1002 + #1005] (probe +Y side of hole)
 
N200 #1012=#2001 (save results)
 
N210 G0 X#1021 Y#1002 (back to center of hole)
 
N220 G31 Y[#1002 - #1005] (probe -Y side of hole)
 
N230 #1022=[[#1012 + #2001] / 2.0] (find very good Y-value of hole center)
 
N240 #1014=[#1012 - #2001 + [2 * #1004]] (find hole diameter in Y-direction)
 
N250 G0 X#1021 Y#1022 (back to center of hole)
 
N260 G31 X[#1021 + #1005] (probe +X side of hole)
 
N270 #1031=#2000 (save results)
 
N280 G0 X#1021 Y#1022 (back to center of hole)
 
N290 G31 X[#1021 - #1005] (probe -X side of hole)
 
N300 #1041=[[#1031 + #2000] / 2.0] (find very good X-value of hole center)
 
N310 #1024=[#1031 - #2000 + [2 * #1004]] (find hole diameter in X-direction)
 
N320 #1034=[[#1014 + #1024] / 2.0] (find average hole diameter)
 
N330 #1035=[#1024 - #1014] (find difference in hole diameters)
 
N340 G0 X#1041 Y#1022 (back to center of hole)
 
N350 M2 (that's all, folks)
 
Figure 10.5 - Code to Probe Hole
 
In figure 10.5 an entry of the form is meant to be replaced by an actual number that matches the description of number. After this section of code has executed, the X-value of the center will be in parameter 1041, the Y-value of the center in parameter 1022, and the diameter in parameter 1034. In addition, the diameter parallel to the X-axis will be in parameter 1024, the diameter parallel to the Y-axis in parameter 1014, and the difference (an indicator of circularity) in parameter 1035. The probe tip will be in the hole at the XY center of the hole.
 
The example does not include a tool change to put a probe in the spindle. Add the tool change code at the beginning, if needed.
 
Return to G-code list
 
 
G40,G41 & G42 Cutter Comp
 
To turn cutter radius compensation off, program G40. It is OK to turn compensation off when it is already off.
 
Cutter radius compensation may be performed only if the XY-plane is active.
 
To turn cutter radius compensation on left (i.e., the cutter stays to the left of the programmed path when the tool radius is positive), program G41 D~  To turn cutter radius compensation on right (i.e., the cutter stays to the right of the programmed path when the tool radius is positive), program G42 D~  The D word is optional; if there is no D word, the radius of the tool currently in the spindle will be used. If used, the D number should normally be the slot number of the tool in the spindle, although this is not required. It is OK for the D number to be zero; a radius value of zero will be used.
 
G41 and G42 can be qualified by a P-word. This will override the value of the diameter of the tool (if any) given in the current tool table entry.
 
It is an error if:
 
¨    the D number is not an integer, is negative or is larger than the number of carousel slots,
 
¨    the XY-plane is not active,
 
¨    cutter radius compensation is commanded to turn on when it is already on.
The behavior of the machining system when cutter radius compensation is ON is described in the chapter of Cutter Compensation. Notice the importance of programming valid entry and exit moves.
 
Return to G-code list
 
 
G43,G44 & G49 Tool Length Offsets
 
To use a tool length offset, program G43 H~, where the H number is the desired index in the tool table. It is expected that all entries in this table will be positive. The H number should be, but does not have to be, the same as the slot number of the tool currently in the spindle. It is OK for the H number to be zero; an offset value of zero will be used. Omitting H has the same effect as a zero value.
 
G44 is provided for compatibility and is used if entries in the table give negative offsets.
 
It is an error if:
 
¨    the H number is not an integer, is negative, or is larger than the number of carousel slots.
 
To use no tool length offset, program G49
It is OK to program using the same offset already in use. It is also OK to program using no tool length offset if none is currently being used.
 
Return to G-code list
 
 
G50 & G51 Scale Factor
 
To define a scale factor which will be applied to an X, Y, Z, A, B, C, I & J word before it is used program G51 X~ Y~ Z~ A~ B~ C~ where the X, Y, Z etc. words are the scale factors for the given axes. These values are, of course, never themselves scaled.
 
It is not permitted to use unequal scale factors to produce elliptical arcs with G2 or G3.
 
To reset the scale factors of all axes to 1.0 program G50
 
Return to G-code list
 
 
G52 Coordinate System Offset
 
To offset the current point by a given positive or negative distance (without motion), program
 G52 X~ Y~ Z~ A~ B~ C~ , where the axis words contain the offsets you want to provide. All axis words are optional, except that at least one must be used. If an axis word is not used for a given axis, the coordinate on that axis of the current point is not changed. It is an error if:
 
¨    all axis words are omitted.
 
G52 and G92 use common internal mechanisms in Mach3 and may not be used together.
 
When G52 is executed, the origin of the currently active coordinate system moves by the values given.
 
The effect of G52 is cancelled by programming G52 X0 Y0 etc.
 
Here is an example. Suppose the current point is at X=4 in the currently specified coordinate system, then G52 X7 sets the X-axis offset to 7, and so causes the X-coordinate of the current point to be -3.
The axis offsets are always used when motion is specified in absolute distance mode using any of the fixture coordinate systems.  Thus all fixture coordinate systems are affected by G52.

[s7manbs8]

Csak a G52-t akartam bemásolni, elnézést modi ha ki tudná venni köszönöm.

[2dbfy8y]

Igen a g52 x-y kívánt értékkel.
Utána mindig érdemes beadni neki az x0 y0 át.
Meg érdemes vele vigyázni, mert öröklődik.
Ha nem nullázod vissza, lehet nem tudod helyesen a nullpontot kinullázni, mert ezt figyelembe veszi mindadig, míg nem kap nulla értéket.
Ha jól emlékszek az m30 se törli vissza.
De ezt könnyű megszokni, én használom rendszeresen, minden gond nélkül.

[krnj79r9n]

Köszönöm nektek.
 
Aztán utána néztem a Mach3 leírásban is.
 
Csak azt hittem van a Mach3-ban valamilyen ismételt végrehajtás, ahol megadhatom, hogy hányszor marjon és milyen irányban és mennyivel tolja el a következőt. Végül is van benne ismételt végrehajtás, csak nem tudom megadni az eltolást.
Végül ciklusba raktam a generált G kódot és a főprogramból hívogattam, közben a G52-vel eltologatva a nullpontot. És a végén kinulláztam ahogy írtad. Így szépen működik.

[000000000]

Sziasztok! Csak most ismerkedek ezzel a CNC gépkezeléssel. A gépemet Mach3 program vezérli. A kérdésem annyi lenne,hogy bár a géphez kaptam néhány programot amit tudok használni,de szeretném tovább fejleszteni a dolgot. A programokat (relief munkák)amiket a Mach3 értelmez,hogyan lehet megírni? Esetleg valaki tud ebben segíteni? Hogyan induljak neki? Könyv,program esetleg egyéb... Egy fényképből milyen módon lehet egy programot létrehozni amit a Mach3 értelmez? Köszi a segítséget. Mindenkitől elfogadom a taácsot.

[2f428kduf]

Szervusztok
Segítség kellene. Kis  gépem van, a korábban elérhető skorpió nagy neki. Először a mator beállításnál "feleztem",valakitől azt a tanácsot kaptam a DRO mellett lévő oszlpban állítsam a 1x szorzót, 0.5-re. Korábban ez müködött, most nem. Vajon mit rontottam el? Lehet ezt valaholengedélyezni. Bár amikor negativra állítottam a számot,ellenkező irányban indult.

[xfg6v697j]

Gasználd ezt az utasításpárt.
"
10.7.15. Léptékezés G50 és G51
Léptéktényező definiálásához, még mielőtt alkalmazná az X , Y, Z, A, B, C, I és J szavakat,
programozza a G51 X~ Y~ Z~ A~ B~ C~ utasítást, ahol X, Y, Z stb. szavak az adott tengelyek
léptéktényezői.
Az értékek önmaguk természetesen sohasem skálázottak.
Nem engedélyezett egyenlőtlen léptéktényezőket használni elliptikus ívek G2-vel vagy G3-mal történő
létrehözásához.
Minden tengely léptéktényezőjének 1,0-ra történő visszaállításához programozzon G50-et"

[2f428kduf]

Köszönöm- próbálom

[s7manbs8]

Itt zavarodok meg a Mach3-mal, hogy egy kimenetet nem tudok felkapcsolni, mi a fenét kell állítani, hogy működjön ?
 
Próbáltam:
 
M11 P7
M10 p7
 
aztán az M7, M9 re a 3. mas outputra tettem, az se csinál semmit.

[s7manbs8]

Na, most a Diagnostic oldalon megláttam, hogy az output #4 világít, ha a Pin Ports fülön a output3- ra van állítva az M7 parancs, akkor eggyel kevesebb értéket kell ott beírni ?
 
Úgy néz ki. és emiatt nem csinálta, de az M11 P4 nem működik mégse, vagy ezt a parancsot nem ismeri alapból ?

[s7manbs8]

Na legalább most már fel tudom kapcsolni a lézert ezzel, egyelőre mindegy, mert nem képet akarok csinálni, ahol gyorsan kell ki be kapcsolni, hanem vágni, vagy feliratot, ahhoz meg nem kell gyorsan kapcsolnia, mindegy.

[887uiwjpw]

Sziasztok,
 
egy kis beállítási segítséget kérnék szépen.
Vettem a távoli kínai barátainktól egy 100-as kézi kereket. A mach3-t összehoztam vele hogy működjön. Olyan gondom van hogy akár mit állítok nem tudom úgy összehozni hogy mondjuk 1 teljes fordulat legyen 10mm mozgás. Ez egyáltalán megoldható? Ha igen akkor kérnék segítséget a beállításhoz.
 
Köszönöm előre is
 
szmore84