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發(fā)表于 2014-1-15 11:59:44
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GE FANUC 310i SERIES CONTROL
& S" h7 m- u# \( J7 yPREPARATORY FUNCTION 8 Q) {' Z P+ i; A" G# H% k7 u
The preparatory function codes are used to establish modes of operation. The following G codes are listed in their numeric sequence and also by group. In any group, one G code will cancel the other. The * denotes the default code when power is applied to the control.$ |4 l5 C# G; ?+ z
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Up to five G codes may be programmed on one line. If a line contains conflicting G codes, such as G00 G01, the last one read will control, but not in all cases.* k# p; a S! W9 }
CODE GROUP DESCRIPTION MODAL STD./OPT; o: I7 Z. e1 W+ G# ~/ m( Q
CODE GROUP DESCRIPTION MODAL STD./OPT
* ~" U* `1 K" A+ MG00 01 Point to point positioning YES Standard" {% P `: s; @9 c2 q R
G01* 01 Linear interpolation YES Standard
/ l* p# J! g' X- L2 eG02 01 Circular interpolation-CW Arc YES Standard% p3 w. c: T5 I. B0 i/ o, F. n
G03 01 Circular interpolation-CCW Arc YES Standard! m4 ^/ p. l9 h+ V. s0 W$ e
G04 00 Dwell NO Standard
. H" u- a. U- U1 @, ]- qG09 00 Deceleration NO Standard
Q" M1 k" e! n& O6 OG10 00 Programmable data input mode SOME Optional
0 X3 x$ q' \9 s0 a5 A; y3 `- LG11 00 Programmable data input mode cancel YES Optional
$ c6 u9 H6 h8 }" m1 }, L) kG10.6 00 Tool retract and recover NO Optional
9 S6 M! s, Y* _2 N% n4 D+ `: pG12.1 26 Polar coordinate interpolation YES Optional! b. k* S) W, A6 X
G13.1* 26 Polar coordinate interpolation cancel YES Optional
, w! r4 B* }. }; WG18* 16 ZX plane selection YES Standard( v: Q- \& O0 r* h3 P8 F
G19 16 YZ plane selection YES Standard
% l2 [$ I: A1 _$ k" @4 n3 ~/ iG20 01 Turning cycle YES Standard, U* ^# P9 z! s4 C, |6 _
G21 01 Threading cycle YES Standard
+ u& z( N/ ~" o- I7 ?1 dG24 01 Facing cycle YES Standard5 S7 h9 u. C8 n, ?/ _9 M
G22 04 Stored stroke check ON YES Optional
4 Q/ o! B9 r% H* HG23 04 Stored stroke check Off YES Optional
: e. N z; z6 o' {3 }$ E5 e2 a1 bG27 00 Reference point return check NO Standard1 n7 U' v' J0 T# B
G28 00 Reference point return NO Standard
% e; E S# k( I' K4 uG29 00 Return from reference point NO Standard+ I) r1 h8 m, Q* d# J4 C
G30 00 2nd, 3rd & 4th reference point return NO Optional
7 X% i* Z9 @, TG30.1 00 Floating reference point return NO Optional
8 Y1 m2 }6 O" j2 XG31 00 Skip function NO Optional0 n' z5 N2 M: R; L
G33 01 Thread cutting, constant lead YES Standard" F+ t3 J. _7 Q9 `0 `: ?( m
G40* 07 Tool nose radius compensation cancel YES Standard
1 \9 q7 V) L* W7 @G41 07 Tool nose radius compensation Left YES Standard
$ X7 q, G* [5 i/ c+ H, ^1 z3 d+ d5 MG42 07 Tool nose radius compensation Right YES Standard
$ m7 q4 j& S: w* ]G43.7 23 Tool offset compensation (extended tool selection) YES Optional6 b! u+ F" ]' x6 {2 T7 Q
G52 00 Local coordinate system shift YES 2 axis only( H( Q% {# F ~! n% a' s/ t
G53 00 Machine coordinate system selection NO Standard
) E% u, h4 ^0 K3 cG54 14 Work coordinate system 1 selection YES Standard
. ^% ]1 X3 {* ?: D6 uG55 14 Work coordinate system 2 selection YES Standard
1 s. S: y7 M' ~CODE GROUP DESCRIPTION MODAL STD./OPT
, j& X* P( ^6 S, W) n& BG56 14 Work coordinate system 3 selection YES Standard
3 t1 C: G, B. V& y6 v( G8 i; G- L GG57 14 Work coordinate system 4 selection YES Standard% G: r G: E4 e+ e* o8 p
G58 14 Work coordinate system 5 selection YES Standard8 ~1 D+ I# z' E9 v2 E5 W* L
G59 14 Work coordinate system 6 selection YES Standard
1 b* N) I L. p, G: HG61 15 Exact stop mode YES Standard7 P# B) s$ `# [9 K
G62 15 Automatic corner override YES Standard0 K4 `0 y! ~1 {0 H/ m+ E5 M$ ~
G64* 15 Cutting mode YES Standard4 G- h3 F- S9 M. }# i0 v8 G
G65 00 Marco call NO Optional
8 V# n- _' m+ g0 J3 U7 q J# zG66 12 Macro mode call A YES Optional
! e2 g8 t E: H* QG67* 12 Macro mode call cancel YES Optional& W+ G G3 Z9 R* J3 U
G68 13 Balance cutting YES Optional
6 M1 r7 G' W& y% [8 c9 ]. BG69 13 Cancel balance cutting YES Optional
% R9 K1 @4 W, i( R9 bG70 06 Inch programming YES Standard
* x3 o0 H+ @7 ~G71 06 Metric programming YES Standard( L- R, A9 s( s& m
G72 00 Finishing cycle YES Optional4 b! j! k% ]' X- T
G73 00 Stock removal-turning YES Optional0 x3 f( D3 l: o/ X6 g: b
G74 00 Stock removal-facing YES Optional
9 `2 e: Y8 w! w, g4 dG75 00 Pattern repeat YES Optional
3 X: p) J6 ]8 V, uG76 00 Peck drilling in Z axis YES Optional
7 T2 A2 Z5 q( PG77 00 Grooving-X axis YES Optional
% o' [* k& v- pG78 00 Threading cycle YES Optional
! [5 f# u* S H0 T' p" uG80* 09 Canned cycle cancel YES Optional
- F9 m8 J3 e& PG83 09 Face drilling cycle YES Optional
9 X1 k2 ~# [- {6 f- t7 _G84 09 Face tapping cycle YES Optional
; J6 }0 K; a) H# R8 JG85 09 Face boring cycle YES Optional
2 ^$ {# ?& L1 x l! nG87 09 Side drilling cycle YES Optional
) u- z- D( x2 i1 [0 d/ C% YG88 09 Side tapping cycle YES Optional
+ {# N+ E2 h5 [9 D' i0 Y3 v# d% SG89 09 Side boring cycle YES Optional9 G# L+ j4 I, T) I) Y+ J- h
G90* 03 Absolute dimension input YES Standard
, G1 }6 r1 j# F4 _2 X1 TG91 03 Incremental dimension input YES Standard
8 _# Y% J) j/ ~ V% \4 _1 O$ I+ k3 uG92 00 Work change/ maximum table speed NO Standard
" B: _/ [" Q+ l1 G. B0 U- uG94 05 Inches (MM) per minute feedrate YES Standard
8 n" N% W$ Y9 fG95* 05 Inches (MM) per table revolution YES Standard
0 h8 _4 U! B1 Y6 A6 a v: cG96 02 Constant surface speed YES Standard
; j& _7 g* e; V" e1 {G97* 02 Direct rpm YES Standard/ D8 o$ g: r6 X0 Z; f% n6 L
G98* 10 Canned cycle initial level return YES Optional. e9 Z+ x' Y) ?) s
G99 10 Canned cycle R point level return YES Optional |
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