This manual is primarily intended to give operators maintenance
instructions for YASNAC i80.
The information contained in manual does not provide all
details to be met concerning maintenance and troubleshooting. If
uncertainties be encountered for particular maintenance opera-
tion, refer to following YASNAC i80 documents for additional the
information:
SOLUTION TO ERRORS DETECTED IN SELF-DIAGNOSIS ““ “ ““ “ ““ “ 4 .. “. “ “ 4.3.2
SPINDLE DOES NOT ROTATE .
STATUS
T
TAPE MODE DOES NOT FUNCTION
TAPEREADER
DISPLAY BY SELF-DIAGNOSIS FuNcTION
MAINTENANCE."".""""".""""""""."""'""."""
TROUBLE IDENTIFICATION.......”””””””””
TROUBLESHOOTING....””””
TROUBLESHOOTING BY
ALARM
TROUBLESHOOTING WITHOUT
TYPESOF FIXED
FILES..............””””””
..”””””””””””””””
(DGN)
.“””””””””””””””””””
““”””””””””””””””””””””
CODES ”””” ”””” ”.”” ”4. ””4.2
ALARM
CODES.”””””””””””””””
4“”’””’””
. . . . . . . . . . 4 . . . . . . . .
4“”.””
2“””””””
4
4:””””””””””””””””””””””””
4
““”””
8“
.“”6 .2.2.1
6.2.1
6.2.1.4
6.1
4.3.11
““””””191
. . . . . ...144
. . . .
..”. 184
..””
.””123
““”””” 189
.-
. . . ...121
. . . . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . 130
. . . . . ...103
. . . . . ...144
4.4
4.1.2
~~~~~~~~ 4.1.1
““”.”””””””””
““”4 .3.2.1
“... .””128
. . . . . . . . 72
..”...”” 71
. . . . . . . .
lo4
4.3.14 126
. . . . . . . .
58
57
104
4.3.1o ““””””’”122
4,5
4.3.15
2.2
““”””’”” 4.1
4.3
8.1
. . . . . . . 130
““””127
..”....
.
59
. . . . . . . . 71
69
““””””””
77
. . . . . ...103
. . . . ...204
1
vi
1. OUTLINE
The YASNAC i80 provides you with an internal self-diagnosis function. System maintenance can easily by accomplished with DGN
and other main functions as listed below;
(1)
Microprocessor
nally and can display the status with function keys.
If any failure occurs, NC immediately stops with the blinking
of alarm displays.Also the same precedure can be executed on
machine sequence for the application of built-in type programmable controller.
always monitors the machine operations inter-
ON/OF’F
(2)
displayed with DGN.
Setting value of various parameters such as
(3)
constant and rapid speed can be checked on the CRT,
PLC
INTEX2NC program analysis (With extended CPU)
FG
FG
INTEXB2
I
MOTION
I
FG2
Remarks
Communication module
Expanded RAM
Expanded RAM
FC200
memory RAM
FC200
memory RAM
FC200 memory RAM 384kB, with printer I/F
FC200 memory RAM 640kB, with printer I/F
Sequence controller 2 CH RS-232C
Interpolation computing element x
Interpolation computing element x 2
NC program analysis (with high-performance
CPU)
Motion management, data distribution, without
spindle control
Interpolation calculator (for FC 260)
64kB
192kB
448kB
960kB
1984kB
(320 m)
(640 m)
(1280 m)
(2560 m)
(5120 m)
512kB
640kB
I
JANCD-FC301-3
JANCD-FC401
JANCD-FC470
JANCD-FC801
JANCD-FC802
JAN CD-
FC803-3
JANCD-FC900B-:
JAN CD-
FC903-2
JANCD-FC903-3
JAN CDJAN CD-
FC950-2
FC950-3
JAN CD- FC950-4
DTN6660
DTN7050
DTN7040
DTN8160
I)
TN8170
DTN8140
DTN8530
DTN8090PIo2
DTN81OO
DTN8200
DTN821O
DTN8220
LIF
FDC
I
ARM
I
ADM
DAMRemote 1/0 A/D module
DLB
SP
PI02
ASP
ASPPanel interface, JIS keyboard
ASPPanel interface, video printer, JIS keyboard
Linear scale interface: 3 axes
Floppy disk control
I ACGC debug memory module
] Remote~O
Branch board : 3 axes
Panel interface (for EL)
Panel 1/0 2HPG
Panel 1/0 3HPG
Panel interface, video printer
A/D module
43
1.2 COMPONENTS (Cent’d)
.
Communication Module
(Model
JANCD-FC1l O)
11q-.——— —————— —.-—-——
w
t,
I
,! ,
Ill
1,[
111
1
1
1
1,1
1
1
1
111
111
1
1
1
111
1,1
1,1
Q
I_
I
.
Approx. mass :0.31 kg
.
Expanded RAM
(Model
JANCD-FCI
20)
FC 120
B
u
44
Approx. mass :0.27 kg
.
Sequence Controller
(Model
JANCD-
FC21 O-2)
4
Approx. mass :0.32 kg
.
NC Program Analysis
(Model JANCD-FC222)
~r-----
. . . . . . . . . . . . . . -----------------
~
1!
Approx. mass :0.42 kg
I
1
45
1.2 COMPONENTS (Cent’d)
● Floppy Disk Control
(Model
FC401 )
-
This figure shows
model
attached to model
JANCD-FC400.
JANCD-
JANCD-FC401
Approx.
mass :0.22 kg
+
c
~L___-____________--____
<
,,::=
,,, -.:
(,.+:
-_-__-_---_-@.!
9
ACGC Debug Memory
Module (Model
JAN CD-FC470)
-
-
-
L
L
------------
L
L
.
]0
]
.
D
46
Approx.
mass : 0.35kg
I
● Panel 1/0 (Models JAN
/—. +
/—. ,
/
—-—.
CD-FC903-2
and -3)
..2! w
m., .
-No CN23 for
JANCD-FC903-2,
%.
>1
-1
● Panel Interface (Models JAN
r
:
;
+
● ✎
q
-.
Model
JANCD-FC950-2
has no CNE.
Model
JANCD-FC950-3
has ho CND.
Model
has CND and CNE.
JANCD-FC950-4
;
r
[
“
I
I
CD-FC950-2,
-3, and -4)
—
L
47
1.2 COMPONENTS (Cent’d)
.-.
(12)
Combination of Servopack (SC Type) and Motor
Table 1.12
Motor Model
M Series
F Series
G Series
D Series
R SeriesUSA
Combination of Servopack (SC
USA ME D-03BS
USA ME D-06BS
USA ME D-09BS
USA ME D-12BS
USA ME D-20BS
I
USAF
~
I USAF
I
USAGE
I
USAGE
ED-02CS
ED-20CS
D-02AS
D-03AS
I USA GE D-05AS
USA GE D-09AS
USA GE
USA GE D-20AS
USA GE
B
USA GE D-44AS
D-12AS
D-30AS
USASEM-15AS
USASEM-30AS
USA DE
USA DE D-1OES
t
D-05ES
USA DE D-15ES
USA DE
USA DE
USA
D-22ES
D-37ES
REM-OICS
USA REM-02CS
REM-03CS
USA
REM-05CS
I
USA
REM-07CS
35SC
o
0
0
00
0
0
00
0
0
00
00
u
o
0
00
SE RVOPACK
10SC
0
I
15SC
0
0
0
0
0
0
\
0
00
0
00
0
00
00
Type) and Motor
CACR-IR
20SC30SC44SC
I
I,
010
00
00
00
00
00
0
0
0
48
(13)
Combination of Servopack (SB Type) and Motor
M Series
F
Series
G Series
S Series
Table 1.13
Motor Model
I USA ME D-06BS
I USA ME
~
USA ME
I USA ME
I USAF ED-05CS
I USAF ED-09CS
-
I USA FE D-30CS
I USA FE D-44CS
I USA GE D-05AS
USA GE
USA GE D-12AS
USA GE
US AGE D-30AS
USA GE D-44AS
USASEM-05AS
E
Combination of Servopack (SB Type) and Motor
D-09BS
05SB
SE RVOPACK CA
10SB
1
15SB
(-)
III
n
u
CR-IR
20SB I 30SB I 44SB
o
0
D-30BS
D-44BS
0
0
0
0
0
0
0
D-09AS
0
0
D-20AS
0
0
0
I
0
0
0
0
USASEM-30AS
USA DE
USA DE D-1OES
D SeriesUSA DE
USA DE
USA DE D-37ES
R Series
USA
USA
I
Motor Model
,-”
M Series
F Series
G Series
S Series
D Series
R Series
I
I
I
I
D-05ES
D-15ES
D-22ES
REM-05CS
REM-07CS
Applicable Encoder Type for Motor Models
15-bit Absolute15-bit New-type
EncoderIncremental Encoder
o
o0
o0
o0
o0
o
0
0
0
0
Encoder Tv~e
00
I
0
17-bit Absolute
Encoder
1.2 COMPONENTS (Cent’d)
● SERVOPACK Model CACR-IR03-20SB
1
MCCB’
HOLE
(2
PWB/
m77M0uNT’NG
0
81
I
-
(145)
\
25
‘\
2!
150
,
PACKING
HEAT SINK
-
NAME PLATE EXTERNAL
SE RVOPACK
Connector Model
CN1
CN2
MR-20RFA
MR-20RMA
I
\\
(TERMINAL SCREW M4)
\
TERM
IN=L
Manufacturer
Honda Communication
Industry Co., Ltd.
Honda Communication
Industry Co., Ltd.
Approx. mass: 5.5kg
~GROUND
TAP
(2-M4)
MOUNTING HOLE ,
CLIPPING
HOLE
4-M6
+
~
100
u
Mounting Hole Processing Diagram
-.
50
● SERVOPACK Model
B-’7:”UT’:H”LE
CACR-IR30SB
“’w’)
PACKING
HEAT SINK
/
I
—
0
NAM
EPLATk
0
\
ixTERNAL TERMINAL
(TERMINAI SCREW M4)
*GROUND
.
G
:
TAP (2-M4)
k
—
—
30)
*
+
n
m
+
SE RVOPACK
Connector Model
CN1
<N2
MR-20RFA
MR-20RMA
Manufacturer
Honda Communication
Industry Co., Ltd.
Honda Communication
Industry Co., Ltd.
Approx. mass: 9kg
4-M
uNT
“
Mounting Hole Processing Diagram
TC:R;GT
N
’
11
Ho
’
% ‘
w
51
1.2 COMPONENTS (Cent’d)
● SERVOPACK Model CACR-IR44SB
BY”””’
‘o”
“’”
PACKING
HEAT SINK
B)
//
—
1 MCCB
.-.
0
0
—
/
—
~
AMEPLATE ExTERNAL TERMINAL
N
\
I
SE RVOPACK
Connector Model
CN1
CN2
MR-20RFA
MR-20RMA
25
‘/
(TERMINAL
~GROUND TAP
\
.
scREW M4)
I
Manufacturer
(2-M4)
Honda Communication
Industry Co., Ltd.
Honda Communication
Industry Co., Ltd.
(2(XI)
MOUNTING HOLE
4-M
&
)0)
+
n~
~ C~O~~G ~ ~
’ u
+
23
100 -
146
Q
+
w
Mounting Hole Processing Diagram
52
m
SERVOPACK Model
CACR-IR [~![~!SC
MOUNTING
/
*
I
n
I
r~
1
. .
1
I
L
1111 1(
ll@ I
1111
1111
1111
1111 II
1111
1111 ,,
-
II II
--+
*I
~l—;+
1111
II
II
1111 ,,
II
1111 II
II II
1111
1111 II
1111
II
II
II II
II t------
,,4
II
Ii-et
&_
%
I
II
II
II
II
II
———
ii
II
,,
II
II
II
II
\
._—_—.
__
A
——
——
‘i
1’
Ilo
1’
1’
ti-
PL4TE
—J
I
l.~”
W A,,,., . . . . . . . . .
\
CN1
100
140
SE RVOPACK
Connector Model
MR-20RFA
m
-1
Manufacturer
Honda Communication
1
Industry Co., Ltd.
CUPPING ~
n
WLE
u
4H
100
134
4-M
MOUNTING
HOLE
Mounting Hole Processing Diagram
2
3
1
CN2
MR-20RMA
Honda Communication
Industry Co., Ltd.
1.2 COMPONENTS (Cent’d)
(14)
Spindle Drive Unit
(VS-626MTIII)
Table 1.14Spindle Drive Units
Drive Unit
CIMR-MTIII-3.7K
CIMR-MTIII-5.5K
CIMR-MTIII-7.5K
CIMR-MTIII-ll
CIMR-MTIII-15K
● Models CIMR-MTIII-3.7K,
-5.5K,
Model
-7.5K
K
Supply Code
—
I
—
—
—
I
—
Spindle Motor
I
i
Specification
Model
UAASKA-04CA1
UAASKA-04CA3
UAASKA-06CA1
UAASKA-06CA3
UAASKA-08CA1
UAASKA-08CA3
UAASKA-llCA1
UAASKA-11CA3
UAASKA-15CA1
UAASKA-15CA3
● Models
-15K
Remarks
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
CIMR-MTIII-ll
K,
54
-..
(15)
Spindle Drive
Unit
(VS-626VM3)
Drive Unit Model
CIMR-VMS23P7
CIMR-VMS25P5
CIMR-VMS27P5
CIMR-VMS2011
CIMR-VMS2015
CIMR-VMS2018
CIMR-VMS2022
CIMR-VMS2030
Table 1.15
Supply Code
—
—
—
—
—
—
—
—
Spindle Drive Units
Spindle
I
Motor Specification
Model
UAASKA-04CZ1
UAASKA-06CZ3
UAASKA-06CZ1
UAASKA-06CZ3
UAASKA-08CZ1
UAASKA-08CZ3
UAASKA-llCZ1
UAASKA-11CZ3
UAASKA-15CZ1
UAASKA-15CZ3
UAASKA-19CZ1
UAASKA-19CZ3
UAASKA-22CZ1
UAASKA-22CZ3
UAASKJ-30CZ1
Remarks
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
Flanged end
Foot-mounted type
Flanged end
Foot-mounted
Flanged end
UAASKJ-30CZ3Foot-mounted type
tvDe
SO OR MORE
A
MAIN CIRCUIT
TERMINAL
MB
9
In-panel Mounted Type
W OR MORE
-’
4-MA
MTG HOLE
‘\
\
DOOR OPENED
\
GROUND
~;RMINAL
MAIN CIRCUIT
, TERMINAL
MB
AIR ~
%7!
J1
9
Heat Sink External Cooling Type
W
OR MORE
~~
60NNEcToR.3 I ~
CONTROL
CIRCUIT
T&RMINAL
5
a
/:
m
A
MAIN
CIRCUIT
~~RMINAL=
. .
-IIIE
SD
OR MORE
[
\
4-MA
MTG HOLE
MAIN
CIRCUIT
TERMINAL
Me
UR
m
w
--,
[
---
AIR
J
55
1.2 COMPONENTS (Cent’d)
(16)
Maintenance Unit
Table 1.16Maintenance Unit
Model
JZNC-IDU03
—
JZNC-IDU04
JZNC-IDU05
Supply Code Abbreviation
DUN20560
DUN20290
DUN20770
ISD
FDCFDD unit for developing ACGC
AXIMMonitor board for software support
Remarks
Sequence ladder editing unit
56
2. ROUTINE INSPECTION SCHEDULE
This section explains the requirements to be observed for
maintenance time in order to keep the equipment in
optimum operating condition for an extended period.
CONTENTS
2. ROUTINE INSPECTION SCHEDULE".•
".."."......".."".""""..".".................•
. . . . . . . . . . . . . . . . .
57
2.1 ROUTINE INSPECTION
2.2 TAPE READER MAINTENANCE
I
2.3 CONTROL PANEL
2.4
AC SERVOMOTOR CCS". ". O" O"... C"" O"" OOO. O""""..."......"".""""...-".................•
This section describes troubleshooting by alarm codes,
troubleshooting
checks,
and status display by the on-line diagnostics
function.
The contents of this section should be understood fully to
minimize the down time of your system due to malfunctions.
OC. C. O... O.....................• C. CO. OOC.. 13o
C.........................•
O.. O... O.. OO.OOO
00000
. . ..
O.. O. O..........• OO...
. .. O . . . . . ..
. . . . . . . . . ..
. . . . . . . . . . . . . . . . . 130
O.........• O 103
. . . . . . ..
. . . ..
S... O.. O....• O...O. 127
O........• OOO.OO
103
O.....O 104
.
113
O..
113
115
117
O....
119
OS....... 12o
122
123
124
125
126
. . .
128
C..00..
129
C... O. 129
131
4.1 TROUBLE IDENTIFICATION
Try to
occurs.
fully analyze the circumstances in which trouble
This is necessary
for identifying the trouble
and/or for assisting YASNAC service personnel who may
be called in to correct the trouble.Verifying the
following points will minimize the
system.
4.1.1 RECOGNITION OF TROUBLE STATUS
(1)
What operation will cause
the trouble? ( Is other operation performed normally?)
When does the trouble occur:
(2)
every time or frequently?
Was there any external
(3)
disturbance such as power
interruption or lightning
when the trouble occurred?
Did it occur during or after
(4)
operation of mode switches
such as EDIT or memory,
or process keys such as
down time- OF
Trouble
4
/
/
How?
When?
your
How often ?
E
‘r
B
‘r ‘oft ‘
on CRT panel?
Ensure the following points
(5)
if the trouble occurred as
related to feed and/or
spindle operation:
●
Check of LED on the drive unit
●
ON/OFF check of circuit breaker
●
Time of trouble occurrence such as
eys
at power ON.
at acceleration.
at
,-,.
(6)
Does it depend on the part program?
deceleration.
at steady-state running.
Record the machining program,
offset, work coordinate system shift
amount or coordinate system set
value if it depends on the part
program.
Lightning?
(o@@)/
>/
‘
a
9/7
+
(--~
-’/’ f’
~
:
71
4.1 TROUBLE IDENTIFICATION (Cent’d)
4.1.2 RECOGNITION OF NC SYSTEM
Ensure the following points so as to correctly recognize
the status of the machine and equipment regardless of
the details of the trouble.
(1 ) Name of machine manufacturer
(2) Time of delivery
(3) Name and model of machine
(4) Name and model of NC unit and others
T
The NC unit is provided with an interlock
swicth.
NC unit power supply is tripped by MCCB and
the interlock switch is released.
the check operation until the interlock switch
is released.
When the operator opens the door, the
(Example )
NC unit:
Servo drive:
Servo motor:
YASNAC i80M
CACR-IR05SB
USAGED-05F
Spin dle drive:
Spindle motor:
Do not start
VS-626 MT III (CIMR-MT III-7. 5K)
UAASKA-08CA3
72
(5) NC System Software
YASNAC
number and version number.
(a) System Number (NC:
A system number denotes the number of the system
software and consists of five integer digits and a
revision number of two digits.
The system number of NC basic software is
displayed on the initial screen at power on.
i80
software is identified by a system
[1;::[::2[: -[1[:
)
YASNAC
i
80
**
SELF TESTING!!
~~
NC : 01271–00
Fig. 4.1NC Screen at Power on
Optional software is also assigned a system number.
Examples:
(b) Version Number
A version number denotes the number of the
software of each CPU of the NC basic section , and
-.
consists of two integer digits and two fractional
digits.
Communication module
PLC ladder
ACGC application
(COM:
V[~[O.~I;[ll)
/
73
4.1 TROUBLE IDENTIFICATION (Cent’d)
System Consistency
(c)
(i)
The function is provided to check whether NC basic
software products have version numbers that are
consistent with
( ii)
For optional software products, only the integer
part of the system number is checked for
con sistency.
If a lack of consistency is found, a serious alarm
occurs and the second entry cannot be made.
(iii)
Calling up the system consistency check screen
CPUS.
Depress the
❑
Depress the operation selection key
H
MAINT
~
key.
m
in function
F
selection mode, and the soft keys shown in the
figure will be displayed.
74
The screen is displayed as shown in the figure below.
i
System number
of PLC ladder
a
VERS1ON NO.MNT
$SY
STEM NO
C
: 01271–00
-N
<PC:
12S45-6
SMON
INTEX :
PLC
MMON
MG
FG1
FG2
FG3
AXIS1 : ******
AXIS2 : ******AX
MEM
m
“mmmmmh
F
The PLC ladder system number
is also displayed in kanji characters.
NG portion is reversely displayed.
A number exceeding 99 is displayed with
a question mark ( ?).
=
012345
$OPTION VERSION NO
cOM :
:
ISll
IS12
STP
VO1.01
: VO 1.01 OK
: VO 1.03 OK
: ******
: VO 1.01 OK
: ******
: ******
:
VOI.02
: ******
:
VO1.01
OK
VO1.02
:
: ******
: VO 1.01 OK
: VO 1.01 OK
: ******
: VO 1.02 OKAX IS1O : VO 1.02 OK
OK
V02.00W
DIAGNIN’OUT
AxIS3
AXIS4
AXIS5
AXIS6
AXIS7
AXIS8
AXIS9
AX
v02.
OK
N12345
OK—
OK
\
T
section is checked
LSK
.-,.
Fig. 4.2
Version Number
Dis~lay
Screen
75
4.1 TROUBLE IDENTIFICATION (Cent’d)
Only the system number of the NC basic section
can be obtained from the screen at power on .
YASNAC
i
80
**
SELF TESTING!!
M*
NC : 01271–00=
.
Fig. 4.3Version Number Display Screen
(6) As required,
list supplied with YASNAC
check whether parameters match the
m
i80.
76
4.2 TROUBLESHOOTING BY ALARM CODES
This description covers the troubles displayed by alarm
codes that were recognized by diagnostic function of NC
unit during normal operation.
For details,
Alarm Codes ‘t ,
or L instruction manual.
Especially difficult troubles are explained in Section 8 of
the Appendix which is separate from this manual.
4.2.1 DISPLAY METHOD
When an alarm occurs, the number of the highest order
alarm and a comment are displayed on the stationary
display field at the bottom of the CRT screen regardless
of the mode and selected screen display.
display, refer to Par.
operation manual.
the alarm can be displayed by the following operations:
refer to Section 8 of the Appendix “List of
which is separate from the YASNAC i80M
3.4.1 of the YASNAC i80M or L
In this case, detailed information of
For stationary
<Operation>
N
n
,-
Depress the
— The common screen will be displayed.
Depress the
—
COMN
key.
o
m
T
The alarm job is selected.Select alarm
function or users function which is displayed
on the stationary display field.
job selection soft key.
77
4.2 TROUBLESHOOTING BY ALARM CODES (Cent’d)
Table 4.1Classification by Alarm Number
No.
#oooo
to
#oo49
#oo50
to
#oo99
#oloo
to
#0499
#1
000
to
#lo99
#2000
to
#2199
#3000
to
#3299
Explanation
;rror
related to editing and
,peration,
ven in BG
;rror
Iperation, error not
ing in BG
‘rogram
‘rogram
otal, etc.
fiachine error, OT, reference
Joint
:ompleted, imposition, etc.
;ervo, spindle related ESP,
;PU
error occurring
related to editing and
occur-
error
error, DNC, CMOS
return, machine setup
mutual monitoring
stopoutput
Block stop
Block stop
Block stop
Block stop
Coasting to a
stop or
immediate
Immediate
servo off
stol
sto]
.nput
error,
harm
nput
error,
Ilarm
;nput
error,
harm
[nput error,
11
ar m
Alarm
Alarm
Reset, Method, Remarks
Reset
Reset. Power off in case of
#0050 and #0051
Reset
Reset
Reset after removing the
cause. In case of
“ machine setup completed”,
a reset is automatically
made when the power is
first turned on.
Reset after removing the
cause. For SVOFF, a
reset is automatically
made at SVON.
#8000
to
#8049
#9000
to
#9049
No.
Missin!
BAT
indi-
cation
BAT.
AXI{
No.
Missin!
Warning
Message
tiemory check error,
aatchdog
error
Error occurring during BG
operations (basically the
same as 0000 to 0049)
Battery error
Encoder alarm
Wrong key operation, minor
editing operation error
timer error, offline
Immediate
servo off
Not stopped
Not stopped
Not stopped
sto]
Alarm
BG error
output
None
Warning
For maintenance
Halt each CPU.
Switch to the maintenance
screen.
Soft key reset or reset
Replace the battery.
1
Next key operation
4.2.1.1 ALARM INDICATION JOB
Job Selection Soti key
(m)
Function selection
soft key
Depressing the job selection soft
key lALAR~~l
P
causes either of the following functions to be displayed:
I
s
Alarm function [refer to (1)]
● Users’ function [refer to (2)]
(
A
a
-.
79
4.2 TROUBLESHOOTING BY ALARM CODES (Cent’d)
(1 ) Alarm Function
Depressing the
M
m
fun ction selection soft
\
key causes all alarms to be displayed.
ALARM
3000: SERVO UNREADY
0411: ZR UNREADY (X)
MEM 3000 :SERVO POWER UNREADY
COM
012345
STP
N12345
LSK
mmmmmmm
T
See (2) for the following:
Sequence error O: 1080
2180
1:
2:
3240
Fig.
4.4
Alarm Function Screen
80
(2) Users’ Function
Depressing the
m
T
*U
nction selection soft key
0
causes the users’ function screen to be displayed.
Use
Horm
USER’S
MEM
MES.1
POSIT
I
ALARM
I
mmm
key for switching of pages.
COM
Emm
012345
STP
N12345
LSK
E
Fig
45
Users Function Screen
A
●
*
These troubles are concerned with machine
sequence.
For details, refer to the manuals prepared by
the machine manufacturer.
Eliminate the cause of the alarm and depress the
‘SE key,
0
Q
display will be reset.
and the alarm state and the alarm
81
4.2 TROUBLESHOOTING
BY ALARM CODES (Cent’d)
4.2.2 ALARMS 0010 AND 0011
Cause of Trouble
Alarm 0010
(TH Error)
~
) In case of tape operation:
rhe number of data holes for each character
s checked on the NC tape.
An
alarm is issued when the number is:
Even: For EIA tape
Odd: For 1S0 tape
(The description that follows applies to the
EIA code. )
80
70
60
50
40
●
WB
30
LSK
20
10
—RRR
Check Method
.
.
.
. .
.
.
.
.
.
.
.
.
.
.
~C;l~~GO; ~
~EOB
. .
.
~
BLOCK DATA
128 CHARACTERS OR LESS
EOR
(PARITY ERROR)
Table 4.2
.
.
. ...
.
.
.
.
12; 456C
1?
RR
Solution
.
Clean tape reader.
.
Check tape itself if the
feed hole is faulty and/or the
nap is raised on the hole.
.
Failure of tape reader itself
Alarm 0011
(TV Error)
-.
Z)
In case of memory operation or at time of
EDIT, failure in program area.
In case of tape operation:
The tape should be capable of TV check.
(Number of characters for one block should
be even, including EOB. )
Failure of JANCD-FC200 board
or of expansion memory
board
(FC120 board)
If the tape cannot perform TV
check, use it by setting
~pmOO04 D,
O (TV check OFF) or make it so
that it can perform TV check.
= O,
pmOO02 D,
=
82
4.2.3 ALARMS 0016,0017,0018,9016, 9017 AND 9018
(RS-232C
ERROR)
Cause of Trouble
Alarm 0016
9016
(Communication
Error)
Alarm 0017
9017
( Overrun)
Alarm 0018
I
(Line Selection)
9018
Communication error of RS-232C
(ex. too rich noise level)
After RS-232C interface stop code was output,
more than 10 characters were read.
RS-232C interface line was erroneously selected.
I
I
0017 and 9017 are online and offline codes,
respectively,
mission error is indicated by 0017 and offline
transmission error is indicated by 9017.
Soft key
-1
Check Method
For example, online trans -
+ Not output by
Soft key
~]
Solution
● Check cable grounding.
I
● Check the specifications of
I
RS232C eaui~ment
● Check parameters.
. .
Machine
POri
BPS
No
I
Stop bit
Bit length
Parity check
Control code
RTS control
DR
r
line control
1
-.
Detailed investigation
is required. (Contact
YASKAWA
representative. )
a
Fig. 4.6
RS-232C
Interface Troubleshooting Flowchart
4.2 TROUBLESHOOTING BY ALARM CODES (Cent’d)
● Setting of Applicable Interface
Set the data transmission
and control code sending command specifications.
<Operation>
❑
Depress the
baud rate, stop bit length,
MAIHT
key.
n
m
❑
Depress the
v
— The 1/O verification job is selected.
❑
Depress the
— Select the
❑
Set parameters one after another interactively.
1/0 UNIT SET
UNIT
PORT
BAUD RATE
STOP BIT
BITS
PARITY
XON/OFF
RTS CNTRL
PARITY 1S0
m
0
v
1/O
equipment setup function.
job selection soft key.
function soft key.
MNT
IN
RS-232C
No.1
48009600
2 BITS1 BITS
8 BITS7 BITS
OFF
ON
ON
ON
012345
OUT
RS-232C
No.2
EVEN PARITY
OFF
OFF
OFF
N12345
84
-.,.
ME M
-==r=lm=h
STP
PARAM
DIAGN
Fig. 4.7Setting of Serial Interface
m
LSK
Table 4.3 shows settings of serial interface.
Table 4.3Settings of Serial Interface
Menu Item
UNIT
PORT
BAUD RATE
STOP BIT
BIT LENGTH
PARITY
CONTROL
CODE
RTS CONTROL
PARITY ISO
Input
YE tape reader
>eneral-purpose RS-232C
First
Second
75
150
300
600
1200
2400
4800
9600
1 bit
2 bits
7 bits
8 bits
Even parity
Odd parity
Without
With
Without
With
Without
With
Without
I
General-purpose RS-232C
output
YE tape puncher
First
Second
75
150
300
600
1200
2400
4800
9600
1 bit
2 bits
7 bits
8 bits
Even parity
Odd parity
Without
With
Without
With
Without
With
I
Without
0-
q
The two RS-232C ports cannot be used at the same time.
Set the first and the second ports separately.
. .
4.2 TROUBLESHOOTING BY ALARM CODES (Cent’d)
For example, to switch from the first port to second
port:
❑
Put the cursor on the port to switch to.
❑ Depress the operation selection key .
%
❑
1 Depressing the desired soft key writes data to the
cursor position determined above.
Table 4.4 shows
shows
RS-232C
Table 4.5
Symbol
FG
SD
RD
RS
Function
Signal StatusMarkSpace
Logic
Connection Cable (A) for Terminal Connection
NC Side (D B-9P)
Frame Grounding
Send Data
Receive Data
Send Request
RS-232C
interface connection cables.
Table 4.4
Signal
voltage levels and Table 4.5
RS-232C Voltage Levels
VO<–3V
OFF’
1
Pin No.
1
2
3
4
~
VO<+3V
ON
Connection
0
RS-232C
0
Interface
External
Equipment
Symbol
FG
SD
RD
RS
86
,- “
Cs
DR
SG
ER
Sendable
Data Set Ready
Signal Grounding
Data Terminal Ready
5
6
7
0
9
\
o
L
+
Cs
DR
SG
IO BUSY
ER
Fig. 4.8 shows connection example of standard
RS-232C
tape reader.
JANCD-FC200
—.—
.—
DB-9P
*-
q
Keep cable length from tape reader to main board
(model
JANCD-FC200)
less than 3m. Contact your
YASKAWA representative in advance if it is
necessary to exceed 3m.
Fig. 4.8
. .
Exampleof 1st RS-232C Interface
87
4.2 TROUBLESHOOTING BY ALARM CODES (Cent’d)
4.2.4 ALARM 1099 (TEMPERATURE ALARM INSIDE THE PANEL)
Table 4.6
Cause of Trouble
Ambient temperature of
NC rack exceeded the
specified value (70 “C
by measuring at top of
CPS-12N or CPS-16F as a
result of fan failure.
Failure of power supply
unit
(CPS-12N or CPS-16F)
Temperature detector is
built inside the power
(
supply unit.
Ambient temperature of
NC panel is too high.
(Applicable temperature
range is O
‘C
to +40 ‘C. )
f
3 “C)
Check Method
.
Open NC panel door and ensure that
the fan runs normally.
.
Ensure that air comes out of exhaust
port at the cooling duct.
.
Ensure that air intake port of cooling
duct is not blocked.
● Turn OFF power supply, open the
door of NC panel and cool it for
about 30 min.
If the alarm still lights.
)
● Measure the ambient temperature.
● The temperature may rise if NC
panel is exposed to direct rays of the
sun.
Solution
.
Replace the fan if faulty.
Call our service personnel Yaskawa representative
(YASREP).
.
If cooling duct is
clogged, remove the
cause of clogging and
restart the operation.
—
l’he power supply unit
must
be NC placed.
Oontact
sentative
● Reduce the effects of
Yaskawa repre-
(Y ASREP).
temperature rise by
shielding the NC unit,
etc.
88
.,-.
4.2.5 ALARMS 2061 TO 2068 (ZERO POINT RETURN AREA
ERROR)
Table 4.7
Cause of Trouble
Zero point return start
position was at zero
point side rather than
at deceleration LS side
Check Method
Try zero point return again while observing
the deceleration LS DECLS:
WI
#3073
Do(lst-axis)
#3073 D, (2nd-axis)
#3073
D, (3rd-axis)
#3073
Ds(4th-axis)
#3o73 D, (5th-axis)
#3073
D,
(6th-axis)
#3073
D~(7th-axis)
#3073
D, (8th-axis)
As shown below an alarm results when
zero point return is made between DECLS
~nd
zero point. Note that this error check
>an
be performed only after power supply is
;urned OFF and the manual return to zero
point
has been completed.
SPEED RAPID FEED
(PIn281)1 -Prn2808}
Ws~CE
#3o73 1!
nllnnn
APPROACH SPEED
Bc]
h
1
DECEL LS SIGNAL
! ,n
,-
‘---
ZERO POINT PULSE
Solution
Return it to the deceleration LS or try the zero
point return again from a
more distant point.
Final distance of zero
point return is too
short, or, approach
speed is too fast.
. .
Perform the zero point return by jog feed.
I’ry to change parameter for final distance.
Oompare the parameter for approach speed
with
parameter list.
Make final distance
(parameter) longer:
●
m
pm4451 tO
● Approach speed:
pm4458
pm2521 to pm2528
89
4.2
TROUBLESHOOTING BY ALARM CODES (Cent’d)
4.2.6
ALARMS
2071 TO 2078,2081 TO 2088
(REFERENCE POINT RETURN AREA ERROR)
Cause of Trouble
This type of alarm results
when reference point
return performed
manually.
It also occurs by reference
point return at low speed
due to DECLS chattering.
Occurs at high speed by
error or reference point
pulse.
The alarm occurs at
automatic reference point
return.
Table 4.8
Check Method
Observe DECLS chattering:
[/0 Signal
Observe reference point pulse:
[/0 Signal
In case of i80M #3610
In case of i80L #3620
In case of G28 : Same as above
In case of G27 : Programmed position