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Intelligent Actuator Inc.

DS-S-C1

Super SEL Type E

Programming Manual

Super SEL Type E

SEL LANGUAGE

This publication was written to assist you in better understanding this part of your IA system. If you require further assistance, pleasecontact IA Technical Support. For Central and East Coast Time Zones, please call our Itasca, IL office at 1-800-944-0333 or FAX 630-467-9912. For Mountain and Pacific Time Zones, please call our Torrance, CA office at 1-800-736-1712 or FAX 310-891-0815; Mondaythru Friday from 8:30AM to 5:00PM.

Intelligent Actuator, Inc.U.S. Headquarters2690 W. 237th StreetTorrance, CA 90505310-891-6015 / 310-891-0815 FAX

Intelligent Actuator, Inc.Midwest Regional Office1261 Hamilton ParkwayItasca, IL 60143630-467-9900 / 630-467-9912 FAX

www.intelligentactuator.com

©April, 1998 Intelligent Actuator, Inc. All rights reserved.No portion of this publication may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechnical,recording, or otherwise, without the prior written permission of Intelligent Actuator, Inc.

DisclaimerThe information and technical data contained herein are subject to change without notice. Intelligent Actuator, Inc. assumes no responsibility for anyerrors or omissions regarding the accuracy of the information contained in this publication.

1

Foreword

*1 An interpreter is executing a command as it translates that command into computer language.

SEL Language is the simplest type of the numerous robot languages being used today. The perplexing problem ofusing simple language to effect high level control has been beautifully resolved with SEL Language.

The language most generally used for robot control is based on BASIC language which uses sentences formats andinterpreting these sentences requires considerable time. As the level of expression gets higher, the interpreterbecomes less capable of handling real time control *1. At this point, an extra step, compling *2 , needs to beadded. Furthermore, the process becomes increasingly complex, as one encounters problems with false commands,required knowledge of MS-DOS, etc.

It goes without saying that being able to accomplish the same task using a simple method is much better. So,we welcome you to step into the world of high level control using SEL Language which is a simple system, thatoperates at high speeds even as it is interpreting.

*2 Compling refers to translating the command into computer language before the comand is executed,

2

Table of Contents

1. Numerals and Symbols in SEL Language1.1 List of numerals handled by SEL Language ........................................................................................................ 41.2 Symbols used in SEL Language .......................................................................................................................... 5

2. I/O Ports2.1 Input ports .......................................................................................................................................................... 62.2 Output ports ........................................................................................................................................................ 62.3 List of I/O ports for the Super SEL type .............................................................................................................. 72.4 List of I/O ports for the DS type .......................................................................................................................... 8

3. Flags ......................................................................................................................................................................... 10

4. Variables4.1 What are variables? ........................................................................................................................................... 114.2 Types of variables ............................................................................................................................................. 11

5. Tags .......................................................................................................................................................................... 14

6. Subroutines ...............................................................................................................................................................15

7. Axis Designation7.1 Axis No. and Display ..........................................................................................................................................167.2 Axis pattern. .......................................................................................................................................................17

8. Structure of SEL Language8. 1 Position program. ...............................................................................................................................................188. 2 Commands ........................................................................................................................................................ 19

8.2-1 Structure of SEL Language ..................................................................................................................... 198.2-2 Expansion Condition ............................................................................................................................... 20

9. List of Parameters9.1 Common parameters for multiple axes. ...............................................................................................................229.2 Common parameters for a single axis. .................................................................................................................239.3 Parameters by axis ..............................................................................................................................................24

10. List of SEL Language Command Codes by Function ................................................................................................26

11. List of SEL Language Command Codes in Alphabetical Order .................................................................................30

3

Table of Contents

12. SEL Language12.1 Numeric calculation commands .......................................................................................................................3212.2 Arithmatic calculation commands ....................................................................................................................3412.3 Functional calculation commands ...................................................................................................................3712.4 Logic operation commands ..............................................................................................................................4012.5 Comparison operation commands ...................................................................................................................4312.6 Timer commands ..............................................................................................................................................4412.7 I/O•Flag operation commands .........................................................................................................................4612.8 Program control commands .............................................................................................................................5212.9 Task management commands ..........................................................................................................................5412.10 Resource management commands ...................................................................................................................5812.11 Postion operation commands ..........................................................................................................................5912.12 Actuator control declarations ..........................................................................................................................6412.13 Actuator control commands ............................................................................................................................7212.14 Structured IF commands. .................................................................................................................................8012.15 Structured DO commands ................................................................................................................................8312.16 Branching commands ......................................................................................................................................8512.17 External I/O commands ....................................................................................................................................8912.18 String processing commands ...........................................................................................................................92

13. Error Codes13.1 List of Error Codes ..........................................................................................................................................9813.2 What to do when an Error Code occurs ...........................................................................................................99

4

Battery Back-up Range

When the power is turned back ON, everything will be cleared except the area backed up by the battery.(Same as an emergency stop)

Program........................ StopOutput Port .................. ClearLocal Flag .................... ClearLocal Variable .............. ClearHome Position ............. ClearGlobal Flag ................... MaintainedGlobal Variable ............ Maintained

noitcnuFepyTLESrepuS epyTSD

skrameRlabolG lacoL aeralabolG lacoL

troPtupnI )882(782~000 )51(510~100otgnidroccaseiraV

epytrellortnoc

troPtuptuO )882(785~003 )8(703~003otgnidroccaseiraV

epytrellortnoc

galF )882(788~006 )001(999~009 )882(788~006 )001(999~009

)sregetnI(elbairaV )001(992~002 )99(99~1 )001(992~002 )99(99~1 99rofBTUO,BNIesU

elbairaV)srebmunlaeR( )001(993~003 )001(991~001 )001(993~003 )001(991~001 991rofTEGP,TUPPesU

nmuloC 999~003)sretcarahc007(

999~003)sretcarahc007(

.oNgaT )46(46~1 )46(46~1

.oNenituorbuS )46(46~1 )46(46~1

.oNsixA 8~1 1otgnidroccaseiraV

epytrellortnoc

nrettaPsixA stigidyranib8detangisedehtrof1esU

sixa

.oNnoitisoP 0002~1 005~1

.oNmargorP 46~1 23~1

.oNpetS 0003~1 0001~1

leveLksaT 5~1 5~1

.oNecruoseR 9~1 9~1

.oNlennahC 2~1otgnidroccaseiraV

epytrellortnoc

otelbisiVsmargorplla

anihtiwylnoelbisiVegnarlacoL(.margorp

margorptasraelc)putrats

otelbisiVsmargorplla

anihtiwylnoelbisiVegnarlacoL(.margorp

margorptasraelc)putrats

laicepsera991dna99selbairaV.noitaluclacnidesuselbairavlarenegrofesehtgnisudiovA

.esu

1.1 List of numerals handled by SEL Language

Note: Variables 99 and 199 are special registers that the system uses for calculations.

1. Numerals and Symbols in SEL Language

The various types of functions required in a program are expressed as numerals.

8 7 6 5 4 3 2 1

5

Range of numerical values in SEL

SEL uses two types of numbers, integers and real numbers but are subject to the following limitations.1. Inside the controller

The range of whole numbers that can be accommodated is ±2,147,483,648 and for real numbers the theoretical rangeis ±3.4 x 1038, as a single precision floating point.

2. Limitations in actual useThe programming tool developed initially was an LCD teaching pendant which resulted in certain constraints withrespect to input and output from the program. The numerical values that can be handled from the program are -9,999,999~99,999,999 for integers and -999,999~9999,999 or -.999999~.999999, in other words an eight digitvalue including the decimal point sign for real numbers. Also, when doing floating point calculations, the significantfigure can only be guaranteed up to 7 digits and it will include errors that are particular to floating points.

3. Position dataInternally, position data is handled as whole number data but during the calculation process, these are incorporatedinto real numbers and treated as real numbers. There are no problems when dealing with numbers ±9999.999 butwhen these are internally calculated as general data and not position data (repeated multipliying and dividing), aproblem arises with the accuracy of the last digit.When using the Super SEL, please pay close attention to these points. In particular, if you use the CPEQ command ina comparative calculation using real numbers, you will see almost no correlation. In this case, you will need to usethe CPLE/CPGE command which can view the large and small relations in parallel.

1.2 Symbols used in SEL Language

1. Numerals and Symbols in SEL Language

SYMBOL MEANING EXAPLANATION

ZR Zero When calculation results are 0, post turns ONEQ Equal When operand 1 = operand 2, post turns ONNE Not equal When operand 1 ≠ operand 2, post turns ON

GT Greater tham When operand 1 > operand 2, post turns ON

GE Greater or equal to When operand 1 ≥ operand 2, post turns ON

LT Less than When operand 1 < operand 2, post turns ON

LE Less than or equal to When operand 1 < operand 2, post turns ONPE Position end When movement is comeplete, post turns ON

(turns ON 2 points before the end of path, circular andarc moves when used in successive, consecutive lines of code)

CP Complete When the command is completed, post turns ONTU Time up After the time has elapsed, post turns ONXX No position data When there is no valid value in the position, post turns ONON ON OnOF OFF OffNT Not InvertFN Forward ON Moves forward while the designated I/O · flag is ON

FF Forward OFF Moves forward while the designated I/O · flag is OFF

BN Backward ON Moves backward while the designated I/O · flag is ON

BF Backward OFF Moves backward while the designated I/O · flag is OFF

6

.oNtupnItnemngissA

G·EepyT

320~100 dradnatS

740~420 noitpO

170~840 noitpO

590~270 noitpO

.oNtuptuOtnemngissA

G·EepyT

323~003 dradnatS

743~423 noitpO

173~843 noitpO

593~273 noitpO

2.1 Input PortsInput ports are used for limit switches, sensor switches, etc.

.oNtupnItnemngissA

epyTSD

510~100 dradnatS

2.2 Output Ports

These are used as various output ports.

.oNtuptuOtnemngissA

epyTSD

703~003 dradnatS

2. I/O Ports

7

.oNtroP noitcnuF noitanalpxE

000 tupnitratSlanretxE .detucexesimargorpdetangisedeht,NOsnruttupnitnemomehttA

100 tupniresU .esoohcyehtsatropsihtesunacsresU

200 tupnitcatnocepyt-bpotsycnegremE .potsycnegremeotniseogrellortnoceht,FFOsnruttupnisihtnehW

300 evresermetsyS .)erutufehtninoitcnufwenaddaotdesueblliwtropsiht(desuebtonnaC

400 evresermetsyS .)erutufehtninoitcnufwenaddaotdesueblliwtropsiht(desuebtonnaC




800 )tupniresu(10.oNGRP







510

320tupniresU .esoohcyehtsatuptuosihtesunacsresU

420

782tupninoisnapxE

O/InoisnapxenanogniddaybdesuebnactahtstroptupniresueraesehT.tinutroptupnideepshgihrotinudrac

003 tuptuomralA/potsycnegremE .sruccororrenanehwropotsycnegremenagnirudNOsnrutsihT

103 tuptuoydaeR .ydaersirellortnocehtnehwNOsnrutsihT

203

323tuptuoresU .esoohcyehtsatuptuosihtesunacsresU

423

785tuptuonoisnapxE

O/InoisnapxenanogniddaybdesuebnactahttroptuptuoresueraesehT.tinudrac

2.3 List of ports for the Super SEL type

008~014 are used as BCD codes todesignate the start up program.

The moment input port 000(external start input) turns ON, thedesignated program is executed.

10°units

101units

2. I/O Ports

~~

~~

8

Program Mode.oNtroP noitcnuF noitanalpxE

)tupniresu(10.oNGRP

)tupniresu(20.oNGRP

)tupniresu(40.oNGRP

)tupniresu(80.oNGRP

)tupniresu(01.oNGRP

)tupniresu(02.oNGRP

evreseR

tupniteserUPC .rellortnocehtstratseR

000 tupnitratslanretxE .detucexesimargorpdetangisedeht,NOsnruttupnitnemomehttA

100

510tupniresU .esoohcyehtsatropsihtesunacsresU



203

703tuptuoresU .esoohcyehtsatropsihtesunacsresU

2.4 List of I/O ports for the DS type

Used as BCD codes to designate the start up program.

The moment input port 000(external start input) turns ON,the designated program is executed.

10°units

101units

∼∼

2. I/O Ports

9


)tupniresu(10.oNGRP

margorPehtnrut,edomgninoitisopehtgnisunehW.sutats)FFO(]0[ottupni.oN

)tupniresu(20.oNGRP

)tupniresu(40.oNGRP

)tupniresu(80.oNGRP

)tupniresu(01.oNGRP

)tupniresu(02.oNGRP

evreseR

tupniteserUPC .rellortnocehtstratseR

000 tupnitratslanretxE .detucexesimargorpdetangisedeht,NOsnruttupnitnemomehttA

100 tupnidloH .noitisopdetanisedehtotsevomrotautcaeht,NOsnrutsihtnehW

200

300CN .edomgninoitisopgnirudCNotsegnahc300~200

400 tupni1.oNnoitisoP









310 tupni002.oNnotisoP


510 CN .edomgninoitisopgnirudCNotsegnahc510



203 tuptuoetelpmocgninoitisoP .etelpmocsievomnoitisopnehwNOsnrutsihT

303

703CN .edomgnirudCNotsegnahc703~303

004~014 are used as BCD codes todesignate the Position No.

The moment input port 000(external start input) turns ON,the actuator moves to the designatedposition.

10°units

102units

101units

Homing is performed when there isno Position No. designation.

∼∼

2. I/O Ports

Positioning Mode

10

3. Flags

The function of flags is to set and reset data within "Memory." This is analogous to "internal relays" or "coils" in a PLC.

In general, there are two (2) types of flags: Global flags 600 ~ 887 which can be used in all programs and local flags 900 ~ 999 whichcan be used only in individual programs.

Global flags are saved when the power is turned OFF (battery backup). Local flags are erased when the power is turned OFF.

Program 1 Program n

WTON 600

Communicates signals by using global flagswhich are visible in allprograms.

Turn Flag 600 ON Waiting for Flag 600 to turn ON

Even though these are the samecommand, these local flags existindividually in each program.

BTON 900 BTON 900

BTON 600

3. Flags

rebmuNgalF 788~006 smargorpllanidesuebnaC:galflabolG

rebmuNgalF 999~009 margorplaudividninanihtiwylnodesuebnaC:galflacoL

11

Command Operand 1 Operand 2

Add 1 1

This command adds 1 to variable register #1. If the register contains 2, then the variable becomes 3.

Add one to variable register #1

(Already contains "2")

Add 1 to variable register #1

Put 1234 into variable register #1

Take 456 out of variable register #1

4.1 What are variables?

The term "variable register" is a software term. Imagine a box that holds numbers. Numbers can be put in and taken out,added, subtracted, and so on.

Variable

Register #1

Variable

Register #12

4. Variables

12

Integer VariableRegister

Real VariableRegister

4. Variables

Note: The variable 99 is a special register for whole integer calculation.The numbers that can be input in the program are -9,999,999 to 99,999,999.

4.2 Types of variables

There are two types of variables.

Integer variableThese are whole number variables which cannot take decimal points. For example: [-2, -1, 0, 1, 2, 3]

1 2 3 4

Variable

Register #1

Real variableThese are variables that can accommodate the actual value exactly as it appears, including digits following thedecimal point. [Example: 1234.567]

1234.567

Variable

Register #1

Note: The variable 199 is a special register for real number calculation.The numbers that can be input in the program are -99,999.9 to 999,999.99 (8 digits which includesthe decimal point sign).

Integer VariableNo.

200~299 Global integer variable: Can be used in all programs

Integer VariableNo.

1~99Local integer variable: Can be used only within an individualprogram

Integer VariableNo.

300~399 Global integer variable: Can be used in all programs

Integer VariableNo.

100~199Local integer variable: Can be used only within an individualprogram

13

1234

4. Variables


LET 1 1234


LET 2 *1

Variables with an asterisk (*)

The asterisk symbol (*) is used to designate contents of the variable register. In the example given below, the contentsin variable register 1 are placed in variable register 2. If "1234" is in variable register 1, then "1234" is what goes invariable register 2.

Put in

1 2 3 4

VariableRegister #1

VariableRegister #1Variable

Register #2 1 2 3 4

1 2 3 4

14

TAG 1

GOTO 1

Can be used individually in each program.

Tag

5. Tags

"Tag" means heading. A TAG can be thought of as the same as placing labels on important pages. The TAG as it is used inthe SEL programming language is the "return to" area and is used in conjunction with the GOTO command to provideprogramming loops.

Command Operand 1

TAG Tag No. (Integers 1~64)

15

EXSR 1

EXSR 1

EXSR 1

BGSR 1

EDSR

Subroutine

Call subroutine

Frequently repeated steps in a program can be expressed as subroutines in order to simplify the entire application program.These subroutines are individually usable in each program. (Up to a maximum of 15 subroutines can be nested)

6. Subroutines

Execute subroutine command

Command Operand 1

BGSR Subroutine No. (1 ~ 64 Integers)

Begin subroutine command

Command Operand 1

EDSR --------

End subroutine command

Command Operand 1

EXSR Subroutine No. (1 ~ 64 Integers, or Variables)

16

There are two ways to designate the axes to be used: axis number and axis pattern.

7.1 Axis number and notation

With the Super SEL controller, multiple axes are indicated as shown in the table, but it is possible to change the figuresusing the parameters.

7. Axis Designation

Axis No.DefaultNotation

1 1

2 2

3 3

4 4

5 5

6 6

7 7

8 8

The axis no. is used when designating one axis out of many axes.

Commands to designate Axis No. are:BASE, PPUT, PGET

Note: The DS type displays only one axis.

17

7.2 Axis PatternSelection of an axis is specified by either "1" or "0"

Axis No. 8 7 6 5 4 3 2 1

Used 1 1 1 1 1 1 1 1

Not Used 0 0 0 0 0 0 0 0

Example

If Axis 1 and Axis 8 are in use, then this is signified by...

1 0 0 0 0 0 0 1

The zeroes before the 1 are unnecessary. The simplified form is 11, without leading zeroes.

In this example, the zeroes are necessary in order to indicate the position of Axis 8.

Axis pattern is used when designating more than one axis at the same time.

Axis pattern designation commandOFST, GRP, SVON, SVOF, HOME, JFWN, JFWF, JBWN, JBWF, STOP, PTST, PRED

Axis 8 Axis 1

Axis 2 Axis 1

Example

If Axis 1 and Axis 2 are in use, then this is signified by...

0 0 0 0 0 0 1 1

7. Axis Designation

(Upper) (Lower)

Note: The axis pattern for the DS type is preset since there is only one axis.

18

1~1500 mm/sec Standard0.3G

±9999.999mm

The SEL programming consists of a position and application program (command) section.

8.1 Position Program

In the position section, we have coordinates, velocity, acceleration, and variables.

8. Structure of SEL Language

-itisoP.oNno

yticoleV-itareleccA

no1sixA 2sixA 3sixA 4sixA 5sixA 6sixA 7sixA 8sixA

1

2

3

4

7991

8991

9991

0002

*1 Varies according to the actuator model.*2 When velocity and acceleration are set in the position data, this has priority over the data set in the

application program. To validate the application data, set x.xxx or 0 in the position data.

*1,2 *2

Note: The DS type is a single axis only. Also position numbers go up to 500.

19

Carry out a command when an input condition is established, and turn the post ON, if post isdesignated. When not established, go on to the next step regardless of the next command (ex. WTON, WTOF).The designated post remains the same , however it needs to be monitored carefully.

If there is no conditioning set up, carry out command unconditionally. If condition is used as "negative condition", then place an "N" (NOT). Input/output port & flag can be used for condition.

Actuator motion control commands: becomes OFF immediately after the command starts to be executed,and becomes ON when the command is completed. Computation commands: when the result becomes a certainvalue, it turns ON, and it stays OFF otherwise.

Output ports and flags can be used for the post section.

(1) The conditions before the commands are equivalent to "if ~ then" statements in BASIC language.

Putting this in a ladder diagram,

The outstanding feature of Super SEL Language is the simplicity of its command structure which eliminates the need for acompiler and allows high speed operation with just an interpreter.

8.2 Commands

8. 2-1 Structure of Super SEL Language

One step of the command has the following structure.

noisnapxE)RO·DNA(

noitidnoCtupnI)galF·O/I(

dnammoC tsoP·troptuptuO(

)galFdnammoC 1dnarepO 2dnarepO

-nammoCd

dnarepO1

dnarepO2

tsoP

(2) Post is set based on the result of the command execution.

-nammoCd

dnarepO1

dnarepO2

tsoP

IF ~ THEN ELSE

-nammoCd

dnarepO1

dnarepO2

tsoP

To the next step,


. . . . .

20

OR

AND

AND

OR Expansion

AND/OR Expansion

Cond 1

Cond 2

Cond 3

Cond 1

Cond 2

Cond 1

Cond 2

Cond 3

AND

OR

8. 2-2 Expansion Condition

It is possible to combine conditions to make more complicated conditions as follows:


Expansion InputCommands

OuptputCommand Operand1 Operand2

Condition 1

OR Condition 2 Command Operand 1 Operand 2


OutputCommand Operand1 Operand2

Condition1

AND Condition 2

OR Condition 3 Command Operand1 Operand2

AND Expansion (Ladder Diagram display) (Super SEL Language)


OutputCommand Operand1 Operand2

Condition1

AND Condition 2

AND Condition 3 Command Operand1 Operand2

Note: By conevention, all “AND” operations are performed before the “OR” operations when they are used in conjunction.

21

9.1 Common parameters for multiple axes

(1) Servo parameters

.oN emaNretemaraP tluafeD tnetnoC

1 eziSsixA 8 sexaforebmuN

2 rotaremuN 1 rotaremuN

3 rotanimoneD 1 rotanimoneD

4 )%(edirrevO 001 edirrevO

5 )G(releccA 03.0 rotcafnoitareleccA

6 )G(xaMreleccA 00.1 )G(rotcafnoitareleccamumixaM

7 )s/mm(leVevirD 001 )ces/mm(yticolevevirD

8 )s/mm(xaMleVevirD 0001 )ces/mm(yticolevevirdmumixaM


1 margorPtratSotuA 0 .oNrebmunmargorptratsotuA

2 margorPycnegremE 0 .oNrebmunmargorppotsycnegremE

3 eziSmagrorP 46 smargorpforebmuN

4 eziSksaT 61 sksatforebmuN

5 eziSpetS 0003 spetsmargorpforebmuN

6 ecilSemiT 10.0 eulavkcehcecilsemiT


1 )°(elgnAelcriC 0.51 )°(elgnaecilS

2 )s/mm(tleDelcriC 0 )s/mm(tnemercniyticoleV


1 eziStnioP 0002 ytitnauqatadtnioP

Reference values are indicated below. Settings at the time of shipment vary according to the actuator model.

9. List of Parameters

(2) Program parameters

(3) Point parameters

(4) Arc parameters

22



1 DIlanimreT 99 edocsserddapord-itluM

2 )S(tuOemiT 0 )S(tuoemiT

3 )s/tib(etaRduaB 3 )s/tib(etarduaB

4 htgneLraelC 0 htgnelretcarahC

5 ytiraP 0 ytiraP

6 tiBpotS 0 tibpotS


1 .oNeciveD 3~1 .oNeciveD

2 DItinU 1 .oNtinU

3 )sm(emiTnacS 1 )sm(emitnacS

4 DItinU 1 .oNtinU


6 DItinU 1 .oNtinU


8 DItinU 1 .oNtinU


(5) Serial I/O parameters

(6) Parallel input port parameters

23



1 eziSsixA 1 sexaforebmuN



4 )%(ediRrevO 001 edirrevO

5 )G(releccA 03.0 )G(rotcafnoitareleccA

6 )G(xaMreleccA 00.1 )G(rotcafnoitareleccamumixaM

7 )s/mm(leVevirD 001 )ces/mm(yticolevevirD

8 )s/mm(xaMleVevirD 0001 )ces/mm(yticolevevirdmumixaM

(1) Servo parameters

9.2 Common parameters for a single axis

(2) Program parameters


1 margorPtratSotuA 0 .oNrebmunmargorptratsotuA

2 margorPycnegremE 0 .oNrebmunmargorppotsycnegremE

3 eziSmargorP 23 smargorpforebmuN

4 eziSksaT 8 sksatforebmuN

5 eziSpetS 0001 spetsmargorpforebmuN

6 ezilSemiT 10.0 eulavkcehcecilsemiT

(4) Serial I/O parameters


1 eziStnioP 005 ytitnauqatadtnioP

(3) Point parameters


1 DIlanimreT 99 edocsserddapord-itluM

2 )S(tuOemiT 0 )S(tuoemiT

3 )s/tib(etaRduaB 3 )s/tib(etarduaB

4 htgneLrahC 0 htgnelretcarahC

5 ytiraP 0 ytiraP

6 tiBpotS 0 tibpotS

24


1 emaNsixA 8~1 emansixA

2 ecivreSovreS 004 )s/semit(ecivresovresfosemitfo.oN



5 )%(ediRrevO 001 )%(edirrevO

6 releccA 03.0 )G(noitareleccA

7 )s/mm(leVgoJ 03 )s/mm(yticolevgoJ

8 dnaBdneP 01 )eslup(dnabdnenoitisoP

9 tesffOtimiLtfoS 0.2 tesffotimilerawtfoS

01 )+(timiLtfoS 9999 )+(timiLtfoS

11 )-(timiLtfoS 0 )-(timiLtfoS


9.3 Parameters by axis

(1) Servo parameters by axis

(2) Homing parameters by axis


1 riDemoH 0 noitceridemoH

2 epyTemoH 0 dohtemgnimoH

3 ecneuqeSemoH 1 ecneuqeS

4 loPwSemoH 1 ytiraloptupnitimiL

5 egdEZemoH 1 egdetcetedesahp-Z

6 leVpeerCemoH 001 yticolevpeerC

7 leVkcaBemoH 01 yticolevni-nuR

8 leVZemoH 5 yticolevhcraesesahp-Z

9 tesffOemoH 0 )htgnel(tnuomaevomtesffO

01 noitaiveDemoH 766 )eslup(noitaivedpotsdraH

11 tnerruCemoH 06 timiLtnerruC

25


1 xaMMPRrotoM 0004 mumixamMPRrotoM

2 esluPredocnE 004 noituloverrepeslupredocnE

3 daeLwercS 8 )mm(daelwercS

4 elpitluM 4 reilpitlumeslupredocnE

5 emiTekarB 1.0 emitekarB

6 niaGnoitisoP 06 niagnoitisoP

7 niaGdeepS 08 niagdeepS

8 niaGF/F 0 niagdrawrofdeeF

9 niaGlargetnI 03 niaglargetnI

01 niaGlatoT 051 niaglatoT

11 tmL.tloV.tnI 06 timilegetalovlargetnI

21 deepSrevO 014 tnatsnocdeepsrevO

31 egnaRrorrE 6662 rorreevitalumuC

41 ruCxaMrotoM 09 tnerrucmumixamrotoM

51 daoLrevOrotoM 00361 timilrewoldaolrevorotoM

(3) Motor parameters by axis


26

10. List of SEL Language Command Codes

yrogetaC noitidnoC dnammoC 1dnarepO 2dnarepO tuptuO noitcnuF egaPelpitluM

sixA

elgniS

sixA

ciremuN

snoitaluclaC

lanoitpO TEL elbairavngissA rebmuNngissA RZ ngissA 23 O O

lanoitpO NARTypocelbairaV

noitanitsedypocotelbairaV RZ ypoC 23 O O

lanoitpO RLC elbairavgniraelcnigeB elbairavraelcdnE RZ selbairavraelC 33 O O

citemhtirA

snoitaluclaC

lanoitpO DDA elbairavotddA deddarebmuN RZ ddA 43 O O

lanoitpO BUS elbairavmorftcartbuS detcartbusrebmuN RZ tcartbuS 43 O O

lanoitpO TLUM elbairavylpitluM rebmuNreilpitluM RZ ylpitluM 53 O O

lanoitpO VID elbairavediviD rebmungnidiviD RZ ediviD 53 O O

lanoitpO DOMredniamerngissA

elbairav

rebmunnoitaluclaC

)naidar(RZ redniamererugiF 63 O O

lanoitcnuF

snoitaluclaC

lanoitpO NISelbairavnisngissA

)naidar(

rebmunnoitaluclaC

)naidar(RZ eniS 73 O O

lanoitpO SOC elbairavenisocngissArebmuNnoitaluclaC

)naidar(RZ enisoC 83 O O

lanoitpO NATtnegnatngissA

elbairav

rebmuNnoitaluclaC

)naidar(RZ tnegnaT 83 O O

lanoitpO NTAtnegnatcrangissA

elbairavrebmuNnoitaluclaC RZ tnegnatcrA 83 O O

lanoitpO RQStoorerauqsngissA

elbairavrebmuNnoitaluclaC RZ toorerauqS 93 O O

cigoL

snoitarepO

lanoitpO DNAcigolylppaotelbairaV

otdnarebmuNnoitaluclaC RZ dnacigoL 04 O O

lanoitpO ROcigolylppaotelbairaV

otrorebmuNnoitaluclaC RZ rocigoL 14 O O

lanoitpO ROEylppaotelbairaV

otcigolroevisulcxerebmuNnoitaluclaC RZ cigolevisulcxE 24 O O

erapmoC lanoitpO XXPC elbairavnosirapmoC rebmuNnosirapmoC

QE EN

TG

EG TL EL

nosirapmoC 34 O O

remiT

lanoitpO WMIT )ces(emittiaW UT tiawemiT 44 O O

lanoitpO CMIT .oNmargorP lecnactiawemiT 44 O O

lanoitpO MTTG elbairavngissaemiT emiteriuqcA 54 O O

galF•O/I

snoitarepO

lanoitpO XXTB galf•tuptuotratS galf•tuptuodnE ]TNFONO[galF•tuptuO 64 O O

lanoitpO XXTW )ces(emittiaW UT tiaW]TNFONO[galF•tupnI 74 O O

lanoitpO NI galf•O/ItsriF galf•tupnidnE )tib13xaM(tupniyraniB 84 O O

lanoitpO BNI galf•O/ItsriFotstigidfo.oN

ottrevnoc)stigid8xaM(tupniDCB 94 O O

lanoitpO TUO galf•O/ItsriF galf•tuptuodnE )tib13xaM(tupniyraniB 05 O O

lanoitpO BTUO galf•O/ItsriF )stigid8xaM(tupniDCB 15 O O

margorP

lortnoC

lanoitpO OTOG pmujrof.oNgaT pmuJ 25 O O

GAT .oNgatdetatS tegratpmujeralceD 25 O O

lanoitpO RSXE .oNenituorbusetucexE enituorbusetucexE 35 O O

RSGB enituorbusdetatS enituorbustratS 35 O O

RSDE enituorbusdnE 35 O O

ksaT

tnemeganaM

lanoitpO TIXE margorpetanimreT 45 O O

lanoitpO GPXE .oNmargorpetucexE PC margorptratS 45 O O

lanoitpO GPBA .oNmargorppotS PC smargorprehtopotS 55 O O

lanoitpO GPLS* esuapksaT 55 O O

lanoitpO GPUW* .oNmargorpputratS PC sutatsksatrehtO 55 O O

lanoitpO GPTG*ksaterotsotelbairaV

sutats.oNmargorperiuqcA levelksateriuqcA 65 O O

lanoitpO RPTG*ksaterotsotelbairaV

levellevelksateriuqcA 65 O O

lanoitpO RPTS* levelksaT levelksategnahC 75 O O

lanoitpO CILS* levelksaT )ces(eulavkcehC gnittesecilsemiT 75 O O

* Commands not yet publicly available cannot be used.Note: The circle (O) in the multiple axes, single axis columns indicates that the commands can be used for

for multiple axes or a single axis.

27


sixA

elgniS

sixA

ecruoseRlanoitpO SRTG* .oNecruoserniatbO ecruosereriuqcA 85 O O

lanoitpO SRLR* .oNecruosernruteR ecruosernruteR 85 O O

noitisoP

noitarepO

lanoitpO TEGP .oNsixA .oNnoitisoPelbairavotnoitisopngissA

99195 O O

lanoitpO TUPP .oNsixA .oNnoitisoPelbairavfoeulavngissA

99195 O O

lanoitpO RLCP .oNnoitisopgnitratS .oNnoitisopdnE atadtniopraelC 06 O O

lanoitpO YPCPnoitisoptegratypoC

.oN.oNnoitisopecruosypoC atadtniopypoC 06 O O

lanoitpO DERP daerotnrettapsixA .oNnoitisoptegraterotSfonoitisoptnerrucdaeR

sixa16 O O

lanoitpO TSTP nrettapsixademrifnoC .oNnoitisopdemrifnoC XX atadnoitisopmrifnoC 16 O O

lanoitpO LEVP )ces/mm(yticoleV .oNnoitisoptegratngissA yticolevnoitisopngissA 26 O O

lanoitpO CCAP )G(noitareleccA .oNnoitisoptegratngissAnoitisopngissA

noitarelecca26 O O

lanoitpO SXAPelbairavnrettapsixA

.oN.oNnoitisoP nrettapsixadaeR 36 O O

lanoitpO ZISP .oNelbairaveziS ezisnoitisopkcehC 36 O O

rotautcA

lortnoC

snoitaralceD

lanoitpO LEV )ces/mm(yticoleV yticolevteS 46 O O

lanoitpO DRVO )%(oitaryticolaV rotcafyticolevteS 46 O O

lanoitpO CCA )G(noitareleccA noitareleccateS 56 O O

lanoitpO VRCS )%(oitaR oitarnoitom-SteS 66 O O

lanoitpO TSFO nrettapsixatluafeD )mm(eulavtesffO tesffoteS 76 O O

lanoitpO GRTA )%(oitarnoitisoP reggirthcrateS 76 O

lanoitpO DLOH troptupniesuaP tropesuaperalceD 86 O O

lanoitpO ESAB .oNsixadradnatS sixadradnatsteS 96 O

lanoitpO CNACtupnietelpmocpotS

troptropetelpmocpotseralceD 96 O O

lanoitpO GED noisividfoelgnA noisividfoelgnateS 07 O

lanoitpO PRG nrettapsixadilaV sexapuorgteS 07 O

lanoitpO TSXA sutatserotsotelbairaV sutatssixaeriuqcA 17 O O

rotautcA

lortnoC

sdnammoC

lanoitpO XXVS nrettapsixagnitarepO .oNsixaderiuqcA ]FONO[ovreS 27 O O

lanoitpO EMOH nrettapsixagnimoH EP gnimoH 27 O O

lanoitpO DVOM noitisopevoM EP evometangisedyltceriD 37 SD

lanoitpO PVOMnoitisoptegratevoM

.oNEP

detangisedotevoM

noitisop37 O O

lanoitpO IDVM tnuomaevoM EP tnemevomlatnemercnI 47 SD

lanoitpO LVOMnoitisoptegratevoM

.oNEP

otevomdetalopretnI

noitisopdetangised47 O

lanoitpO IPVMnoitisoptegratevoM

.oNEP

detangisedotevoM

noitisop57 O O

lanoitpO ILVMnoitisoptegratevoM

.oNEP

otevomdetalopretnI

noitisopdetangised57 O

lanoitpO HCRA .oNnoitisoptratS .oNnoitisopdnE EP tnemevomhcrA 67 O

lanoitpO HTAP .oNnoitisoptratS .oNnoitisopdnE EP tnemevomhtaP 67 O O

lanoitpO RIC .oNnoitisopgnissaP .oNnoitisopgnissaP EP tnemevomcrA 77 O

lanoitpO CRA .oNnoitisopgnissaP .oNnoitisopdnE EP tnemevomralucriC 87 O

lanoitpO XWXJ nrettapsixagnivoM galf•O/ItratS EP ]FBNBFFNF[GOJ 97 O O

lanoitpO POTS nrettapsixadeppotS EP tlahaotswolssixA 97 O O


Note: The circle (O) in the multiple axes, single axis columns indicates that the commands can be used forused for multiple axes or a single axis.

* Commands not yet publicly available cannot be used.

However, MOVD, MVDI are command languages specific to the DS type.

28


sixA

elgniS

sixA

FIderutcurtS

lanoitpO XXFI elbairaverpamoC elbairavnosirapmoC ]ELTLEGTGENQE[erapmoC 08 O O

lanoitpO XXSI laretilronmuloC laretilronmuloCnosirapmocgnirtsretcarahC

]ENQE[18 O O

ESLEFInehwtegratnoitucexeeralceD

.temtonsinoitidnocdnammoc28 O O

FIDE etelpmocFIeralceD 28 O O

derutcurtS

OD

lanoitpO XXWD elbairavnosirapmoC elbairavnosirapmoC ]ELTLEGTGENQE[pooL 38 O O

ODDE etelpmocODeralceD 38 O O

lanoitpO VAEL ODmorftixE 48 O O

lanoitpO RETI ODtaepeR 48 O O

gnihcnarB

lanoitpO TCLS gnihcnarbfotratseralceD 58 O O

XXHW elbairaverapmoC elbairavnosirapmoCgnihcnarbeulaV

]ELTLEGTGENQE[68 O O

XXSW nmulocerapmoC laretilronmuloC ]ENQE[gnihcnarbgnirtsretcarahC 78 O O

EHTOnehwtegratgnihcnarberalceD

temtonerasnoitidnoc88 O O

LSDE etelpmocTCLSeralceD 88 O O

laireS

lanoitpO NEPO .oNlennahC nepOOIS 98 O O

lanoitpO SOLC .oNlennahC esolCOIS 98 O O

lanoitpO DAER lennahcdaeR .oNnmuloCdaeR tupniOIS 09 O O

lanoitpO TIRW lennahcetirW .oNnmuloCetirW tuptuoOIS 19 O O

lanoitpO AHCS edocretcarahC retcarahcgnidneteS 19 O O

gnirtS

gnissecorP

lanoitpO YPCS nmuloctegratypoC laretilronmuloC gnirtsretcarahcypoC 29 O O

lanoitpO PMCS nmulocerpamoC laretilronmuloC gnirtsretcarahcerapmoC 29 O O

lanoitpO TEGS elbairavtegratdneS nmuloctegratdneS retcarahceriuqcA 39 O O

lanoitpO TUPS nmuloctegratdneS atadetirW sretcarahcegnarrA 39 O O

lanoitpO RTStegratnoisrevnoC

nmuloc

ecruosnoisrevnoC

elbairavgnirtsretcarahclamicedottrevnoC 49 O O

lanoitpO HRTStegratnoisrevnoC

nmuloc

ecruosnoisrevnoC

elbairav

retcarahclamicedaxehottrevnoC

gnirts59 O O

lanoitpO LAVtegratnoisrevnoC

elbairavnmulocecruosnoisrevnoC eulavlamicedottrevnoC 69 O O

lanoitpO HLAVtegratnoisrevnoC

elbairavnmulocecruosnoisrevnoC eulavlamicedaxehottrevnoC 79 O O

lanoitpO NELSebotsretcarahcfo.oN

nodetareponoitareporofsretcarahcfo.onteS 79 O O


Note: The circle (O) in the multiple axes, single axis columns indicates that the command can be used formultiple axes or a single axis. However, the commands in the serial I/O category and string processingcannot be used with the DS type.

[Command languages specific to the DS type]


sixA

elgniS

sixA

rotautcAlortnoC

sdnammoC

lanoitpO DVOM noitisopevoM EP evometangisedyltceriD 37 O

lanoitpO IDVM noitisopevoM EP tnemevomlatnemercnI 47 O

29

11. Alphabetical List of SEL Language Command Codes

noitidnoC dnammoC 1dnarepO 2dnarepO tuptuO noitcnuF egaPelpitluM

sixA

elgniS

sixA

lanoitpO GPBA .oNmargorppotS PC smargorprehtopotS 55 O O

lanoitpO CCA )G(noitareleccA noitareleccateS 56 O O

lanoitpO DDA elbairavotddA deddarebmuN RZ ddA 43 O O

lanoitpO DNA otdnacigolylppaelbairaV rebmunnoitaluclaC RZ dnacigoL 04 O O

lanoitpO CRA .oNnoitisopgnissaP .oNnoitisopdnE EP tnemevomralucriC 87 O

lanoitpO HCRA .oNnoitisoptratS .oNnoitisopdnE EP tnemevomhcrA 67 O

lanoitpO NTA elbairavtnegnatcrangissA rebmunnoitaluclaC RZ tnegnatcrA 83 O O

lanoitpO GRTA )%(oitarnoitisoP reggirthcrateS 76 O

lanoitpO TSXA sutatserotsotelbairaV .oNsixaderiuqcA sutatssixaeriuqcA 17 O O

lanoitpO ESAB .oNsixadradnatS sixadradnatsteS 96 O

RSGB .oNenituorbusdetatS enituorbustratS 35 O O

lanoitpO XXTB galf•tuptuotratS galf•tuptuodnE ]TNFONO[galf•tuptuO 64 O O

lanoitpO CNAC troptupnietelpmocpotS tropetelpmocpotseralceD 96 O O

lanoitpO RIC .oNnoitisopgnissaP .oNnoitisopgnissaP EP tnememvomcrA 77 O

lanoitpO SOLC .oNlennahC esolcOIS 98 O O

lanoitpO RLC elbairavgniraelcnigeB elbairavraelcdnE RZ selbairavraelC 33 O O

lanoitpO SOC elbairavenisocngissA )naidar(rebmunnoitaluclaC RZ enisoC 73 O O

lanoitpO XXPC elbairavnosirapmoC rebmunnosirapmoC

QE EN

TG EG

TL EL

nosirapmoC 34 O O

lanoitpO GED )º(noisividfoelgnA noisividfoelgnateS 07 O

lanoitpO VID elbairavediviD rebmungnidiviD RZ ediviD 53 O O

lanoitpO XXWD elbairaverapmoC elbairavnosirapmoC ]ElTLEGTGENQE[erapmoC 38 O O

ODDE etelpmocODeralceD 38 O O

FIDE etelpmocFIeralceD 18 O O

LSDE etelpmocTCLSeralceD 88 O O

RSDE enituorbusdnE 35 O O

ESLEFInehwtegratnoitucexeeralceD

temtonsinoitidnocdnammoc18 O O

lanoitpO ROEevisulcxeylppaotelbairaV

otcigolrebmunnoitaluclaC RZ cigolroevisulcxE 24 O O

lanoitpO TIXE margorpetanimreT 45 O O

lanoitpO GPXE .oNmargorpetucexE PC margorptratS 45 O O

lanoitpO RSXE rebmunenituorbusetucexE enituorbusetucexE 35 O O

lanoitpO OTOG pmuJ.oNgaT pmuJ 25 O O

lanoitpO PRG nrettapsixadilaV sexapuorgteS 07 O

lanoitpO GPTG*ksaterotsotelbairaV

sutats.oNmargorperiuqcA sutatsksateriuqcA 65 O O

lanoitpO RPTG* levelksaterotsotelbairaV levelksateriuqcA 65 O O

lanoitpO SRTG* .oNecruoserniatbO ecruosereriuqcA 85 O O

lanoitpO MTTG elbairavngissaemiT emiteriuqcA 54 O O

Note: The circle (O) in the multiple axes, single axis columns indicates that the command can be used formultiple axes or a single axis.


30


sixA

elgniS

sixA

lanoitpO DLOH troptupniesuaP tropesuaperalceD 86 O O

lanoitpO EMOH nrettapsixagnimoH EP gnimoH 27 O O

lanoitpO XXFI elbairaverapmoC elbairavnosirapmoC ]ELTLEGTGENQE[erapmoC 08 O O

lanoitpO NI galf•O/ItsriF galf•tupnidnE )tib13xaM(tupniyraniB 84 O O

lanoitpO BNI galf•O/ItsriF ottrevnocotstigidfo.oN )stigid8xaM(tupniDCB 94 O O

lanoitpO XXSI nmulocerapmoC laretilronmuloCQE[nosirapmocgnirtsretcarahC

]EN18 O O

lanoitpO RETI ODtaepeR 48 O O

lanoitpO XWXJ nrettapsixagnivoM galf•O/ItratS EP ]FBNBFFNF[GOJ 97 O

lanoitpO VAEL ODmorftixE 48 O O

lanoitpO TEL elbairavngissA rebmunngissA RZ ngissA 23 O

lanoitpO DOM elbairavredniamerngissA )naidar(rebmunnoitaluclaC RZ redniamererugiF 63 O O

lanoitpO DVOM noitisopevoM EP evometangisedyltceriD 37 SD

lanoitpO LVOM .oNnoitisoptegratevoM EPdetangisedotevomdetalopretnI

noitisop47 O

lanoitpO PVOM .oNnoitisoptegratevoM EP noitisopdetangisedotevoM 37 O O

lanoitpO TLUM elbairavylpitluM rebmunreilpitluM RZ reilpitluM 53 O O

lanoitpO IDVM tnuomaevoM EP tnemevomlatnemercnI 47 SD

lanoitpO ILVM .oNnoitisoptegratevoM EPdetangisedotevomdetalopretnI

noitisop57 O

lanoitpO IPVM .oNnoitisoptegratevoM EP noitisopdetangisedotevoM 57 O O

lanoitpO TSFO nrettapsixatluafeD )mm(eulavtesffO tesffoteS 76 O O

lanoitpO NEPO .oNlennahC nepoOIS 98 O O

lanoitpO RO otrocigolylppaotelbairaV rebmunnoitaluclaC RZ rocigoL 14 O O

EHTOnehwtegratgnihcnarberalceD

temtonerasnoitidnoc88 O O

lanoitpO TUO galf•O/ItsriF galf•tupnidnE )tib13xaM(tupniyraniB 05 O O

lanoitpO BTUO galf•O/ItsriF )stigid8xaM(tupniDCB 15 O O

lanoitpO DRVO )%(oitaryticoleV rotcafyticolevteS 46 O O

lanoitpO CCAP )G(noitareleccA .oNnoitisoptegratngissA noitareleccanoitisopngissA 26 O O

lanoitpO HTAP .oNnoitisoptratS .oNnoitisopdnE EP tnemevomhtaP 67 O O

lanoitpO SXAP .oNelbairavnrettapsixA .oNnoitisoP nrettapsixadaeR 36 O O

lanoitpO RLCP .oNnoitisopgnitratS .oNnoitisopdnE atadtniopraelC 06 O O

lanoitpO YPCP .oNnoitisoptegratypoC .oNnoitisopecruosypoC atadtniopypoC 06 O O

lanoitpO TEGP .oNsixA .oNnoitisoP 991elbairavotnoitisopngissA 95 O O

lanoitpO TUPP .oNsixA .oNnoitisoP 991elbairavfonoitisopngissA 95 O O

lanoitpO DERP daerotnrettapsixA .oNnoitisoptegraterotS sixafonoitisoptnerrucdaeR 16 O O

lanoitpO ZISP .oNelbairaveziS ezisnoitisopkcehC 36 O O

lanoitpO TSTP nrettapsixademrifnoC .oNnoitisopdemrifnoC XX atadnoitisopmrifnoC 16 O O

lanoitpO LEVP )ces/mm(yticoleV .oNnoitisoptegratngissA yticolevnoitisopngissA 26 O O


Note: The circle (O) in the multiple axes, single axis columns indicates that the command can be used formultiple axes or a single axis. However, MOVD, MVDI are command languages specific to the DS type.


31




sixA

elgniS

sixA

lanoitpO DAER lennahcdaeR rebmunnmulocdaeR tupptuoOIS 09 O O

lanoitpO SRLR* ecruosernruteR ecruosereriuqcA 85 O O

lanoitpO AHCS edocretcarahC retcarahcgnidneteS 19 O O

lanoitpO PMCS nmulocerapmoC laretilronmuloC gnirtsretcarahcerpamoC 29 O O

lanoitpO YPCS nmuloctegratypoC laretilronmuloC gnirtsretcarahcypoC 29 O O

lanoitpO VRCS )%(oitaR oitarnoitom-SteS 66 O O

lanoitpO TEGS elbairavtegratdneS nmuloctegratdneS retcarahceriuqcA 39 O O

lanoitpO NIS elbairavnisngissA )naidar(rebmunnoitaluclaC RZ eniS 73 O O

lanoitpO TCLS gnihcnarbfotratseralceD 58 O O

lanoitpO NELSebotsretcarahcforebmuN

nodetarepo

rofsretcarahcfosrebmunteS

noitarepo79 O

lanoitpO CILS* levelksaT )ces(eulavkcehC gnittesecilsemiT 75 O O

lanoitpO GPLS* esuapksaT 55 SD

lanoitpO TUPS nmuloctegratdneS atadetirW sretcarahcegnarrA 39 O O

lanoitpO RQS elbairavtooreruqsngissA rebmunnoitaluclaC RZ toorerauqS 93 O O

lanoitpO POTS nrettapsixadeppotS EP tlahaotswolssixA 97 O O

lanoitpO RPTS* levelksaT levelksategnahC 75 SD

lanoitpO RTS nmuloctegratnoisrenoC elbairavecruosnoisrevnoC gnirtsretcarahclamicedottrevnoC 49 O

lanoitpO HRTS nmuloctegratnoisrevnoC elbairavecruosnoisrevnoCretcarahclamicedaxehottrevnoC

gnirts59 O O

lanoitpO BUS elbairavmorftcartbuS detcartbusrebmuN RZ tcartbuS 43 O O

lanoitpO XXVS nrettapsixagnitarepO ]FONO[ovreS 27 O O

lanoitpO GAT .oNgatdetatS tegratpmujeralceD 25 O O

lanoitpO NAT elbairavtnegnatngissA )naidar(rebmunnoitaluclaC RZ tnegnaT 83 O O

lanoitpO CMIT .oNmargorP lecnactiawemiT 44 O O

lanoitpO WMIT )ces(emittiaW UT tiawemiT 44 O O

lanoitpO NART noitanitsedypocelbairaV ypocotelbairaV RZ ypoC 23 O O

lanoitpO LAV elbairavtegratnoisrevnoC nmulocecruosnoisrevnoC eulavlamicedottrevnoC 69 O O

lanoitpO HLAV elbairavtegratnoisrevnoC nmulocecruosnoisrevnoC eulavlamicedaxehottrevnoC 79 O O

lanoitpO LEV )ces/mm(yticoleV yticolevteS 46 O O

lanoitpO XXHW elbairaverapmoC elbairavnosirapmoC ]ELTLEGTGENQEpooL 68 O O

lanoitpO TIRW 19 O O

lanoitpO XXSW nmulocerapmoC laretilronmuloC ]ENQE[gnihcnarbgnirtsretcarahC 78 O O

lanoitpO XXTW galf•O/I emittiaW UT tiaw]FONO[galf•tupnI 74 O O

lanoitpO GPUW* .oNmargorPputratS PC putratsksatrehtO 55 O O

Note: The circle (O) in the multiple axes, single axis columns indicates that the command can be used for multiple axes or a single axis. However, MOVD, MVDI are command languages specific to the DS type.

32

[Function] Assigns the contents of the variable in Operand 2 to the variable in Operand 1.This function is also known as "indirect addressing" or "pointing to a pointer."

[Example 1] TRAN 1 2 Assign the content of variable 2 to variable 1.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 3 Assign 3 to variable 2.LET 3 4 Assign 4 to variable 3.LET 4 10 Assign 10 to variable 4.TRAN 1 *3 Assign 10 (variable 4 which is the content of variable 3) to the

variable for 2.

410

1 23

2 3 10

12 3

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12. SEL Language

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12.1 Numeric calculations commands

LET (Assign)

[Function] Assigns the value in operand 2 to the variable in operand 1.When 0 is assigned to the variable in Operand 1, the output turns ON.

[Example 1] LET 1 10 Assign a value of 10 to variable register 1.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 3 10 Assign 10 to variable 3.LET *1 *3 Assign 10 (content of variable 3) to variable 2 (content of variable 1).

TRAN (Transfer)

The variables change in the following manner.

4 4

104 2

33

[Function] Clears the variables from the variable in operand 1 to the variable in operand 2.The contents of the cleared variables becomes 0.When 0 is assigned to the variable in operand 1, the output turns ON.

[Example 1] CLR 1 5 Clear variables from 1 to 5.

[Example 2] LET 1 10 Assign 10 to variable 1.LET 2 20 Assign 20 to variable 2.CLR *1 *2 Clear variables from 10 (content of variable 1)

to 20 (content of variable 2).

12. SEL Language

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CLEAR (Clear Variables)

34

12. SEL Language

SUB (Subtract)

[Function] Adds the value in operand 2 to the contents of the variable in operand 1, then stores this in thevariable in operand 1. The output turns ON when the result of the operation is 0.

[Example1] LET 1 3 Assign 3 to variable 1.ADD 1 2 Add 2 to 3 (content of variable 1).

3+2 is 5 which is entered in variable1.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 3 Assign 3 to variable 2.LET 3 2 Assign 2 to variable 3.ADD *1 *3 Add 2 (content of variable 3) to variable 2 (content of variable 1).

3+2 is 5 which is entered in variable 2.

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ADD (Add)

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[Function] Subtracts the value in operand 2 from the contents of the variable in operand 1, then stores this in the variable in operand 1. The output turns ON when the result of the operation is 0.

[Example 1] LET 1 3 Assign 3 to variable 1.ADD 1 2 Subtract 2 from 3 (content of variable 1).

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 3 Assign 3 to variable 2.LET 3 2 Assign 2 to variable 3.ADD *1 *3 Subtract 2 (content of variable 3) from variable 2

(content of variable 1).3-2 is 1 which is entered in variable 2.

12.2 Arithmatic calculation commands

35

12. SEL Language

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MULT (Multiply)

[Function] Multiplies the contents of the variable in operand 1 by the value in operand 2, then stores thisin the varible in operand 1. The output turns ON when the result of the operation is 0.

[Example 1] LET 1 3 Assign 3 to variable 1.MULT 1 2 Multiply 3 (content of variable 1) by 2.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 3 Assign 3 to variable 2.LET 3 2 Assign 2 to variable 3.MULT *1 *2 Multiply variable 2 (content of variable 1) by 2

(content of variable 1).3x2 is 6 which is entered in variable 2.

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[Function] Divides the contents of the variable in operand 1 by the value in operand 2, then stores thisin the varible in operand 1. The output turns ON when the result of the operation is 0.

Note: When operand 1 is an integer type variable, anything beyond the decimal point is disregarded.

[Example 1] LET 1 3 Assign6 to variable 1.DIV 1 2 Divide 6 (content of variable 1) by 2.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 6 Assign 3 to variable 2.LET 3 2 Assign 2 to variable 3.MULT *1 *3 Divide variable 2 (content of variable 1) by 2

(content of variable 1).6÷2 is 3 which is entered in variable 2.

DIV (Divide)

36

12. SEL Language

[Function] Divides the contents of the variable in operand 1 by the value in operand 2, then storesthe remainder in the variable in operand 1. The output turns ON when the result of theoperation is 0.

Note: The MOD command is used with respect to an integer type variable.

[Example1] LET 1 7 Assign 7 to variable 1.MOD 1 3 Figure the remainder when 7 (content of variable 1)is divided by 3.

7÷3 is 2 with a remainder of 1 which is entered in variable 1.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 3 Assign 7 to variable 2.LET 3 3 Assign 3 to variable 3.MOD *1 *2 Figure the remainder when variable 2 (content of variable 1).

7÷3 is 2 with a remainder of 1 which is entered in variable 1.

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MOD (Remainder)

37

12. SEL Language

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SIN (Sine)

[Function] Assigns the sine of operand 2 to the contents of the variable in operand 1.The output turns ON when the result of the operation is 0.For the setting in operand 1, designate a real number varible in the operand 100~199, 300~399.

Note 1: Radian=Angle x π÷180

[Example 1] SIN 100 0.523599 Assign 0.5, sine of 0.523599, to variable 100.

[Example 2] LET 1 100 Assign 100 to variable 1.LET 101 30 30x π÷180 (radian) (convert 30°to radian andMULT 101 3.141592 assign this to variable 101).DIV 101 180 Assign 0.5, sine of contents in variable101 toSIN *1 *101 variable 100 (contents of variable 1).

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[Function] Assigns the cosine of operand 2 to the contents of the variable in operand 1.The output turnsON when the result of the operation is 0.For the setting in operand 1, designate a real number variable in the range 100~199, 300~399.

Note: Radian = Angle x π÷180.

[Example 1] SIN 100 1.047197 Assign 0.5, sine of 1.047191 to variable 100.

[Example 2] LET 1 100 Assign 100 to variable 1.LET 101 30 60x π÷180 (radian) (convert 60°to radian andMULT 101 3.141592 assign this to variable 101).DIV 101 180 Assign 0.5, cosine of contents in variable101 toSIN *1 *101 variable 100 (contents of variable 1).

COS(Cosine)

12.3 Functional calculation commands

38

12. SEL Language

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TAN (Tangent)

[Function] Assigns the tangent of operand 2 to the contents of the variable in operand 1. The output turnsON when the result of the operation is 0. For the setting in operand 1, designate a real numbervariable in the range 100~199, 300~399. The unit in operand 2 is radians.

Note 1: Radian=Angle x π÷ 180

[Example 1] TAN 100 0.785398 Assign 1, tangent of 0.785398, to varible in 100.

[Example 2] LET 1 100 Assign 100 to variable 1.LET 101 45 45x π÷180 (radian) (convert 45°to radian andMULT 101 3.141592 assign this to variable 101).DIV 101 180 Assign 1, tangent of contents in variable101 toTAN *1 *101 variable 100 (contents of variable 1).

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[Function] Assigns the arctanagent of operand 2 to the contents of the variable in operand 1. The outputturns ON when the result of the operation is 0. For the settings in operand 1, designate a realnumber variable in the range 100~199, 300~199. The unit in operand 2 is radians.

Note 1: Radian=Angle x π ÷ 180

[Example 1] ATN 100 1 Assign 0.785398, arctangent of 1, to variable 100.Assign 100 to variable 1.

[Example 2] LET 1 100 Assign 1 to variable 101.LET 101 1 Assign 0.785398, arctangent of contents in variable101TAN *1 *101 to variable 100 (contents of variable 1).

ATN (Arctangent)

39

12. SEL Language

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SQR(Square)

[Function] Stores the square root (SQR) of the data in operand 2 in the variable in operand 1.

[Example 1] SQR 1 4 Assign square root of 4,2 to variable 1.

[Example 2] LET 1 10 Assign 10 to variable 1.LET 2 4 Assign 4 to variable 2.SQR *1 *2 Assign the square root of 4 (contents of variable 2) to variable 10

(contents of variable 1).

The output turns ON when the result of the operation is 0.

40

12. SEL Language

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AND (Logic And)

[Function] Stores the results of the logic AND operation on the contents of the variable in operand 1and the in operand 2, in the variable in operand 1. The output turns ON when the result of theoperation is 0.

[Example 1] LET 1 204 Assign 204 to variable 1.AND 1 170 Assign 136 the result of logic AND on 204 (contents of variable 1)

AND 170 (data in operand 2), to vaiable 1.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 204 Assign 204 to variable 2.LET 3 170 Assign 170 to variable 3.

AND *1 *3 Assign 136, the result of logic AND on 204(content of variable 2 which is the content in variable 1) and 170 (content of variable 3), to 2(the content of variable 1).

Decimal number Binary number 204 11001100

AND 10101010 10001000

AND 170 136

12.4 Logic and Operation commands

41

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OR (Logic Or)

[Function] Stores the results of the logic OR operation on the contents of the variable in operand 1 and thedata in operand 2, in the variable in operand 1. The output turns ON when the result of theoperation is 0.

[Example 1] LET 1 204 Assign 204 to variable 1.OR 1 170 Assign in 238, the result of logic AND on 204 (contents of variable 1)

and 170 (data in operand 2), to variable 1.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 204 Assign 2 to variable 1.LET 3 170 Assign 170 to variable 3.OR *1 *3 Assign 238, the result of logic OR on 204 (content of variable 2 which is

the content in variable 1) and 170 (content of variable 3), to 2(the content ofvariable 1).

12. SEL Language

OR 170


OR 10101010 10001000 238

42

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EOR (Exclusive Or Logic)

[Function] Stores the results of the exclusive logic operation on the contents of the variable in operand 1 and thedata in operand 2, in the variable in operand 1. The output turns ON when the result of theoperation is 0.

[Example 1] LET 1 204 Assign 204 to variable 1.EOR 1 170 Assign 102 in, the result of exclusive logic of 204 (contents of variable 1)

and 170 (data in operand 2), to variable 1.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 204 Assign 2 to variable 1.LET 3 170 Assign 170 to variable 3.EOR *1 *3 Assign 102, the result of logic OR on 204 (content of variable 2 which is

the content in variable 1) and 170 (content of variable 3), to 2(the content of variable 1).

12. SEL Language

EOR 170


102EOR10101010 0110110

43

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CPXX (Compare)

[Function] Compares the contents of the variable in operand 1 and the value in operand 2 and if thecondition is satisfied, the output turns ON. When the condition is not satisfied, the output turnsOFF.

12. SEL Language

[Example 1] LET 1 10 Assign 10 to variable 1.CPEQ 1 10 600 If the content of variable 1 is 10, flag 600 turns ON,

600 ADD 2 1 If flag 600 is ON, 1 is added to variable 2.

[Example 2] LET 1 2 Assign 2 to variable 1.LET 2 10 Assign 10 to variable 2.LET 3 10 Assign 10 to variable 3.CPNE *1 *3 310 If the variable in 2 (the content of variable 1) does not equal the

content of variable 3, then output 310 turns ON. Therefore, in thisexample, output 310 is OFF.

CPXX

EQ ... Operand 1 = Operand 2NE ... Operand 1 ≠ Operand 2GT ... Operand 1 > Operand 2

GE ... Operand 1 ≥ Operand 2

LT ... Operand 1 < Operand 2

LE ... Operand 1 ≤ Operand 2

12.5 Comparison operation commands

44

12.6 Timer Commands

[Function] The program stops and waits for the time set in operand 1.Setting range is 0.01 ~ 99 and units are seconds.When the designated time has elapsed and the program moves to the next step, the output turns ON.

[Example 1] TIMW 1.5 Wait for 1.5 seconds.

12. SEL Language

TIMW (Timer)

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[Example 2] LET 1 10 Assign 10 to variable 1. TIMW *1 Contents of variable 1 waits 10 seconds.

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TIMC (Timer Cancel)

[Function] Cancels the time of the other programs designated in operand 1 that are running in parallel.

[Example 1] TIMC 10 Cancel time wait for prorgam 10.

[Example 2] LET 1 10 Assign 10 to variable 1.TIMC *1 Cancel time wait for program 10 (content of variable 1).

45

[Function] Writes the system time to the variable in operand 1. The time unit is 10msec.The time obtained with this command is a value that has no base. Therefore, call this command twice,and the difference gives the time that has elapsed.

[Example 1] GTTM 1 Read the reference time to variable 1.ADD 1 500 Set the ending time for 5 seconds later.GTTM 2 Read the current system time to variable 2.DWGE 1 *2 After 5 seconds, proceeds to the next step after EDDO. : The processing during this time will repeat for 5 seconds. :

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12. SEL Language

GTTM (Time Acquisition)

[Example 2] LET 1 5 Assign 5 to variable 1. GTTM *1 Store the current system time in the variable for 5 (content of variable 1).

EDDOGTTM 2 Read the current system time to variable 2.

46

12. SEL Language

[Function] Turns ON, OFF, or inverts from the output · flag designated in operand 1 to the output · flag designatedin operand 2.

BTXX

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BTXX (Output Port • Flag Operation)

ON ... Turns the status ON.OF ... Turns the status OFF.NT ... Inverts the status.

[Example 1] BTON 300 Output port 300 turns ON.

[Example 2] BTOF 300 307 Output port 300∼ 307 turns OFF.

[Example 3] LET 1 600 Assign 600 to variable 1.BTNT ∗1 Invert flag 600 (content of variable 1).

[Example 4] LET 1 600 Assign 600 to variable 1.LET 2 607 Assign 607 to variable 2.BTON *1 *2 Turns flags from 600 (content of variable 1) to 607

(content of variable 2) ON.

12.7 I/O · Flag operation commands

47

[Function] Program waits until designated in operand 2 turns ON/OFF.Can abort the wait after a set time by designating a time in operand 2.Setting range is 0.01~99 seconds. After a set time has elapsed, the outputturns ON (Only where is an operand 2).

WTXX

ON ... Waits for I/O port · flag to turn ON. OF ... Waits for I/O port · flag to turn OFF.

[Example 1] WTON 15 Waits for I/O port 15 to turn ON.

[Example 2] WTOF 25 5 900 Wait for input 25 to turn ON. If not ON within 5 seconds, turn flag 900 ON and proceed to the next step.

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UT

WTXX (I/O Port • Flag Wait)

12. SEL Language

48

133 • • • • • • • • • • • Variable 99

[Function] Reads the value from the designated I/O port or flag as a binary number, then stores thisvalue in variable register 99.

= 133 in decimal notation

• • • Binary Number• • • Input Port No.

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27 26 25 24 23 22 21 20

32 22 12 02 91 81 71 61

NO FFO FFO FFO FFO NO FFO NO

Note: The maximum input limit for the port is 31 consecutive bits.

[Example 1] IN 8 15 Read input ports 8 ~15 as a binary number in variable 99.

Binary number

12. SEL Language

IN (Binary Number Read I/O • Flag)

[Example 2] LET 1 8 Assign 8 to variable 1. LET 2 15 Assign 15 to variable 2.

IN *1 *2 Read port 8(content of variable 1) to port 15 (content of variable 2) as a binary number to variable 99.

001 0 0 1 0 127 + 0 + 0 + 0 + 0 + 22 + 0 + 20

28 + 0 + 0 + 0 + 0 + 4 + 0 + 2

49

[Function] Reads the BCD value from the designated input port, then stores this value in variable register 99.

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stigidDCB

Note 2: The I/O Port • Flag used is 4 x n (number of digits).

[Example 1] INB 8 2 Read input port from 8 for 2 digits (up to 15) as a binary numberto variable 99.

[Example 2 ] LET 1 8 Assign 8 to variable 1.LET 2 2 Assign 2 to variable 2.

IN *1 *2 Read from input port 8 (content of variable 1) for 2 digits(content of variable 2)(up to 15) as a BCD value to variable 99.

12. SEL Language

INB (BCD Read I/O • Flag)

14 13 12 11 10 9 815

ON OFF OFF OFF OFF ON OFF ON

Upper digits Lower digits

Note 1: The maximum number of digits that can be input is 8 (32 bits).

⇓⇓⇓⇓⇓ ••• Input port No.

133 • • • • • • • • • Variable 99

50

[Function] Output the value of variable 99 to output ports or flags from operand 1 to opreand 2.

Note 1: The maximum number of digits that can be output is 32 bits.

[Example 1] OUT 300 307 Write the value of variable 99 as a binary value to output ports from300~307.

[Example 2] LET 1 300 Assign 300 to variable 1.LET 2 307 Assign 307 to variable 2.OUT *1 *2 Write the value of variable 99 as a binary number to output ports 300

(content of variable 1) through 307 (content of variable 2).

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133 • • • • • • • • • • • • • • • • Variable 99

12. SEL Language

OUT (Binary Number Output)

• • •Output port NumberON OFF OFF OFF OFF OFFON ON

307 306 305 304 303 302 301 300

Upper

1 0 0 0 0 0 1 • •• Output port Number1

51

[Function] Output the value of variable 99 to ourput ports or flags from operand 1 to operand 2.

Note 1: The maximum number of digits that can be output is 8 (32 bits).

Note 2: The output port • f lag used is 4 x n (number of digits)..

[Example 1] OUT 300 2 Write the value of variable 99 as a BCD value to output ports from 300for 2 digits (up to 307).

[Example 2] LET 1 300 Assign 300 to variable 1.LET 2 2 Assign 2 to variable 2.OUT *1 *2 Write the value of variable 99 as a BCD value to output ports from 300

(content of variable 1) for 2 digits (content of variable 2) (up to 15).

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85 • • • • • • • • • • • • • • • • Variable 99

reppU rewoL1 0 0 0 0 1 0 1 • • •Binary number

12. SEL Language

OUTB (BCD Output)

• • •Output port NumberON OFF OFF OFF OFF OFFON ON

307 306 305 304 303 302 301 300

52

[Function] Sets the tag number designated in operand 1.

[Example] Refer to the GOTO command.

12. SEL Language

TAG (Tag Declaration)

GOTO (Jump)

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[Function] Jumps to the position of the tag number designated in operand 1.

Note: The GOTO command is valid only within the same program.

[Example 1] TAG 1 Set the tag. : : :GOTO 1 Jump to tag 1.

[Example 2] LET 1 10 Assign 10 to 1.GOTO *1 Jump to tag 10 (content of variable 1).

53

[Function] Commands end of subroutine. This is always required at the end of a subroutine. After this, theprogram moves to the step after the EXSR called out.

[Example 1] Refer to the EXSR command.

[Function] Commands the start of the subroutine number designated in operand 1.

[Example] Refer to the EXSR command.

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RSDE

[Function] Executes the subroutine number designated in operand 1.

Note: Only a subroutine number within the same program is enabled.

[Example1] EXSR 1 Execute subroutine 1. : :EXITBGSR 1 Begin subroutine 1 : : :

EDSR End subroutine 1.

[Example 2] LET 1 10 Assign 10 to 1 EXSR *1 Execute subroutine 10 (content of variable 1).

12. SEL Language

BGSR (Begin Subroutine)

EDSR (End Subroutine)

EXSR (Execute Subroutine)

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54

[Function] Starts another program and processes it in parallel.When that program (task) has been started, the port and flag in the post section is output.

[Example 1] EXPG 10 Start program number 10.

[Example 2] LET 1 10 Assign 10 to variable 1.EXPG *1 Start variable 1 (content 10) program.

[Function] Finishes the program. When final step is reached without the EXIT command, processreturns to the front.

* The status when the program is complete• Output Port ..................... Valid• Local Flag ..................... Invalid• Local Variable ............... Invalid• Current Value .................. Valid• Global Flag ..................... Valid• Global Variable ............... Valid

[Example] ::

EXIT Ends the program.

12. SEL Language

EXIT (Exit Program)

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EXPG (Start Another Program)

12.9 Task management commands

55

[Function] Executes programs paused by the SLPG command assigned in operand 1.Once the startup is succesful, output turns ON.

[Function] Pauses self task, and begins execution again by WUPG command of another program.

[Example1] SLPG Pauses self task.

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[Example 1] ABPG 10 Stop program No. 10.

[Example 2] LET 1 10 Assign 10 to variable 1.ABPG *1 Stop variable 1 (content 10) program.

12. SEL Language

SLPG (Task Pause) * Commands not yet publicly available can not be used.

ABPG (Stop Other Program)

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[Function] Forces the other program being executed in operand 1 to end.When that progran (task) is forced to end, the port and flag in the post section is output.

Note: The ABPG command stops the program once the command being executed is completed.

[Example 1] WUPG 1 Execute program No. 1.

[Example 2] LET 1 10 Assign 10 to variable 1.WUPG *1 Execute variable1 (content 10) program.

WUPG (Startup Other Task) * Commands not yet publicly available can not be used.

56

[Function] Stores task level of self task to operand 1 variable.

[Example 1] GTPR 1 Store task level into variable 1.

[Example 2] LET 1 10 Assign 10 to variable 1.GTPR *1 Store task level into variable 1 (content 10).

[Function] Reads the task condition of operand 2 program into operand 1 variable.The value being read is as follows:

Execute condition · · · TTS__RUN 01Execute able condition · · · TTS__RDY 02

Wait condition · · · TTS __WAI 04Forced wait condition · · · TTS__SUS 08Double wait condition · · · TTS__RDY 0C (12) WAI + SUS (4+8)Pause conditon · · · TTS__RDY 10 (16)

[Example 1] GTPG 10 5 Read task condition of program 5 into variable 10.

[Example 2] LET 1 10 Assign 10 to variable 1.LET 2 5 Assign 5 to variable 1.GTPG*1 *2 Read task condition of variable 2 (content 5) program into

variable 1 (content 10 variable).

GTPR (Acquire Task Level) * Commands not yet publicly available can not be used.

12. SEL Language

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GTPG (Acquire Task Level) * Commands not yet publicly available can not be used.

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[Function] Changes task level of operand 1 to the check value of operand 2. Assigns task level range from1~5 and check value at 10mm/sec per unit.

[Example1] SLIC 2 0.02 Change the check value of task level 2 to 0.02 sec.

[Example 2] LET 100 0.5 Assign 0.5 to variable 100.SLIC 3 *100 Changes the task data of task level 3 to variable 100

(content 0.5 sec).

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[Example 1] STPR 1 Change task level to 1.

[Example 2] LET 1 Assign variable 1 to 3. STPR *1 Change the task level of variable 1 (content 3).

12. SEL Language

SLIC (Time Slice Value Change) * Commands not yet publicly available can not beused.

STPR (Task Level Change) * Commands not yet publicly available can not be used.

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[Function] Change the task level of the self task to the value of operand 1. The task level range is 1~5, smaller

number receiving priority.

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[Function] Returns the obtained resources.

[Example 1] Please refer to GTRS.

[Function] Obtains resource. If resource is not available, program pauses until the resource is released.Assigns resource no. 1~9.

[Example 1] Define X axis as resource 1.

Program 1 Program 2

GTRS 1 : Program 1 obtain resource 1.MOVL 1 GTRS 1 Program 2 can not obtain resource 1.RLRS 1 (Obtain wiat) As resource 1 returns, Program 2 obtains it.

: MOVP 2 Program 2 uses the X axis. : RLRS 1 Program 2 returns the resource.

By doing the above, even when the same axis is used for multiple programs, an error will not be encountered. .

RLRS (Return Resource) * Commands not yet publicly available can not be used.

12. SEL Language

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GTRS (Obtain Resource) *Commands not yet publicly available can not be used.

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12.10 Resource management commands

[Example 2] LET 1 5 Assign 5 to variable 1.GTRS *1 Obtain resource of variable 1 (content 5).

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12.11 Position Data Operation Commands

[Function] Reads the position data for the designated axis to variable 199. (Opposite of PPUT) Whenexecuting this command, if the data being read is xxx.xx, the data will not be entered in variable 199(command is not executed).

[Example] PGET 2 3 Read data at position no. 3 for axis no. 2 to variable 199.

[Function] Writes the coordinates in variable 199 to the designated axis position data.

[Example] LET 199 150 Assign 150 to variable 199.PPUT 2 3 Write variable 199 (content 150) to position 3

(axis 2).

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12. SEL Language

PPUT (Write Position Data)

PGET (Read Position Data)

60

12. SEL Language

[Function] Copies data in the designated position No. (copy data in operand 2 to operand 1).

[Example] PCPY 20 10 Copy data from position 10 in operand 2 to position 20 in operand 1.

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[Function] Clears the data in the range of positions designated by operand 1 and operand 2 (becomes XX.XXX, not 0.00).

[Example] PCLR 10 20 Clears data from position 10 in operand 1 through position 20 in operand 2.

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PCPY (Position Data Copy)

PCLR (Position Data Clear)

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[Function] Reads the current coordinates of the axis designated in operand 1 and writes it to the positiondesignated in Operand 2.

[Example] PRED 11 10 Read the current coordinates of axis 1 and axis 2 designated in operand 1 intoposition 10.

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12. SEL Language

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PTST (Check Position Data)

[Function] Checks to see whether there is valid data in the designated axis pattern and position number. If there is nodata, the post flag or output port turns ON. Post section turns ON only when all the axes specified by the axis pattern are XX.XXX. ("0" is considered as data.)

[Example] PTST 11 11 600 If there is no data in position 11 of axis 1 and 2, flag 600 turns ON.

PRED (Read Coordinates)

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12. SEL Language

PVEL (Assign Velocity Data)

[Function] Assigns the value in operand 1 as the velocity for the designated position data. Variables can also beused. This command is used to change the actual velocity.

* When a value is assigned that will result in a negative number after calculation, there is no warning at the time you execute this command but an alarm will occur when you try to use the data.

[Example] PVEL 100 3 Assign a value of 100mm/sec to the velocity data for position number 3.

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[Function] Assigns the acceleration data in Operand 1 for the acceleration of the position data. As with the PVELcommand, you can assign a value using the variable but there is no function that checks the value rangewhen executing this command. Therefore, please be careful not to assign a value that exceeds the actuator'slimits.

[Example] PACC 0.3 3 Assign a value of 0.3 to the acceleration speed data for position number 3.

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PACC (Assign Acceleration Data)

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12. SEL Language

PSIZ (Check Position Data Size)

[Function] Checks the maximum size of the position data that can be used.

[Example] PSIZ 1 The maximum value of the position data goes into variable 1 (variable to be assigned) inoperand 1.

[Function] Stores the axis pattern of the position in operand 2 into the variable in operand 1.

[Example 1] PAXS 100 200 Store the axis pattern of position 200 into variable 100. When the points are setas in the position table below, 2 (10 in binary notation) is stored in variable 100.

[Example 2] When the points are set as below, 2 (10 in binary notation) is stored in variable 100.LET 1 3 Assign 3 to variable 1.PAXS *1 *2 Assign 101 to variable 2.LET 2 301 Store the axis pattern of the position for 101 which is the value contained in

variable 2, to variable 3 which is contained in variable 1. When the points areset as below, 3 (11 in binary notation) is stored in variable 3.

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PAXS (Read Axis Pattern)

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OVRD (Override)

[Function] This command decreases the velocity according to the designated ratio. (Velocity coefficient setting).The range of the ratio settings is from 1 ~100%.

*When you use the override function, any value below 1 will be clamped at 1. Any decimal value in the speed setting will be rounded off.

[Example] VEL 100 100mm/sec setting.OVRD 50 100mm/sec is reduced by 50% and the actual velocity becomes 50mm/sec.

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The velocity between these two points is 1000mm/sec.

The velocity between these two points is 500mm/sec.

[Function] Sets the velocity of an actuator movement in mm/sec. The maximum velocity varies according to the modelof the actuator so please set below that value.

*Decimal places cannot be used. Entering a decimal value will cause an error.*The minimum velocity setting is 1mm/sec.

[Example] VEL 10001000mm/sec (Velocity Setting)

VEL1000MOVP 1MOVP 2VEL 500MOVP 3MOVP 4

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12. SEL Language

VEL(Velocity)

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12. SEL Language

[Function] Sets the acceleration of the actuator movement which is expressed in G (Gravity). The maximum accelerationvaries and depends on the actuator model and payload. The rated acceleration is 0.3 G. The actuator movesat the rated acceleration 0.3 G when acceleration is not set by the ACC command.

[Example] ACC 0.30.3G (Acceleration setting at 0.3G)

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ACC (Acceleration)

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[Function] Sets the ratio to control the S motion of the actuator.The setting range is integers from 0 ~ 50 (%).If this command is not used to set the ratio or when it is set to 0 (%), the actuator makes a trapezoid motion.

[Example 1] SCRV 30 S motion ratio is set to 30%.

[Example 2] LET 1 50 Assign 50 to variable 1.SCRV *1 S motion ratio is set to 50 (%) which is the content of variable 1.

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12. SEL Language

SCRV (S Motion Ratio Setting)

v

t

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60%

200 (No.1)

(No.2)

60%

200(No.3)

0

X

Y

[Function] Sets the axis movement position ratio to execute the ARCH command.

*The position ratio depends on the distance of the movement but it should be set at 50~60% or higher.When the ratio is set too low, a "C2" alarm may occur.

[Example] Application program

HOME 11VEL 100ATRG 60ACC 0.3ARCH 1 3

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1.oN 000.002 xxx.xxx

2.oN xxx.xxx 000.002

3.oN 00.0 xxx.xxx

12. SEL Language

OFST (Offset)

[Function] This command adds an offset value to the target value when the actuator moves. The offset amount is given in mm and the resolution is 0.001mm. Offset values can be negative numbers within the range of

movement.

* The OFST command can only be used for the axes in that program. To set an offset value for axes in multiple programs, the OFST command must be executed for each program.

[Example] OFST 10000011 50.000 50mm is added to the movement amount of Axis 1, Axis 2, and Axis 8.


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ATRG (Arch Motion Trigger)

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Input 25 ON

HOLD

t

Input 25 OFF

V

MotionCompleted

Remainingmotion

[Function] Designates an input port for sending a command to decelerate and stop while a move command is beingexecuted. If the designated input port turns ON, then velocity decreases until all motion stops. When theinput port turns OFF, then motion begins again. The HOLD command applies only to the axes in thedesignated task (program), and does not affect axes running in other programs.

[Example] HOLD 25 When input port 25 turns ON, velocity decreases until all motion stops.

* When the HOLD function is used during PATH, CIR, ARC motion commands, the actuator stops at the nextposition. During the execution of straight line motion commands such as MOVL, MOVP, it stops immediately.

* The IA system uses a unique homing sequence which locks the servo and detects the stroke edge duringhoming. If the HOLD is activated at the end of homing, this might cause a "servo run-away = alarm" after theHOLD is released. Therefore, HOLD should be designated after the HOME command. If you need to desig-nate HOLD from the beginning, a home area detection switch (an area limit switch) must be installed so thatthe HOLD designation will not be carried out in this area.

* HOLD and CANC cannot be used in the same program. (If both are written in the same program, the commandthat is designated later is the one that becomes effective).

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HOLD(Hold: Axis Temporary Stop)

12. SEL Language

69

[Function] Designates an input or flag for sending a command to decelerate and stop while a move command is beingexecuted. If the actuator is moving and the designated input port turns ON, then velocity decreases until allmotion stops. Any other programmed motion thereafter is cancelled and not executed.

* HOLD and CANC cannot be used in the same program. (If both are written in the same program, thecommand that is designated later is the one that becomes effective).

[Example] CANC 25When input port 25 turns ON, velocity decreases until all motion stops. All motion after this is cancelled.

V

t

Input 25ON

MotionCompleted

The rest is cancelled

* During PATH, CIR, ARC motion designa-tion, the actuator moves to the next position.Any other programmed motion thereafter iscancelled and not executed.

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12. SEL Language

[Function] Count axes starting with the designated axis as the first axis.

[Example] HOME 11 Axis No.1 and Axis No.2 perform homing.BASE 3 Axis No.3 is counted as the first axis.HOME 11 Axis No.3 and Axis No.4 perform homing.

After homing, Axis No.3~8 move by designating Axis No.1~6(axis pattern and position data).

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BASE (Axis Base Designation)

CANC(Cancel: Cancels Remainder of Move)

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[Function] This command moves the actuator through the position data of the designated axis pattern.(Even if there is data in axes other than those designated, the actuator will not move to these positions).

[Example] GRP 00000011 From position data for 8 axes, data from axis 1 and 2 is taken out and executed.

[Function] This command sets up the motion increments for use with CIR (Circular Movement) and ARC(Arc Movement) commands. When performing CIR and ARC commands, passing points will be calculated by dividing a circle into the degrees as set. When increments are set small, the circular movement isaccurate, however, when they are too small, the speed becomes too slow. When CIR and ARC commands areperformed without setting increments, the motion increments of the actuator will be 15 degrees.

[Example] DEG 10

Motion in 10degree increments.


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12. SEL Language

GRP (Grouping of Axes)

DEG (Degree Setting)

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12. SEL Language

[Function] Stores the status (error code) of the axis in Operand 2 in the variable in Operand 1.Only error codes that begin with the letter "A" will be stored in the register in Operand 1. These errorcodes are the same ones that are displayed on the front panel of the controller. (The error codes in thetable are written in hexadecimal numbers. The hexadecimal value in the variable in Operand 1 must beconverted to a decimal number to identify its error code.)

[Example] AXST 1 2 Read the status for Axis 2 to variable 1.If 161 was in variable 1, 161 ÷ 16 = 10 ( = A) with a remainder of 1, thenthis means that error code A1 (External Interrupt Error) occurred on Axis 2.

AXST (Axis Status Acquisition)

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[Function] This commands turns the servo of the designated axes ON/OFF .

SVXX

12.13 Actuator Control Commands

12. SEL Language

SVXX (Servo ON/OFF)

ON • • • Turns the servo ON.

OF • • • Turns the servo OFF.

[Example] SVON SVON 11001100 Turn on the servo for axis 4, 7, 8. This does not affextaxes that are already ON.

[Function] This command executes homing of the designated axes. Servos turn ON automatically.

[Example] HOME 10000011 Axis 1, 2, and 8 axes execute homing.

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HOME (Return Home)

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[Function] This command moves the actuator to the designated position number from point to point withoutinterpolation.

[Example] MOVP 100Moves to Position No. 100 (point to point).

MOVP *1If variable 1 is 150, then the actuator moves toposition number 150 (point to point).

Each axis moves at itsown designated speed.

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1 2 3123

001-0.001

0-0.001

0-x.xxx

x

051-0.002

0-0.002

0-x.xxx

x

Move path when X-axis moves to 200mm point and Y-axis movesto 100mm point from home.

X axis

Y axis motion completeY axis

100mm

200mmHome 0

12. SEL Language

MOVP (Point to-Point Position Data)

MOVD (Direct Designate Move)

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[Function] Moves the actuator to a position designated in operand 1.Output turns OFF when axis move starts, and upon completion, turns ON.

[Example 1] MOVD 100 Move the axis to position 100.

[Example 2] LET 1 100 Assign 100 to variable 1.MOVD *1 Move the axis to variable 1 (content 100) position.

* Note: This command is applicable to the DS type only.

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[Function] Moves the actuator to the designated point while using interpolation (not point to point).

[Example] MOVL 100Move to position No. 100 using interpolation.

MOVL *1If variable 1 is 150, then the actuator moves to position 150 using interpolation.

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The tip of the combined motion for eachof the axes moves at the designated speed.The path from the starting point to the endpoint makes a straight line.

Move path when X-axis moves to 200mm point andY-axis moves to 100mm point from home.

X and Y axis complete move at the same time

X axis

Y axis

100mm

200mmHome 0

12. SEL Language

MVDI (Incremental Move)

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EP

MOVL( Position Data with Interpolation)

[Function] Moves the as a move load of the value designated in operand 1.The output becomes OFF when axis move starts, and upon completion, turns ON.

[Example] MVDI 30 Move 30mm from the current position to the +direction.

* Note: This command is applicable to the DS type only.

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[Function] Moves the actuator to the designated point in operand 1 from the current position while interpolating(not point to point).

[Example] MVLI 1When the current position is (50, 50) and the position 1 data is (150, 100), the actuators move to the position(200, 150) which is 150 in X direction and 100 in Y direction from the current position.

[Function] Moves the actuator to the designated position number in reference to the current position from point to pointwithout interpolation.

[Example] MVPI 1When the current position is (50, 50) and position 1 data is (150, 100), the actuators move 150 in the X direction and 100 in the Y direction to the position (200, 150).

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Each axis moves at its own designated speed.

Y axis only completes movementY axis

X axisHome 0

50mm

150mm

50mm 200mm

The tip of the combined motion for each of the axesmoves at the designated speed. The path from thestart to the finish point makes a straight line.

Y axis

X axisHome 0

50mm

150mm

50mm 200mm

X, Y complete motion at the same time

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MVPI (Incremental PTP Move)

MVLI (Incremental Interpolation Movement)

12. SEL Language

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12. SEL Language

[Function] In order to accomplish faster pick & place motion in the air and the tact time, the actuator performs anarch motion movement by changing the position ratio of the axis movement before it reached theintermediate target position.

[Example] LET 1 1 Assign 1 to variable 1.LET 2 3 Assign 3 to operand 2.ATRG 70 Set position ratio to 70%.ARCH *1 Execute arch move from variable 1 (content 1) to variable 2 (content 3)

position.

[Function] Actuator moves continuously between the designated starting point and the finishing point. The locus isa B-spline-type, free-form curve which passes through the inside of the designated coordinate. It ispossible for the actuator to move close to the designated coordinate by increasing the acceleration.However, when it exceeds the maximum acceleration, an error will occur.

* Three and four axis motion can be performed by this command.

[Example 1] PATH 100 120 Moves continuously to position 100 ~ 120.

[Example 2] LET 1 50 Assign 50 to variable 1.LET 2 100 Assign 100 to variable 2.PATH *1 *2 Continuosly move positions from variable 1 (content 50) to variable 2

(content 100).

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PATH (Path Movement)

ARCH (Arch Motion)

*Note: See ATRG command

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[Function] Executes circular motion using the current position as the startingpoint and passing points 1 and 2. The rotation direction is deter-mined by the position data. The following diagram shows CW(clockwise) motion but this can be changed to CCW (counterclock-wise) by exchanging positions 1 and 2.

*This command is available for the specified orthogonal plane(Automatically selected by position data. Generally the XY planeis selected.) Also, care is needed if using this with the OFSTcommand (check movement).

[Example] CIR 100 101Executes a circular motion passing through position numbers 100and 101.

Position No. 101

Position No. 100

Starting Point

Passing Position 1

Passing Position 2

Starting Point

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CIR (Circular Movement)

12. SEL Language

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EP

ARC (Arc Movement)

12. SEL Language

[Function] Executes an arc motion from the current position to operand 2 position, passing through operand 1.The output turns OFF during an arc move and turns ON upon completion. However, when othercommands as ARC, PATH and CIR follow in a consecutive order, turns ON at the 2nd point prior to thelast point.

* This command is available for the specified orthogonal plane (automatically selected by position data). Generally the XY plane is selected.

[Example 1] ARC 100 101 Executes an arc motion from the current position to position 101,passing through 100.

[Example 2] LET 1 5 Assign 5 to variable 1.LET 2 6 Assign 6 to variable 1.ARC *1 *2 Executes an arc motion from the currrent position

(passing through variable 1 content 5) to variable 2(content 6) position.

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12. SEL Language

JXWX (Jog move)

[Function] Continues to move while the axis designated in operand 1 meets the condition I/O port flagdesignated in operand 2. Stops when the axis reached soft limit.

JXWX

F N • • • Designated port moves forward during ON.B N • • • Designated port moves backward during ON.F F • • • Designated port moves forward during OFF.B F • • • Designated port moves backward during OFF.

Note: HOLD is not available for this command.

[Example 1] JBWF 11001100 10 While input 10 is OFF, Axis 3, 4, 7, and 8 moves backwards.

[Example 2] LET 5 20 Assign 20 to variable 5.JFWN 10101010 *5 While input of variable 5 (content 20) is ON, move forward

axis 2, 4, 6, and 8.

STOP (Slows to a Stop)

[Function] Axis designated in operand 1 axis pattern slows to a stop.

[Example] STOP 11001100 Axis 3, 4, 7 and 8 Slows to a stop.

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12. SEL Language

[Function] Compares the contents of the variable in operand 1 and the value in operand 2. When the condition is estab-lished, the program proceeds to the next step. When the condition is not established, if there is acorresponding ELSE command, the program proceeds to the next step after that. If not, it proceeds to the nextstep after the corresponding EDIF command. When the input condition is not established and there is no IFXXcommand executed, the program proceeds to the step following the corresponding EDIF. Up to 15 levels ofnesting are available when ISXX and DWXX are combined.

12.14 Structured IF Commands

IFXX

EQ · · · Operand 1 = Operand 2NE · · · Operand 1 ≠ Operand 2GT · · · Operand 1 > Operand 2GE · · · Operand 1 ≥ Operand 2LT · · · Operand 1 < Operand 2LE · · · Operand 1 ≤ Operand 2

[Example] 600 IFEQ 1 1 Select axis

IFGE 2 0 Select moving directionJFWN 01 5 Move Axis 1 forwardELSEJBWN 01 5 Move Axis 1 backwardEDIFELSEIFNE 2 1 Select moving directionJFWN 10 5 Move Axis 2 forwardELSEJBWN 10 5 Move Axis 2 backwardEDIFEDIFVariable 1 selects Axis 1 or Axis 2. Variable 2 selects forward or backward to jog.When flag 600 is OFF, nothing is done and the program proceeds to the step after the last EDIF.

*Do not use GOTO (TAG) in between IFXX and EDIF.

IFXX (Structured IF)

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ISXX (String Comparison)

[Function] Compares the character string in the column numbers in Operand 1 and Operand 2. When the conditionis established, the program proceeds to the next step. When the condition is not established, if there is acorresponding ELSE command, the program proceeds to the next step after that. If not, it proceeds tothe next step after the corresponding EDIF command. The length of the string to be compared is set bythe SLEN command. If there is a literal character in either Operand 1 or Operand 2, the length to becompared is that of the literal character. When the input condition is not established and there is no IFXXcommand executed, the program proceeds to the step following the corresponding EDIF. Up to 15levels of nesting are available when ISXX and DWXX are combined.

ISXXEQ · · · Operand 1 = Operand 2NE · · · Operand 1 ≠ Operand 2

SCPY 10 'GOFD' Go forwardSCPY 14 'GOBK' Go backwardLET 1 5LET 2 14

600 ISEQ 1 '1AXS' Select AxisSLEN 4ISEQ 5 10 Select moving directionJFWN 01 5 Move Axis 1 forwardELSEJBWN 01 5 Move Axis 1 backwardEDIFELSEISNE *1 *2 Select moving directionJFWN 10 5 Move Axis 2 forwardELSEJBWN 10 5 Move Axis 2 backwardEDIFEDIF

Column 1 ~ 4 is to select Axis 1, Axis 2 and column 5 ~ 8 is to select the jog direction.When flag 600 is OFF, nothing is done and the program proceeds to the step after the last EDIF.When column 1 ~ 8 contains the data shown below, Axis 1 moves forward.

12. SEL Language

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1 2 3 4 5 6 7 8

1 A X S G O F D

82

[Function] Declares the end of an IFXX command.

[Example] Refer to IFXX.

[Function] The ELSE command is used in conjunction with the IFXX command and ISXX command. When thecondition is not established, the command following the ELSE statement will be executed.

[Example] Refer to IFXX and ISXX.

12. SEL Language

ELSEnoisnapxE

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)RO


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ESLE

EDIF (IFXX End)


)RO


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FIDE

83

[Function] Compares the contents of the variable in Operand 1 and the value in Operand 2. While the condition is established, the commands are executed up to EDDO.When the condition is not established, the program proceeds to the step after the corresponding EDDO command. The LEAV command can be used to force the end of the loop. When the input condition is not established, the DWXX command is not executed and the program proceeds to the next step after the corresponding EDDO. Up to 15 levels of nesting are available when ISXX and DWXX are combined.

12.15 Structured DO Command

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lanoitpO lanoitpO WD XX .oNelbairaV ataD

DWXX

EQ · · · Operand 1 = Operand 2NE · · · Operand 1 ≠ Operand 2GT · · · Operand 1 > Operand 2GE · · · Operand 1 ≥ Operand 2LT · · · Operand 1 < Operand 2LE · · · Operand 1 ≤ Operand 2

[Example] DWEQ 1 0 · ·600 LEAV · ·EDDOWhile variable 1 is 0, the commands up to the EDDO command are repeated.If flag 600 turns ON during this time, the loop is forced to end and the program proceeds tothe next step after the EDDO command.

12. SEL Language

DWXX (DO WHILE)

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lanoitpO lanoitpO ODDE

[Function] Declares the end of the loop which started with DWXX.When a DWXX condition is not established, the program proceeds to next step after this command.

[Example] Refer to DWXX.

EDDO (End DO WHILE)

84

[Function] Escapes the DOXX loop, then the program proceeds to the next step after EDDO.

[Example] DWEQ 1 0 · ·

600 LEAV · ·EDDOWhile variable 1 is 0, the commands up to the EDDO command are repeated.If flag 600 turns ON during this time, the loop is forced to end and the program proceeds to the nextstep after the EDDO command. If variable 1 is still 0, then the loop is repeated.

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lanoitpO lanoitpO VAEL

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lanoitpO lanoitpO RETI

[Example] DWEQ 1 0 · ·

600 ITER · ·EDDOWhile variable 1 is 0, the commands up to the EDDO command are repeated.If flag 600 turns ON during this time, the loop is forced to end and control is forced to move to theEDDO command. If variable 1 is still 0, then the loop is repeated.

12. SEL Language

LEAV (Escape From DO WHILE)

ITER (Repeat)

[Function] Forces the control to move to EDDO during the DOXX loop.

85

12.16 Branching commands

12. SEL Language

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dnammoCtsoP


lanoitpO lanoitpO TCLS

SLCT (Start Selection Group)

[Function] Branches to the next step after the OTHE command if none of the conditions set up by the WHXX,WSXX or any commands up to the EDSL command are met.

(Example] SCPY 1 ‘Right’ Assign ‘Right’ to column 1 and 5. :

600 SLCT Since the string in columns 1 through 5 are equal to ‘Right’, thecommands that follow this WSEQ will be executed.

WSEQ 1 ‘Right’ Since the string in columns 1 through 5 are not equal to ‘left’,the commands that follow this WSEQ will not be executed. If itis neither, then the commands that follow OTHE are executed.

WSEQ 1 ‘Left’ When flag 600 is OFF, or if any one of the conditions is executed, : then end the select.OTHE :EDSL

86

WHXX (Selected When True Variable)

12. SEL Language

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dnammoCtsoP


XXHW .oNelbairaV ataD

[Function] This is used between the SLCT∼ EDSL commands. Compares the contents of the variable inoperand 1 to the value in operand 2. If the conditions are met, then the code following the WHXX willbe executed up to the next WHXX. If the conditions are not met, the program will go to the next WHXXcommand or OTHE command or EDSL.

WHXXEQ .......... Operand 1 = Operand 2

NE .......... Operand 1 ≠Operand 2GT .......... Operand 1 >Operand 2GE .......... Operand 1 >Operand 2LT .......... Operand 1 <Operand 2LE .......... Operand 1 <Operand 2

[Example] LET 1 20 Assign 20 to variable 1.LET 2 10 Assign 10 to variable 2. :SLCT Branches.WHEQ 1 10 If the content of variable is 10, (1) is executed but since the : content is 20, program refers to the next condition.(1) :WHGT 1 *2 Executed if the content of variable 1 is greater than the :- content of variable 2.(2) Variable 1 (=20) > variable 2 (=10), so (2) is executed.

:OTHE If no conditions are fufilled, this is executed. Since (2) was : executed, (3) will not be executed.(3) :EDSL When one of the conditions is met and that command is : performed, processing moves to EDSL. In this example,(4) (2) and (4) are executed. :

* When there is a possibility of several conditions being met, the WXXX command that appears first goes into effect andthe commands that follow are not executed. When conditions are demanding, list the ones with the highest priority first.

87

12. SEL Language

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[Function] This is used during SLCT∼ EDSL. Compares the character string in the columns in operand 1 andoperand 2. If the conditions are met, then the code following the WSXX will be executed up to the nextWSXX. If the conditions are not met, the program will go up to the next WSXX command or OTHEcommand or EDSL. Comparison is made based on the length designated in the SLEN command. Whenoperand 2 is a literal character, that is the length that is executed.

WSXX

EQ • • • Operand 1 = Operand 2

NE • • • Operand 1 ≠ Operand 2

[Example] SLEN 3 Sets the number of characters to be compared to 3.SCPY 1 ‘ABC’ Assign ‘ABC’ to column 1.LET 1 3 Assign 3 to variable 1. :SLCTWSEQ 1 ‘XYZ’ Branches. : If columns 1~3 are ‘XYZ’, (1) is executed but since columns (1) 1~3 are ‘ABC’, this is not executed. :

WSEQ 1 ‘ABC’ : If columns1~3 are ‘ABC’, (2) is executed. Therefore, this (2) code is executed. :OTHE : If no conditions are fufilled, this is executed. Since (2) was (3) executed, (3) will not be executed. :EDSL When one of the conditions is met and that command is performed, : processing moves to EDSL. In this example, (2) and (4) (4) are executed.

* When there is a possibility of several conditions being met, the WXXX command that appears first goes into effect andthe commands that follow are not executed. When conditions are demanding, list the ones with the highest priority first.

WSXX (Selected When True Character)

88

12. SEL Language

EDSL (End of Selected Group)

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EHTO

[Function] This is used between SLCT~EDSL commands. This declares the command to be executed when no other conditions are met.

[Example] Please refer to SLCT, WHXX and WSXX.

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LSDE

OTHE (Selected in Case of Other)

[Function] Declares the end of SLCT command.

[Example] Please refer to SLCT, WHXX and WSXX.

89

12.17 External input output command

[Function] Opens the channel specified in operand 1. Channels specified after this will be able to transmit and receivesignals. An ending character must be set by the SCHA command before executing this command.

[Example] SCHA 10 Designate 10 (=LF) as the ending character.OPEN 1 Open channel 1.

SCHA 13 Designate 13 (=CR) as the ending character.LET 1 2 Assign 2 to variable 1. Open channel 2, the value contained in variable 1.OPEN *1

[Function] Closes the channel specified in operand 1. Channels specified after this will be unable to transmit and receive signals.

[Example] CLOS 1 Close the channel.

[Example] LET 1 2 Assign 2 to variable 1.CLOS *1 Close channel 2, the value contained in variable 1.

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12. SEL Language

OPEN (Open Channel)

CLOS (Close Channel)

90

[Function] Reads the character string from the channel in operand 1 to the column in operand 2.Stops reading when the character designated in the SCHA command appears.The column can be either local or global.

[Example] SCHA 10 Set LF (= 10) for the ending character.OPEN 1 Open channel 1.READ 1 2 Read the character string from channel 1 to column 2 until LF appears.CLOS 1 Close the channel.

LET 1 2 Assign 2 to variable 1.LET 2 3 Assign 3 to variable 2.SCHA 13 Set CR (= 13) for the ending character.READ *1 *2 Read the character string from channel 2 (content of variable 1) to column 3

(content of variable 2) until CR appears.

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READ

12. SEL Language

91

12. SEL Language

[Function] Writes the character string from the channel in operand 1 to the column in operand 2.Stops writing after the character designated in the SCHA command is written.The column can be either local or global.

[Example] SCHA 10 Set LF (= 10) for the ending character.OPEN 1 Open channel 1.WRIT 1 2 Write the character string from channel 1 to column 2 until LF appears.CLOS 1 Close the channel.

LET 1 2 Assign 2 to variable 1.LET 2 3 Assign 3 to variable 2.SCHA 13 Set CR (= 13) for the ending character.WRIT *1 *2 Read the character string from channel 2 (content of variable 1) to column 3

(content of variable 2) until CR appears.

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WRIT (Write)

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SCHA (Set Ending Letter)

[Function] Sets the ending letter to be used in the READ command and WRIT command. A value from 0 ~ 255

(character code used in BASIC) can be designated for the character.

[Example] Refer to the READ command and WRIT command.

92

[Function] Copies the character string from the column in operand 2 to the column in operand 1.Copies only the length set by the SLEN command. When operand 2 is a literal character, thatis the length copied.

[Example] SCPY 1 ‘ABC’ Copy ‘ABC’ to column 1.

SLEN 10 Set the length of the operation to 10 bytes.SCPY 100 200 Copy the length of the operation to 10 bytes.

Copy 10 bytes from the column 200 to column 100.

LET 1 300 Assign 300 to variable 1.LET 2 400 Assign 400 to variable 2.SLEN 5 Set the length of the operation to 5 bytes.SCPY *1 *2 Copy 5 bytes from column 400 (the content of variable 2)

to column 300 (the content of variable 1).

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12. SEL Language

SCPY

SCMP (Compare Character String)

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[Function] Compares the column in operand 1 and the column in operand 2. Compares only the length set by theSLEN command. When operand 2 is a literal character, that is the length compared.

[Example] SCMP 1 ‘ABC’ 600 When column 1~3 are ‘ABC’ flag 600 turns ON.

SLEN 5 Set the length to be compared to 5 bytes.SCPY 10 30 999 When the 5 bytes from column 10 and column 30 are equal,

flag 999 turns ON.

LET 1 10 Assign 300 to variable 1.LET 2 20 Assign 400 to variable 2.SLEN 3 Set the length of the operation to 5 bytes.SCMP *1 *2 310 When the 3 bytes in column 10 (the content of variable 1) and

the 3 bytes in column 20 (the content of variable 2) are equal,then, the output turns ON.

12.18 String processing commands

93

[Function] Sets the data in operand 2 to the column in operand 1.

[Example] SPUT 5 10 Set 10 (LF) to column 5.

LET 1 100 Assign 100 to variable 1.LET 2 50 Assign 50 to variable 2.SPUT *1 *2 Set 50 (' 2') which is the content of variable 2 to column 100

(content of variable 1).

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12. SEL Language

SPUT (Set Character)

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lanoitpO lanoitpO TEGS .oNelbairaV .oNnmuloC

[Function] Assigms 1 character from the column in operand 2 to the variable in operand 1.

[Example] SGET 100 Assign 1 byte of column 100 to variable 1.

LET 1 3 Assign 3 to variable 1.LET 2 1 Assign 1 to variable 2.SCPY 1 ‘A’ Copy ‘A’ to coumn 1.SGET *1 *2 Assign ‘A’ in column 1 (content of variable 2) to

variable 3(content of variable 1).

SGET (Acquire Character String)

94

[Function] Copies the data in operand 2 which has been converted to a decimal character string to the column inoperand 1. Uses zero-suppress to match this to the length set by the SLEN command.Even if the data is longer than the length, the length set by the SLEN command takes precedence.

[Example] SLEN 5. 3STR 1 123

Set the length to a 5 digit integer with 3 decimals.The following will be set in column 1~9,

1 2 3 4 5 6 7 8 91 2 3 . 0 0 0

LET 1 10LET 2 987. 6543SLEN 2. 3STR *1 *2

Assign 10 to variable 1.Assign 987. 6543 to variable 2.Set the length to a 2 digit integer with 3 decimals.The following will be set in column 10~15,

01 11 21 31 41 518 7 . 6 5 4

. Since the data was longer than the set length, 9 in the 100s place and 3 in the 4th decimal placeare cut off.

12. SEL Language

STR (Change Character String Decimal)

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dnammoCtsoP


lanoitpO lanoitpO RTS .oNnmuloC ataD

95

[Function] Copies the data in operand 2 which has been converted to a hexadecimal character string to the column inoperand 1. Uses zero-suppress to match only the integers to the length set by the SLEN command.Even if the data is longer than the set length, the setting by the SLEN command will take precedence.

[Example] SLEN 5STRH 1 255Set format for a 5 digit integer.The following will be set in column 1~5,

1 2 3 4 5F F

LET 1 10LET 2 987. 6543SLEN 2. 3STRH *1 *2

Assign 10 to variable 1.Assign 987. 6543 to variable 2.Set format for a 2 digit integer with 3 decimals.The following will be set in column 10~11,

01 11D B

.3, the decimal segment of the SLEN command, and .6543 in variable 2 will be ignored.The integer expressed in hexadecimal notation is ' 3DB'. However, 3 in the third digit will be cutoff since the length is set to 2 digits.

12. SEL Language

STRH (Change Character String Hexadecimal)

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lanoitpO lanoitpO HRTS .oNnmuloC ataD

96

12. SEL Language

[Function] Converts the data in the column in operand 2 to a number and assigns this to the variablein operand 1. The length set by the SLEN command will be converted.

[Example] SCPY 10 '1234' Copy the string '1234' into columns 10~13.

SLEN 4 Set the length to 4 bytes.VAL 1 10 ‘1234’ in column 10 is converted to the number 1234 and assigned

to variable 1.

LET 1 100 Assign 100 to variable 1.LET 2 20 Assign 20 to variable 2SCPY 20 ‘1234’ Copy ‘1234’ to column 20~23.SCPY 24 ‘.567’ Copy ‘.567’ to columns 24~27.

SLEN 8 Set the length to 8 bytes.VALH *1 *2 ‘1234.567’ in column 20 (content of variable 2) will be converted to

the binary number 1234.567 and assigned to variable 100(content of variable 1).

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lanoitpO lanoitpO LAV .oNelbairaV .oNnmuloC

VAL (Character String Change Data Decimal)

97

12. SEL Language

[Function] Converts the hexadecimal data in the column in operand 2 to a decimal number and assigns this to the variable in operand 1. The length set by the SLEN command will be converted. Only the integers will be convertedand the decimal places will be disregarded.

[Example] SCPY 10 ' 1234' Set ' 1234' in column 10.SLEN 4 Set the length to 4 bytes.VAL 1 10 The hexadecimal number ' 1234' in column 10 is converted to the

number 4660 and assigned to variable 1.

LET 1 100 Assign 100 to variable 1.LET 2 20 Assign 20 to variable 2SCPY 20 ' ABCD' Copy ' ABCD' to column 20.SLEN 4 Set the length to 4 bytes.VALH *1 *2 The hexadecimal ' ABCD' in column 20 (content of variable 2) will be

converted to the binary number 43982 and assigned to variable 100(content of variable 1).

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VALH (Character String Data Hexadecimal)

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lanoitpO lanoitpO NELS htgneL

SLEN (Set Length)

[Function] Sets the length for the string command.

SCMP ··· Decimals Invalid

SCPY ··· Decimals Invalid

ISXX ··· Decimals Invalid

STRH ··· Decimals Invalid

VAL,VALH ··· Decimals Invalid

STR ··· Decimals Valid

[Example] Refer to each of the commands above.

98

edoCrorrE emaNrorrE noitanalpxE

1A rorrEtpurretnIlanretxEtnerrucrevorotoM.1

)daolevitagenrevo(tnerrucevitarenegerrevO.2taehrevorevirD.3

2A rorrEdaolrevOrotoM rotomfodaolrevolacinahceM3A rorrEnoitaiveD daolrevolacinahcemoteudylreporpmrofrepotelbanusirotoM4A rorrEtimiLerawtfoS timilerawtfosdedeecxE5A rorrEesneSeloP elopesnesotelbanU0B rorrEmargorPoN tsixetonseodmargorP1B rorrEnoitucexEmargorP margorpgnitucexeyltnerrucafonoitucexE2B rorrErevOmargorP sretemarapsatesesohtsdeecxesksatforebmuN3B

rebmuNenituorbuSelbuoDrorrE

desuerarebmunenituorbusemasehtfoeromroowT4B rorrErebmuNgaTelbuoD desuerarebmungatemasehtfoeromroowT5B rebmuNenituorbuSdenifednU denifedtonsirebmunenituorbuS6B rebmuNgaTdenifednU denifedtonsirebmungaT7B rorrEriaPenituorbuS ytitnauqemasehttoneraRSDEdnaRSGB8B rorrERSGB1petS rorrERSGBasi1petS9B rorrEriaPODDE,OD ytitnauqemasehttoneraODDEdnaODAB rorrErevOtseNOD semit51nahteromdesusawODBB rorrEriaPFI ytitnauqemasehttoneraESLEdnaFICB rorrEESLE FIDEdnaFIneewtebtonsawhcihwecalpanidesusawESLE0C rorrEgnimoHoN srotautcagninnurerofebdemrofreptonsawgnimoH1C rorrEataDtnioP atadtniopderetsigernudetucexeotedamneebsahtpmettA2C rorrEnoitucexEelbuoDsixA gnivomyltnerrucsixaotnevigdnammocevoM3C rorrEtimiLerawtfoS margorpnidedeecxetimilerawtfoSAC rorrEnmuloC 999~1foegnarehtedistuotessawrebmunnmuloCBC rorrE.oNlennahC 2~1foegnarehtedistuotessaweciveDCC rorrErotanimreT testonsawrettelgnidnEDC rorrE.oNecruoS 9~1foegnarehtedistuotessawrebmunecruoSEC rorrEtnecrePnoitoMS %05~0foegnarehtedistuotesswtnecrepnoitomSFC rorrEreggirThcrA %001~05foegnarehtedistuotessawreggirT0D rorrEnoitareleccA stimilsdeecxenoitareleccA1D rorrEyticoleVoN tesneebtonsahyticoleV2D rorrEedirrevO %001~1foegnarehtedistuotessawedirrevO3D rorrEelgnA seerged021~1.0foegnarehtedistuotessawelgnA4D rorrEnrettaPsixA

atadtniop(1Crofosla4DsyalpsiD.yltcerroctestonsawnrettapsixA)rorre

5D rorrErebmuNsixA 8~1foegnarehtedistuotessawrebmunsixA6D rorrEsixA noitomcra/ralucricnidetangisederasexa3nahteroM7D rorrErebmuNmargorP timilehtsdeecxerebmunmargorP8D rorrErebmuNnoitisoP timilehtsdeecxerebmunnoitisoP9D rorrErebmuNtnioP rebmuntniopehtnitupnisawrebmunevitageNAD rorrErebmuNgalF yltcerrocdengissatonsigalFBD rorrEelbairaV yltcerrocdengissatonsielbairaVCD rorrErevOstigiD )stib23yranib(stigid8sdeecxerebmundengissADD rorrE)0(noisiviD "0"sinoisividehtfotluseRED

noitatupmoCnoitoMralucriCrorrE

tupnisawnoitomralucricmrofreptonnactahtatadnoitisoPFD rorrEleveLksaT 5~1foegnarehtfoedistuotessawlevelksaT0E rorrEdnammoCdenifednU dnammocdenifednuetucexeotdetpmettA1E rorrEgnitseNrevOenituorbuS senituorbus51nahteromfognitseN2E rorrEgnitseNrednUenituorbuS riapagnikamtoneraRSDEdnaRSXE3E rorrEnmuloCgnillortnoC tcerroctonsinoitidnocfoesUGE rorrEGME detressasaw)potSycnegremE(ycnegremE0F rorrEtpurretnI hctamtonodtnemeganamtpurretnIdnaUPCrotoM

13.1 List of error codes

* For the DS Type, E is attached in the front of the error code, displayed on the 1st column.

13. Error Codes

99

13.2 What to do When an Error Code Occurs

Below we indicate what to do in case any of the error codes described on the preceding page appear in the 7-segment displayon the face of the controller.

(1) A1 ~ A5 alarms related to the servo

When one of these alarms related to the axis appears, determining which axis is the cause of the error makes it easier to solvethe problem. One of the ways to do this is to judge by the axis status or movement at the time the error was generated. Afterthe error is generated, you can try moving the axis manually if it is a small system. If the axis (when there is no brake) moveswithout resistance, there is a good possibility that this is the axis causing the problem. When these errors occur, you shouldascertain the status of the actuator such as whether it was in the middle of homing.

In the case of an A2 alarm where there is excessive load, the cause of the error must be corrected. If you are unsure of thecause, turn on the emergency stop or turn off the power and then after about 10 seconds, turn the power back on to see howthe actuator runs. If you cannot find what the trouble is, please contact IAI or one of its agents.

When there is an A3 deviation error, it is possible that something is wrong with the connector cable.

When there is an A4 error, it is almost always caused by a programming error. Recheck the program to make sure thatyou are not trying to move the actuator beyond the stroke length.

When there is an A5 error, check to see how the axis is moving and then contact IAI. A5 errors can be caused byencoder breakdown, cable problems or driver problems.

Does the error occur at the sametime you turn the power ON?

Checklist

Does the error occur before you try tohome the actuator?

The actuator performs homing andthen the error occurs.

There is no problem with homing but anerror occurs during automatic operation.

Is there excessive load?Is the speed correct?

Are you trying to stop a vertical axis whenloaded?

13. Error Codes

100

(2) B0 - BC Programming Errors Group 1

An error will be displayed when there is a problem with the written program itself or the program that was started up. Inthis case, alarm output 300 will not be asserted.

edoC rorrE oDoTtahW

0B margorpoNonsahputratslanretxemorfnursawtahtmargorpehT

reporpehthtiwmargorpehtnuR.tnetnocdenifed.rebmun

1B rorrenurmargorPtonsisihT.detratsergninnursawtahtmargorpehT

atsujsiyalpsidedoceht-melborpaylirassecen.rotarepoehtotgninraw

2B rorrerevomargorP.smargorperomro71nurotyrtuoyfisruccosihT

.smargorp61otpuylnoseldnahgniksat-itluM

3B snoitinifedelpitlum.onenituorbuSehtesiveR.desusawrebmunenituorbusetacilpudA

.rebmun

4B snoitinifedelpitlum.ongaTtnereffidangissA.desusawrebmungatetacilpudA

.rebmun

5B denifednu.onenituorbuS.denifednusipudellacgniebrebmunenituorbusehT

ehtkcehcroenituorbusdetangisedehtdetaerC.tupnigniebrebmun

6B denifednu.ongaTrofkcehC.denifednusigatnoitanitsedOTOGehT

.noitinifedgatetaercrororrerebmungat

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.xatnysehttcerroC.FIDEdna

13. Error Codes

101

(3) C0 - CF programming errors Group 2/Command Error - 1

This group of errors is also related to programming, but primarily arises from the way the commands are used.

C0 Homing incomplete error Tried to execute move command without performinghoming. After the power is turned ON, or after anemergency stop, homing must always be performed.

C1 Position designation error Tried to move to a position not specified by theposition data. Set position data.

C2 Axis-in-motion error Commanded axis to move again while already inmotion. Be careful when doing multi-tasking.

C3 Soft limit error Commanded axis to move beyond soft limit during theprogram. Or, the soft limit went into effect whenmistakenly changing the parameter settings. Checkconditions and make necessary corrections.

CA Column error Specified a column number outside the 1 ~ 999 rangewith respect to communication. Column numbershould be within 1 ~ 999.

CB Channel number error A channel device other than 1 - 2 was specified.Currently, only 1 - 2 can be used.

CC Terminator error The terminating character was not specified. Set theterminating character using the SCHA command.

CD Resource No. error (Reserveerror - currently not used)

Resource no. outside of 1 ~ 9 was specified.(Currently, commands that would generate this errorare not supported).

CE S motion percent error An S motion percent other than 0 ~ 50 was specified.Reset using the range 0 ~ 50.

CF Arch trigger error Trigger setting outside of 50 ~ 100 was specified.Reset using the range 50 ~ 100.

(4) D0 - DF programming errors Group 3/Command Error - 2

Like Group 2 above, this group of errors primarily arises from the way the commands are used.

D0 Acceleration error Commanded axis to accelerate beyond the parameterupper limit. Although acceleration speed can be set ata fairly high value, 0.3G is the basic speed that can beguaranteed. If this error occurs, there is a problemwith the speed.

D1 No speed error There is no speed setting written in this program. It isnecessary to specifiy a speed in the program using theVEL command or using the position data.

13. Error Codes

102

D2 Override error The override was specified outside the range of 1 ~100%. Specify value within this range.

D3 Angle error The angle parameter for the circular move commandwas specified outside the range of 0.1 ~ 120°. Specifyangle within this range.

D4 Axis pattern error The axis pattern designation is incorrect. Or, theproblem is the same as for a C1 position setting error.Correct the data setting.

D5 Axis number error An axis number outside the range 1 ~ 8 was specified oran axis not supported by the controller was specified.Set the correct axis number.

D6 Circular axis designation error There are data settings for more than 2 axes. TheARC/CIR commands can only be executed in twodimensions. Correct the data setting.

D7 Program number error Operator attempted to run a program number higherthan 64. Only program numbers 1 ~ 64 can be run.

D8 Point number error A point number higher than 2000 was specified. Forpoint numbers, only the numbers 1 ~ 2000 can be used.

D9 Point data error Point data was specified as a negative number.Position data must be a positive number although otherdata can be stored as a negative number.

DA Flag number error The flag number assigned was incorrect. Flags can onlyuse numbers 600 ~ 999.

DB Variable error The variable number assigned was incorrect. Variablesand variables with * indicator must be within 1 ~ 399.

DC Digit over error The value input in operand 1, 2 exceeds 8 digits. Or, avalue exceeding the range of 32 bits was assigned inthe IN command. Assign a value within 8 digits and 32bits.

DD Divide by 0 error Result of the division calculation is 0. To perform adivision calculation, the denominator must be a numberother than 0. Recheck the algorithm.

DE Circular move calculation error Position data was assigned that does not allow a circularmove. Set position data that allows circular move.

DF Task level error (reserve error) A task level number other than 1 ~ 5 was assigned.(Currently, the command that would cause this error isnot supported).

13. Error Codes

103

(5) E0 - E3 programming errors Group 4/Command error - 3

These errors, like those in sections 3 and 4 above, primarily arise from the way the commands are used.

(6) EG error - Emergency Stop

If an EG alarm occurs, consider the following.

Emergency stop signal asserted

Determine what triggered the emergency stop and then release the emergency stop (press the button). During anemergency stop, the ready signal or output 301 is OFF and the alarm or output 300 is ON. However, if the emergency stopis asserted when the power is turned ON, alarm output 300 will not go ON. The 300 output functions after the ready signalis given.

E0 Undefined command error Attempted to execute an undefined command. If youuse the PC interface software, the check function willprevent this.

E1 Subroutine overnesting error There are more than 15 subroutines nested. Thisalarm occurs after trying to run the program. Write theprogram so that the number of nested subroutines isless than 15. Also note that when there is complexuse of the IF command, this is likely to cause a [BA]error.

E2 Subroutine under nesting error BGSR is not paired with EDSR. Another BGSR isfound before the EDSR. Correct the syntax.

E3 Controlling column error The expansion condition is used incorrectly. If you areusing the PC software, it will sometimes indicate asyntax error at the time of input.

Power ON

Emergency stop

Ready signal (301)

Alarm output (300)

13. Error Codes

104

Another thing to consider with an emergency stop

Usually, the emergency stop input is tied to a ground. In the case where you are using an external power supply, thepower supply voltage can drop, causing an emergency stop to occur. The way the circuitry is designed, the 24V DCpower supply must be turned on before the controller, and the power supply must not be turned OFF while thecontroller is in operation.

In addition, if there is a malfunction in the controller causing a part of the unit to break down, the EG condition willremain in effect and homing cannot be performed. If this happens, please contact IAI.

7 Other Errors

The following errors occur only rarely under normal operating conditions.

Precautions when handling errors/alarms

When you need to turn the power OFF and then ON again, please make sure to wait approximately 15 seconds afterturning the controller power OFF before turning it back ON.If an error occurs in which you cannot perform homing, please contact a service representative after you have checkedout the condition at the time the error occurred as thoroughly as possible. In some cases, the problem might be in theprogram itself and the representative may request a program list from you.

F0 Interrupt error Motor CPU and the interrupt number do not match.This error could occur when noise interference causesfaulty controller operation or there is a breakdown inthe hardware. Homing is possible after turning thepower OFF and then ON again. If this error occursseveral times, contact IAI.

FF CPU fault error This indicates a fatal error occurred in the main CPUprocessing. In this case, the controller will stopworking. You must perform homing after turning thepower OFF and then ON. This alarm will occur if toomany digits were used in a floating point calculation.Make sure that calculations using a real variable willproduce a value within ±3.4x

13. Error Codes

Intelligent Actuator Inc.2690 W. 237th StreetTorrance, CA 90505

310-891-6015 / 310-891-0815 (Fax)www.intelligentactuator.com

Publication No. IAI-040CPublication Date April 1998

1

DSDynamic Series

• Ultra compact, coupling-free design. (Example below: DS-SA4-50)

• Multiple positioning up to 500 points.

• Multi-task Control functions (8 programs).

• Number of programs: 32.

• Can be used as a positioner without using a program.

42.5mm

0mm

0mm

• Easy to mount the main body. (Setting is possible without removing the cover)

• Optional AQ Seal minimizes long term maintenance.

Grease is unnecessary.

• Equipped with Standard stainless sheet

Dust resistant

DSMaximizes on AC Servo capabilities.

• Simple program changeover.

• High degree of repeatability (±0.02mm or 0.05mm).

• Smooth acc./dec. control without shock during stop (trapezoid • S shape).

• Speed setting per each movement.

• Maintains constant speed even during load flucturation.

• Stable during 5 extreme low speed motion.

• Receives radial load and moment load.

2

Application Examples:

Feeding Different Parts Backstop Positioning Parts TransferXY Gantry Applications

Different shaped parts aresupplied by several partsfeeders. The DS is veryeffective in multiplepositioning.

The DS is used to positiona backstop to align partsfor processing. Thissystem is quick in settingup to accommodatedifferent sized parts.

The DS can be used ingantry-type configurations tohandle potting, palletizing,screwdriving,dispensing,and other lightweightapplications.

The DS arm type can beused to transfer parts.

Part Stacking Bar Code ReaderElevator/Indexer Sorting

The DS can be used tosafely transfer fragile partsat moderate speeds.

The DS can be used toposition a variety ofdevices at constantspeeds.

The DS can be used todifferentiate parts accordingto visual signals forplacement on separateconveyors.

The DS can be used as anelevator to increment partsvertically at set distances.

(Photo)

DS

Ultra compact, low cost, AC Servo high performance actuators

3

DSDynamic Series

The DS series was developed on the basis of single axis use but a2-axis assembly unit can be used if it suits the particular useconditions. We will offer the most appropriate system for your needsso feel free to ask your sales representative aboutstructure, configuration and connections.

DS Assembly Unit

Low cost 2-axis unitYou can assemble an extremelylow cost and versatile 2-axisstructure by assembling single DSactuators.

Control with 2 controllersWith a PLC, two controllers canbe controlled using discrete I/O forpoint to point (non-coordinated)movement.

Space saving, compact designTake advantage of the DScompact size to create an ultracompact 2-axis unit.

Controller wilth 1 ControllerWith Super SEL EDS/GDS, onecontroller can control 1~8 axeswith interpolated movement.

Can upgrade the systemEven if you are currently using asingle axis, you can select andpurchase component kits thatallow you to upgrade your systemto a 2-axis unit.

Assembly PartsWe sell our own assembly partskit for a single axis unit as well as10 other types of assembly units.

DS Controller

Ultra high speed capability through the use of 32 BIT RISC.

Multi-task ControlMulti-tasking control functions (8 programs) through Realtime OS.

High speed in motion controlbased on the Super SEL programming language.

Memory update function by utilization of Flash Memory.

Easy maintenanceDetailed alarm display and simplified base structure (removable cover).

Standard functionsinclude RS232 unit and brake switch. RS232 connector is now available

in standard type.

Software improvements (WINDOWS)New variation of Super SEL Languagewith a remote update function.

4

DS-SA 5 L -200-B E-AQ

50mm~200mm

50mm~200mmR Motor Coupled (Right)

L Motor Coupled (Left)

S (Standard)

Type Size Speed Stroke (50mm increments)

6

TotalWidth58mm L Low Speed/High Thrust

M Medium Speed

H High Speed

TotalWidth40mm

A Arm Type M Medium Speed4

L Low Speed/High ThrustR Motor Coupled (Right)


S (Standard)

50mm~600mm

50mm~600mm

50mm~600mm

50mm~200mm

50mm~200mm

50mm~200mm

50mm~200mm

Controller

PC Interface

Teaching Pendant

S-C1

S-T1

S-P1-C

S-P1-M

(WINDOWS exclusive) (PC Compliance)

(DOS Compliance)

DS Series Product Lineup*

5

TotalWidth50mm

R Motor Coupled (Right)


S (Standard)M Medium Speed



S (Standard)

100mm~200mm

50mm~200mm

50mm~200mm

100mm~200mm

50mm~200mm

50mm~200mm

6

TotalWidth56mm

R Motor Coupled (Right)


S (Standard)M Medium Speed



S (Standard)

100mm~200mm

50mm~200mm

50mm~200mm

100mm~200mm

50mm~200mm

50mm~200mm

TotalWidth50mm

50mm~500mm

L Low Speed/High Thrust 50mm~500mm

50mm~500mmM Medium Speed

H High Speed5

TotalWidth40mm

50mm~300mm

L Low Speed/High Thrust 50mm~300mm

50mm~300mmM Medium Speed

H High Speed4ActuatorDS SA Slider Type

Motor Coupling Direction

* DS-A-5M/5L- S -50 is not manufactured. Actuator home is on the motor side. If you wish home to be on the side opposite of the motor, please inform your sales representative when you place your order.

DS Actuator Series Model

Arm Type (Magnetic brake is standard)

DS-A 5 M--R-200-AQ1 2 3 4 5

Slider Type (Magnetic brake is optional)

1 2 3 4 5 6

* Please inquire your IAI representative regarding strokes other than mentioned.

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2deepshgiH:H

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5

DSDynamic Series

The center of gravity exists at the halfway point of the overhang load length.

MA, MB, AND MC moments must be at or below the specification values.

The payload is defined as the value when the load is distributed uniformly onto theslide at an acceleration of 0.3 G (Slide Type) and 0.2 G (Arm Type). Be sure to keepthe payload within the actuator specifications. If the payload is off-center, the Momentand the Overhang Load Length must also be considered.

Payload

The thrust must be below the rated thrust specification. The moment must also betaken into consideration when dealing with thrust.

Rated Thrust

Moment

Overhang Load Length

This is positioning repeatability. There are two levels of repeatability in the DS Series.There are two types: ±0.05mm and ±0.02mm. Repeatability is not the same asabsolute accuracy.

Repeatability

DS Actuator Specification Notes

Stroke The DS is available in 50mm increments up to the maximum stroke length.

VelocityThe velocity can be set in1mm/sec increments. Different velocities can be set foreach position. Velocities must be set within specifications. The acceleration/decel-eration can also be set separately for each position.

MA MB MC

MAMB MC

L

L

Slider Type

Arm Type

6

DS-SA• Positioning is achieved by the slide which

travels along the stroke length.

• Driven by an AC servo motor andballscrew for multiple positioning with ahigh degree of repeatability (±0.02mm or±0.05mm).

• Can also be used as a vertical axis (brake option available).

• A stainless steel sheet prevents dust fromentering the actuator. Rigidity ismaintained because the guidemechanism is integrated into the base.

• The DS actuator comes in 3 types, a58mm width and a 40mm width. All arecompact, providing flexibility in systemlayout. • SA4 (Total width: 40mm) • SA5 (Total width: 50mm) • SA6 (Toral width: 58mm)

Slider Type

DS Slider TypePhoto

Slider

Stainless sheet

Aluminum cover

Steel Ball

Base (guide)

Ballscrew

7

DSDynamic Series

SA4M (Medium speed type)

SA4L (Low speed high thrust type)

MA, MC momentStandard position for offset

SA4H (High speed type)

DS-SA4

31.2

ekortS mm05 m001 mm051 mm002 mm052 mm003

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8

DSA4 Standard Dimensional drawing (SA4H, SA4M, SA4L)

DSA4 with brake Dimensional drawing (SA4H, SA4M, SA4L)

5.1

14.5

13.3

383.

5

1.5

31.5

13.344 13

46.553

.5

41.5

40

13.5

13.3

DS Aluminum base SA4

L: Brake cableMounting direction (Left side)

E: Brake cableMounting direction (End side)

R: Brake cableMounting direction (Right side)

21

70

2-φ3H10 depth 6

11.5

φ6.5 counterbore depth 3.5 (for mounting)4- 3.6

28

4-M3 depth 7p

92.5B

200

Bottom

PDX100C

46.5

A

0.5

53.5

50

F-φφ3H10 depth bottom by 5p y

80.5

L

E-M3 depth 5 (for mounting)

A

13 Stroke 70

40

40

A-Area Detail (2:1)

1

ekortS 05 001 051 002 052 003

L 5.242 5.292 5.243 5.293 5.244 5.294

A 641 691 642 692 643 693

B 221 271 222 272 223 273

C 27 22 27 22 27 22

D 0 1 1 2 2 3

E 2 4 4 6 6 8

F 1 2 2 2 2 2

9

DSDynamic Series





DS-SA5

39

ekortS mm05 m001 mm051 mm002 mm052 mm003 mm053 mm004 mm054 mm005

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10

SA5 Standard Dimensional drawing (SA5H, SA5M, SA5L)

SA5 with brake Dimensional drawing (SA5H, SA5M, SA5L)

5

.1

3.3

0

0

2

6.5

.5

3.3 1.5

: Brake cableounting direction (left side)

: Brake cableounting direction (End side)

: Brake cableounting direction (Right side)

S aluminum base SA5

ekortS 05 001 051 002 052 003 053 004 054 005

L 5.742 5.792 5.743 5.793 5.744 5.794 5.745 5.795 5.746 5.796

A 271 222 272 223 273 224 274 225 275 226

B 241 291 242 292 243 293 244 294 245 295

C 29 24 29 24 29 24 29 24 29 24

D 0 1 1 2 2 3 3 4 4 5

E 2 4 4 6 6 8 8 01 01 21

F 1 2 2 2 2 2 2 2 2 2

30

4-φ4.5 thru φ8 counter depth 4.526 266

6

15.5115.5

2-φ4H10 depth 94-M4 depth 9dep

75.5

L

A

Stroke 94

60.5

150

40

C DX100 P

F-φ4H10 depth 5

50

11

DSDynamic Series


DS-SA6




40

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12

SA6 Standard Dimensional drawing (SA6H, SA6M, SA6L)

SA6 with brake Dimensional drawing (SA6H, SA6M, SASL)

0

1.5

7

3

8

5

.1

3.3

: Brake cableounting direction (Left side)

: Brake cableounting direction (End side)

S aluminum base SA6

: Brake cableounting direction (Right side)

ekortS 05 001 051 002 052 003 053 004 054 005 055 006

L 5.882 5.833 5.883 5.834 5.884 5.835 5.885 5.836 5.886 5.837 5.887 5.838

A 891 842 892 843 893 844 894 845 895 846 896 847

B 18 13 18 13 18 13 18 13 18 13 18 13

C 18 131 181 132 182 133 183 134 184 135 185 136

D 6 8 8 01 01 21 21 41 41 61 61 81

E 1 2 2 3 3 4 4 5 5 6 6 7

φ

3-φ4H10 depth 5

13

DSDynamic Series

• The DS-A is used to position parts andtools via an arm which extends out fromthe actuator body.

• Driven by an AC servo motor andballscrew for multiple positioning witha high degree of repeatability(± 0.02mm).

• A magnetic brake is standard andinstalled to prevent the arm fromdropping in the event of a power loss.The arm type can be used verticallyas well as horizontally.

• Can be used horizontally by extendingthe arm.

• The DS actuator is available in thefollowing 3 types:

• A4 (total width 40mm)• A5 (total width 50mm)• A6 (total width 56mm)

With its compact size, theDS actuator provides flexibilityin system layout.

Arm TypeDS-A

Aluminum cover

Arm slider(guide)

Aluminum baseBallscrew

Steel ball

14

A4M (Medium speed)

DS-A4

A4L (Low speed high thrust)

When using horizontally, apply the load in thedirection of the thrust as shown in the drawing at left.

MA moment is measured at the point where A=16mm from the end of theactuator. Please use within the following range: P x B < 2.7N·m(0.28kgf·m).

Thrust

MA

N (kgf)P

B (m)A

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15

DSDynamic Series

105

60

99

22

D

30 46

38

BXC90(for mounting)

L

5

4-M4 depth 5

2040 33

Stroke

35 A

2.2

Cross section of base mounting hole

52

373

1.5

10

59

52

46

9

D

L

BXC

229

30

105

60

38

90

Home

10

35 A

Stroke

5

33 20

4-M4 depth 5

40

1.537

3

E-3.6 drill 6.5 counterboredepth 3.3 (for mounting)

52

105

61.5

S Type Dimensional drawing (A4M, A4L)

R(L) Type Dimensional drawing (A4M, A4L)

ekortS 05 001 051 002

L 552 503 553 504

A 441 491 442 492

CXB 91X1 05X1 05X2 05X2

D 53 45 45 401

E 4 4 6 6

ekortS 05 001 051 002

L 552 503 553 504

A 441 491 442 492

CXB 91X1 05X1 05X2 05X2

D 53 45 45 401

E 4 4 6 6

16

A5L (Low speed high thrust)

MA moment is measured at the point where A=20mm from the end of theactuator. Please use within the following range:P x B < 4.5N·m (0.46kgf·m).

When using horizontally, apply the load in the direction of the thrust asshown in the drawing at left.

*50mm stroke does not apply to motor coupled S (standard) type, only the L, R types.

Thrust

MA

N (kgf)P

B (m)A

A5M (Medium speed)

DS-A5

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17

DSDynamic Series

7926

L

60

30

BXC D

11

46A

4.5

3.5

5 50

110

4252

38

449

26

53

Cross section of base mounting hole

4-M4 depth 5

Stroke

E-4.5 drill, 8 counterbore depth 4.5 (for mounting)

f


R(L) Type Dimensional drawing (A5M, A5L)

*In a 50mm stroke, there is only the L, R types.

ekortS 05* 001 051 002

L 082 033 083 034

A 691 642 692 643

CxB 03x1 05x1 05x2 05x2

D 65 68 68 631

E 4 4 6 6

52

46

9

D

L

BXC

229

30

105

60

38

90

10

35 A

5

33 2040

1.537

3

1052

105

61.5

4-M4 depth 5

Stroke

Home

E-3.6 drill 6.5 counterbore depth 3.3 (for mounting)

ekortS 001 051 002L 033 083 034A 642 692 643CxB 05x1 05x2 05x2D 68 68 631E 4 6 6

18

A6M (Medium speed)

DS-A6

A6L (Large speed)

MA moment is measured at the point where A=20mm from the end of theactuator. Please use within the following range:P x B < 8.1 N·m (0.8kgf·m).

When using horizontally, apply the load in the direction of the thrust asshown in the drawing at left.

Thrust

MA

N (kgf)P

B (m)A



yticoleV ces/mm004





wercsllaB mm1.0rednuhsalkcaB01CdaerhtdelloRmm21daeLmm01ø







yticoleV ces/mm002





wercsllaB mm1.0rednuhsalkcaB01CdaerhtdelloRmm6daeLmm01ø





19

DSDynamic Series

3.3ME SE

(in case with lubricant seal: 3) Stroke

Home ME3

56

1313

49 31

5 10 4-M4 depth 6 E-φ6, φ9, 5 counterbore depth 7

130 BXCP DL

46

107

A3857

53.5

3.5

14.5

70 (Work mounting range)

50

75.5φ9.5

φ6

47

Base mounting hole Cross section

30


φ9.5

φ6

74

57

14.5

53.5

3.5

38 A 4670 (work mounting range)

LDBXCP130

SEHome33.3

ME SE(In case with lubricant seal: 3)

Stroke

56 49 31

5 10 4-M4 depth 6E-φ6, φ9, 5depth counterbore 7

51

75.5

7928

Base mounting holecross section

1313

30

R(L) Type Dimensional Drawing (A6M, A6L)

*In a 50mm stroke, there is only the L, R types.

ekortS 05* 001 051 002

L _ 053 004 054

A _ 662 613 663

CXB P _ 05X1 05X2 05X2

D _ 68 68 631

E _ 4 6 6

ekortS 05* 001 051 002

L 003 053 004 054

A 612 662 613 663

CXB P 03X1 05X1 05X2 05X2

D 65 68 68 631

E 4 4 6 6

20

DS-UnitDS Assembly Unit

• You can construct an extremely low costand versatile 2-axis structure by

assembling single DS actuators.

• With a PLC, two controllers can becontrolled using discrete I/O for point topoint (non-coordinated) movement.

• We sell assembly parts kits for 10 typesof assembly units.

DS Assembly Unit

XY Unit

XY Table

DS- X-1 -400DS- XY-1 -300- 100DS- XY-T2 -600- 200

Machine Name (X-1~4)

Machine Name (XY-1~4)

Machine Name (XY-T~T2)

X-axis stroke

Y-axis stroke

X-axis stroke Y-axis stroke

Y-axis stroke

Model Type

Single Axis Unit

21

DSDynamic Series

DS-SA5-50~400

Single Axis Unit

X-1

X-2

X-3

X-4

XY Table

XY-T

XY-T2

Single Axis Unit

XY-1

XY-2

XY-3

XY-4

DS-SA5-50~400

DS-SA6-50~600

DS-SA6-50~600

DS Aluminum Base Assembly Unit Product Structure

X: Axis DS-SA5-50~400Y: Axis DS-SA4-50~100






22

ekortSrotautcA 05 001 051 002 052 003 053 004

H5AS-SD 3 3 3 3 3 3 2 2

M5AS-SD 7 7 7 7 7 7 6 6

L5AS-SD 7 7 7 7 7 7 6 6

Slider Payload Guidelines (kg)

Note: Values are when acceleration is set at 0.3G (0.2G for S5L).Conditions will differ when the load from the slider has a large offset.

Kit Components

Cable track 1 setCable track rail 1 setSlide bracket 1Cable track bracket 1

*Nuts, bolts for mounting are included (bolts for mounting cable track rail are not included).

X-1 Mechanical Drawings

DS Single Unit

X-1

ekortS 05 001 051 002 052 003 053 004

A 5.742 5.792 5.743 5.793 5.744 5.794 5.745 5.795

B 812 812 813 813 814 814 815 815

C 241 241 242 242 243 243 244 244

30

17 13

1030

19

6-φ6, M5 counter sink

50 75.5

13 62.5

13 12.5

B

106.5

60.5149429 Stroke

A(75)

28 78.5

20

C

52

Stroke50, 150, 250, 350

DS-SA5* ***

102

102

508

15

23

DSDynamic Series


Note:Values are when acceleration is set at 0.3G (0.2G for S5L).Conditions will differ when the load from the slider has alarge offset.

Kit Components

Cable track 1 setSlide bracket 1Cable track bracket 1Mounting base 1 set


X-2

*Nuts, bolts for mounting are included.

DS Single Unit

20 20 Stroke+72 65.5

29

40 40

50

Stroke 94 60.5

Stroke+197.5

1041

8

5158

109

2-φ7

52

DS-SA5*-***

138

5

115

2

14

5110

5.3

156.

3

ekortSrotautcA 05 001 051 002 052 003 053 004

H5AS-SD 2 2 2 2 2 2 5.1 5.1

M5AS-SD 6 6 6 6 6 6 5 5

L5AS-SD 6 6 6 6 6 6 5 5

24


Note: Values are when acceleration is set at 0.3G (0.2G for SA6L).Conditions will differ when the load from the slider has a large offset.

Kit Components

Cable track 1 setCable track rail 1 setSlide bracket 1Cable track bracket 1

*Nuts, bolts for mounting are included


X-3

DS Single Unit

ekortSrotautcA 05 001 051 002 052 003 053 004 054 005 055 006

H6AS-SD 5 5 5 5 5 5 5 5 5 5 5 5

M6AS-SD 11 11 11 11 11 11 11 11 11 11 11 11

L6AS-SD 11 11 11 11 11 11 11 11 11 11 11 11

ekortS 05 001 051 002 052 003 053 004 054 005 055 006

A 5.882 5.833 5.883 5.834 5.884 5.835 5.885 5.836 5.886 5.837 5.887 5.838

B 752 752 753 753 754 754 755 755 756 756 757 757

C 181 181 182 182 183 183 184 184 185 185 186 186

23.5 C 50 84

13 71

13 21

B

70

75.5

110.5

(Cable track fixed end Mounting location)

D-Area Details

30 80.519

20

11529 Stroke

(55) A

10.5 13

D

10

15

1053

102

3018

58

110

6-φ6, M5 counter sink

DS-SA6*-***

Stroke50, 150, 250350, 450, 550

Stroke50, 150250, 350450, 550

Stroke100, 200300, 400500, 600

Track rail

Motor side

25

DSDynamic Series


Note:Values are when acceleration is set at 0.3G (0.2G for SA6L).Conditions will differ when the load from the slider has alarge offset.


X-4

*Nuts, bolts for mounting are included.

* As for the DS Large Type unit, longer stroke will cause influences on deflection and torque, if the base has just two fixed areas. To prevent this, you will need to fixtuate the mid-portion of the stroke, and therefore, the quantity of the mounting base will change.

DS Single Unit

Kit Components

Cable track 1 setSlide bracket 1Cable track bracket 2Mounting base See table below*`

4-XmmekortS

05 001 051 002 052 003 053 004 054 005 055 006

ytitnauQ 2 2 2 3 3 3 3 3 4 4 4 4

20 Stroke +111 20 7413.5

29 Stroke 115 94.5

70

4040

Stroke+238.5

10

5163

114

4153

10

139

58

3 1

113

26

109.

351

14

160.

3

2-φ7

DS-SA6*-***

Setting according to stroke

ekortSrotautcA 05 001 051 002 052 003 053 004 054 005 055 006

H6AS-SD 4 4 4 4 4 4 4 4 4 4 4 4

M6AS-SD 01 01 01 01 01 01 01 01 01 01 01 01

L6AS-SD 01 01 01 01 01 01 01 01 01 01 01 01

26

Y Axis Slider Payload Guidelines (kg)

XY-1 Mechanical Drawing

DS XY Unit

XY-1

X-stroke +76

74.5

Y-stroke+192.5

29 Y-stroke 70 93.5

3 120 3

94X-stroke

(75) X-stroke+197.5

3015 X-stroke+62 30 60.5

121.5

52

2-φ3H10 depth 6

X-stroke50, 150, 250, 350

4-M3 depth 7

DS-SA4 *-***

DS-SA5*-***

100

Y-s

tro

ke+

105

8

50

30

24Kit Components

Cable track 1 set Track rail 1 set

Slide base 1 Track rail 1

Mounting frame (nuts for actuator mounting plate included) 1set

* Nuts, bolts for mounting are included

Note:Values are when acceleration is

set at 0.3G. Conditions will differ when the load from the slider has a large offset.

rotautcAsixAY H4AS-SD M4AS-SD L4AS-SD

)mm(ekortSsixAY 05 001 05 001 05 001

XsixA

004~05-H5AS-SD 0.2 0.2 0.2 0.2 0.2 0.2

004~05-M5AS-SD 5.2 5.2 0.3 0.3 0.3 0.3

004~05-L5AS-SD 5.2 5.2 0.3 0.3 0.3 0.3

27

DSDynamic Series

Note:Values are when acceleration is

set at 0.3G. Conditions will differ when the load from the Z axis

slider has a large offset.

Y Slider Payload Guidelines (kg)

XY-2 Mechanical Drawings

DS XY Unit

XY-2

51 59.5

52

X-stroke+47

X-stroke+197.5

X-stroke

X-stroke+62

2-φ3H10 depth 6

4-M3 depth 7

X-stroke50, 150, 250, 350

DS-SA5*-***

DS-SA4*-***

Y-s

tro

ke+

106

729

Y-s

tro

ke

(40)

2924

Y-stroke+105 87.5

1203 315 30 30 60.5

51

2080

.5

3010

0.5

Kit Components

Cable track 1 set Track rail 1 set

Slide base 1 Track rail 1

Mounting frame (nuts for actuator mounting plate included) 1 set



)mm(ekortSsixAY 05 001 05 001 05 001

XsixA

004~05-H5AS-SD 0.2 0.2 0.2 0.2 0.2 0.2

004~05-M5AS-SD 0.2 0.2 5.2 5.2 5.2 5.2

004~05-L5AS-SD 0.2 0.2 5.2 5.2 5.2 5.2

28

Note:Values are when acceleration is setat 0.3G. Conditions will differ whenthe load from the Y axis slider has alarge offset.

XY-3 Mechanical Drawing

XY-3

A152

Y-stroke+197.5

29 Y-stroke 94 74 5

120 3

(55)

29 X-stroke 115 94.5

8.5 69

B

26

98

30

X-stroke+86.5

X-stroke+238.5

X-stroke+101

2-φ4H10 depth 9

4-M4 depth 9

X-stroke50, 150, 250350, 450, 550

X-stroke50, 150, 250350, 450, 550

X-stroke100, 200, 300400, 500, 600

DS-SA5*-***

Y-s

tro

ke+

130


A-Area Details

Cable rail

Motor side

50

30

DS XY Unit




Kit Components

Cable track 1 setCable track rail 1 set

Cable track bracket 1Mounting frame See table below*

Slide base 1 set


)mm(ekortSsixAY 05 001 051 05 001 051 05 001 051

XsixA

H6AS-SD 0.3 0.3 5.2 0.3 0.3 5.2 0.3 0.3 5.2

M6AS-SD 5.3 5.3 5.3 0.5 0.5 0.5 0.5 0.5 0.5

L6AS-SD 5.3 5.3 5.3 0.5 0.5 0.5 0.5 0.5 0.5

3-YXmmekortS

05 001 051 002 052 003 053 004 054 005 055 006

ytitnauQ 2 2 2 3 3 3 3 3 4 4 4 4

29

DSDynamic Series


XY-4 Mechanical Drawings

DS XY Unit

XY-4

Note:Values are when acceleration is setat 0.3G. Conditions will differ whenthe load from the Y axis slider hasa large offset.


Kit Components

Cable track 1 setCable track rail 1 setCable track bracket 1Mounting frame See table below*

Slide base 1Mid-Plate 1


4-YXmmekortS

05 001 051 002 052 003 053 004 054 005 055 006

ytitnauQ 2 2 2 3 3 3 3 3 4 4 4 4


)mm(ekortSsixAY 05 001 051 05 001 051 05 001 051

XsixA

H6AS-SD 0.3 0.3 5.2 0.3 0.3 5.2 0.3 0.3 5.2

M6AS-SD 0.3 0.3 0.3 5.4 5.4 5.4 5.4 5.4 5.4

L6AS-SD 0.3 0.3 0.3 5.4 5.4 5.4 5.4 5.4 5.4

A

70 50 67

58

105

Y-s

tro

ke64

26

91 117

30

X-stroke+51.5

X-stroke+238.5

X-stroke+101

2-φ4H10 depth 9

S-stroke50, 150, 250

DS-SA5*-***

Setting according to stroke

Y-s

tro

ke+

228

X-stroke50, 150, 250350, 450, 550

X-stroke100, 200, 300400, 500, 600


A-Area Details

Cable railMotor side

(55)

29 X-stroke 11

8.5 30 30 69 B

94.5

80.5

3 120

30

4-M4 depth 9

Y-stroke+130

30


XY-T Mechanical Drawing

DS XY Table

XY-T

Stroke+76 121.5

X-stroke50, 150, 250, 350

X-stroke50, 150, 250, 350

2-φ

DS-SA4*-***

DS-SA5*-***

Y-s

tro

ke+

105

99

1624

52

Stroke+197.5

Stroke+6230 30 60.515

(75)

X-stroke 94 74.5

Stroke+233

30

50

Y-stroke+192.5

Y-stroke 3.5

52

A

A-Area Detail

B

Kit Components

Cable track 1 setCable track rail 1 setCable track bracket 1Cam follower unit 1 setMounting plate 1 setSlide base 1



)mm(ekortSsixAY 05 001 051 05 001 051 05 001 051

XsixA

004~05H5AS-SD 0.2 0.2 5.1 0.2 0.2 5.1 0.2 0.2 5.1

004~05M5AS-SD 0.3 0.3 0.3 5.3 5.3 5.3 5.3 5.3 5.3

004~05~L5AS-SD 0.3 0.3 0.3 5.3 5.3 5.3 5.3 5.3 5.3

Note:Values are when acceleration is setat 0.3G. Conditions will differ whenthe load from the slider has a largeoffset.In case you wish to apply uppervertical load onto Y axis slider instandstill state, the value needsto be within a value in which theY axis slider payload is taken outof the 5kg (However, the valuemust be of uniform load above theslider).

31

DSDynamic Series

XY-T2 Mechanical Drawings

DS XY Table

XY-T2



)mm(ekortSsixAY 05 001 051 002 05 001 051 002 05 001 051 002

XsixA

H6AS-SD 0.3 0.3 5.2 5.2 0.2 0.2 5.1 5.2 0.2 0.2 5.1 5.2

M6AS-SD 0.4 0.4 0.4 0.4 5.5 5.5 5.5 5.5 5.5 5.5 5.5 5.5

L6AS-SD 0.4 0.4 0.4 0.4 5.5 5.5 5.5 5.5 5.5 5.5 5.5 5.5

Note:Values are when acceleration is setat 0.3G. Conditions will differ whenthe load from the slider has a largeoffset.In case you wish to apply uppervertical load onto Y axis slider instandstill state, the value needsto be within a value in which theY axis slider payload is taken outof the 8kg (However, the valuemust be of uniform load above theslider).

152

A

58

X-stroke50, 150, 250350, 450, 550

X-stroke50, 150, 250350, 450, 550

Y-s

tro

ke+

130

98

4-M4 depth

2-φ4H10 dep

DS-SA6*-***

DS-SA5*-***

Stroke+238.5(55)

X-stroke 94.5115

B

X-stroke+101308.5 6930

C

657

27

29

Y-stroke+197.5

Y-stroke 94 74 5

113

30

535010

Stroke100, 200300, 400,500, 600

Cable track


Motor side

Stroke50, 150,250, 350,450, 550

A-Area Details

C-Area Details

26

X stroke+86.5

Y-stroke+255


Kit Components

Cable track 1 setCable track rail 1 setCable track bracket 1Cam follower unit 1 setMounting plate 1 setSlide base 1

32

Using the DS Assembly Unit:

The DS Series was originally designed forsingle axis use but depending on theapplication, it is possible to construct a2-axis system for use. Please make noteof the following when using an assembled unit.

• Because there is one controller peraxis, the system will use point to point controlfrom a PLC or other external device.

• When the load is offset from the slider of thelast axis, the weight of the payload that canbe carried will change.

• The cable that comes with the actuator is nota bend resistant robot cable. When wiring thecables, please make sure they are not underexcessive stress. If the cables are encased ina cable track, make sure there is amplefreedom of movement for the cables.

• We have connector cables available soplease inquire about these if necessary.

Cable Hose

Kit components

Cable hose (1m/1.3m) 1Wire 1Cable hose bracket 2Cable hose connector 2Cable hose hexagon nuts 2Allen head bolts M6x20 1Hexagon nuts M6 2

Cable Hose (option)Model Type: CBH-010 (XY1, XY2, XY-T Compliance) CBH-013 (XY3, XY4, XY-T2 Compliance)This is an option for wiring treatment between XY. Mounting on themain body is done on the user side.

How to install the DS Assembly Unit:

Mounting Base (A), (C) Nut (Size M5)

Mounting method

All assembly units come with

Use a bolt to slide in and mount the nut into the T-slot of the frame.

4 spare nuts.

15

55478

45

2.3

4

2024

40

Cable hose(ø21.2Xø16.8)

ø1.6Wire

Cable hose bracket

Allen head boltM6X20

33

DSDynamic Series

DS-S-C1 DS Controller

• Multi-taskParallel processing of up to 8 programs tocontrol external devices.

• Variable calculationUsing variables, a common program canbe set for regulated movements.

• BCD or Binary I/Oallows more information to be exchanged.

• Accurate positioningis obtainable by jogging the actuator to thedesired position and reading the currentvalue.

• Easy incremental movements

• Motion cancellationis possible, even during movements.

• Ultra high speed with the use of 32 Bit RISC CPU.

• Improved Software (WINDOWS).

• Connection choice of either the position (simple function) or program mode (complex function).

• By the commands of other devices such as a PLC, the position mode is used as a positioner.

• With the commands of other devices such as a PLC, the program mode reduces the load of other devices by using the following functions:

34

3. External Dimensions

2. Type

4 46 10923 23

4

1010

139

415

1

159

R2.

5

523 23

φ5

CONTROLLER

CODEREADYALARMBAT

BRAKERELEASENORMAL

TEAING/RS232 PORT

ONOFF

PORTIAI Corporation

125

2719

8

Controller DS-S-C1 Teaching Pendant DS-S-T1

1. Specifications

noitpircseD ledoM

ydoBniaMrellortnoC 1CS-SD

tnadnePgnihcaeT)noitpO( 1T-S-SD

erawtfoSCP)ecnailpmoCCP(C-1P-S-SD

)ecnailpmoCV-SOD(M-1P-S-SD)dedulcnielbacnoitcennoC(

straperapS eroc43elbactalfrolocO/Im282GWA

metI noitpircseD

egatloVrewoP %01±V42CD

tnerruCrewoP )W84mumixaM(A1/detaRW42

ytidimuH&erutarepmeTtneibmA sselroHR%58ytidimuHC°04~0:erutarepmeT

tnemnorivnEgnitarepO tsudevissecxeon,sagevisorrocfoeerF

ecnatsiseRnoitalosI eromroM01V005

thgieWtinU g065

serutaeFytefaSmralarevirD

)kcehcerutarepmetrevirD•egatlovssecxE:tnerrucssecxerotoM(kcehctimilerawtfos,kcehCdaolrevO

rotoM W02rotoMovreSCA

snoitcnuFlortnoC rellortnoCLESrepuSlortnoCksat-itluM

yticapaCyromeM snoitisop005,spets0001:latoT

eciveDyromeM pukcaByrettaBMARSMOC

smargorpforebmuN )smargorp8fomumixam(noitcnufksat-itluM,smargorp23

)V42CD(tuptuO/tupnIdetalusni-noN

)02,01,8,4,2,1.oNGRP(8:stupnidetacideD)TRATS(1:stupnidetacideD

51:stupniresU)MRALA,ydaeR(2:stuptuodetacideD

6:stuptuoresU

dohteMtupnIataD noitacinummoC232SRrotnadnePgnihcaeT

noitacinummoC suonorhcysAdradnatS232SRAIE

snoitcnuFetadpUetomeR )ksidyppolfrokrowtenaiv(etadpuerawtfoS

Ω

35

DSDynamic Series

4. Connecting Method

MITUBISHI MITUBISHI

POWER

INPUT OUTPUT

F1 F2 F3 F4

DS TEACHING BOXTeaching Pendant(Option)

PC Software(Option)

Emergency Stop SW Box

ALARM

READY

BAT.

CODE

RELEA

NORMA

BRAKE

PORTOFF

ON

TE

RS2

IAI Corporation

CONTROLL

MPG

BK

POWER

EMG

N

24V

POWER EMG

N 24V

24V Power Over 2A

EMGSW

o 1

Controller

Servo Actuator

RS232 Cable* (5m) is included in the PC Software

5m

2m

2m

* You may not use other types of cables.

External Device

36

(1) Part Names

5. Part Names and Function

Solid wire φ0.4 (AWG 26)~ φ1.2 (AWG 16)Standard wire 0.3mm2 (AWG 22)~1.25mm2 (AWG 16)Standard diameter φ0.18 or greater

Suitable power line

Usable power line range

Standard line length

Suitable tool for button operation

Solid wire (AWG 16)Standard wire 1.25mm2 (AWG 16)

11mm

Slot screwdriver (axis diameter φ3, width of tip 2.6)

37

DSDynamic Series

Brake connector This is the connector for connecting the actuator brake.

Motor Encoder connector This is the connector for connecting the actuator motor encoder.

I/O connector This is the connector for connecting other devices such as a sequencer.

Ground terminal block This is the M3 screw for the ground connection.

Power and emergency This is the terminal for POWER N and 24V power.stop terminal block The two EMG terminals are for connecting the emergency stop switch.

(When the unit is shipped, the EMG terminal is shorted.)

POWER EMG

N 24V

CODE display This is a 3-digit display device that indicates the operating status of the controller.

LED display READY: This indicates that the controller is ready to be operated.ALARM: This is the display when there is a malfunction in the equipment.BAT. : This indicates battery voltage is low.

Brake release switch RELEASE: The brake is released.NORMAL: The brake is ON. (This is the normal setting)

The brake release switch is enabled during the servo free state indicated below:

1. From the time the power is turned ON until the homing command is given.2. When [Svof] is selected during direct teaching.3. When an alarm occurs.

PORT switch ON: The TEACHING/RS232PORT is enabled. However, when theTEACHING/RS232 PORT connector is not connected, an emergency stop occurs.

OFF: The TEACHING/RS232PORT is disengaged. However, even when the TEACHING/RS232PORT connector is not connected, the emergency stop is controlled by the external E-Stop connection.

Note: When the controller is powered up, plug in or remove the TEACHING/RS232PORT connector when the PORT switch is OFF.

Function switch BAU.R : This is the switch for changing the Baud rate.COPY : This is the switch for COPY from ROM to FLASH memory.F/R : This is the switch for changing FLASH and ROM.

Note: These switches are for software upgrade setting. At the time the unit is shipped, all switches are set to OFF. For details, please refer to the PC software.

Note: This controller does not have a power switch.

(2) Function

)))) )

TEACHING/RS232 PORT connector This is the connector for connecting the PC or teaching pendant.

. .

38

.oNniP noitceS .oNtroP noitcnuF

A1 42P tuoniV42+tnerruclanretxE

B1

tupnI

tupnI1.oNGRP

A2 tupnI2.oNGRP

B2 tupnI4.oNGRP

A3 tupnI8.oNGRP

B3 tupnI01.oNGRP

A4 tupnI02.oNGRP

B4 CN

A5 teseRUPC

B5 000 tupnItratSlanretxE

A6 100 tupnIresU

B6 200 tupnIresU

A7 300 tupnIresU

B7 400 tupnIresU

A8 500 tupnIresU

B8 600 tupnIresU

A9 700 tupnIresU

B9 800 tupnIresU

A01 900 tupnIresU

B01 010 tupnIresU

A11 110 tupnIresU

B11 210 tupnIresU

A21 310 tupnIresU

B21 410 tupnIresU

A31 510 tupnIresU

B31

tuptuO

003 tuptuOmralA

A41 103 tuptuOydaeR

B41 203 tuptuOresU

A51 303 tuptuOresU

B51 403 tuptuOresU

A61 503 tuptuOresU

B61 603 tuptuOresU

A71 703 tuptuOresU

B71 42N VOtnerruClanretxE

6. I/O Interface

•

•

• •

Dig

ital S

W

•

•

•

•

EMG SW)

•

•

•

•

•

•

•

•

•

•

•

• •

••

•

•

•

•

••

• •

I/O Connector (34 pin)

OV 24V

Terminal Block (4pin)

Program Mode

Note:

PRG = ProgramNC = No Contact

* This is a sample wiring diagram.

•

•

•

•

•

•

•

•

•

.oNniP emaNlangiS

1 N

2 V42

3 V42

4 WSGME

Standard NPN (Sinking)

39

DSDynamic Series

.oNniP noitceS .oNtroP noitcnuF

A1 42P tuoniV42+tnerruclanretxE

B1

tupnI

CN

A2 CN

B2 CN

A3 CN

B3 CN

A4 CN

B4 CN

A5 teseRUPC

B5 000 tupnItratSlanretxE

A6 100 tupnIdloH

B6 200 CN

A7 300 CN

B7 400 tupnI1.oNnoitisoP

A8 500 tupnI2.oNnoitisoP










A31 510 CN

B31

tuptuO

003 tuptuOmralA

A41 103 tuptuOydaeR

B41 203 tuptuOnoitelpmoCnoitisoP

A51 303 CN

B51 403 CN

A61 503 CN

B61 603 CN

A71 703 CN

B71 42N VOtnerruClanretxE

• •

•

•

)

•

•

•

•

•

•

• •


OV 24V

Terminal Block (4pin)

Position Mode

Note:NC = No Contact

•

•

* This is a sample wiring diagram.

EMG SW

•

•

•

•

•

•

•

•

.oNniP emaNlangiS

1 N

2 V42

3 V42

4 WSGME


40

7. Position Mode and Program Mode

External Output Circuit

External Input Circuit

Note 1: For all of the external outputs, a protective diode is connected on the inside. Note 2: Take care when connecting because if the load short circuits or the current exceeds

the maximum load current, this will cause a failure in the output circuit.

The controller has two modes of operation:

Position Mode:The DS Controller operates via the commands of external devices (example: sequencer).Once the controller completes a movement, it sends a completion signal to the external device.

Program Mode:By combining programs within the DS Controller, various tasks can be performed. By utilizingthe multi-task, it is easier to control other devices (at times, sequencer is unnecessary).

Note: When a no-contact circuit is connected to an external circuit, make sure thatthe leakage current is under 1mA when the switch is OFF or, it could cause faultyoperation.

metI noitacificepS

egatloVrewoPlanretxE %01±V42CD

tnerruCtupnI tiucric1Am7

egatloVFFO/NO V0.81CDniM....egatlovNOV0.6CDxaM....egatlovFFO

noitalusnI detalusni-noN

eciveDnoitcennoClanretxE

)Am1·V5CDtuobadaolmuminim(tnioptcatnocegatlov-oN)epytNPN(rosnesytimixorp·cirtceleotohP)epytrotcellocnepo(tuptuorotsisnarTCLP

)Am1·V5CDtuobadaolmuminim(tuptuotnioptcatnoCCLP

metI noitacificepS

egatloVdaoL V42CDroftnelaviuqE

48026DTtnerruCdaoLmumixaM )tnerruclla(kaepAm004tniop1/Am001

tnerruCegakaeL tniop1/Am1.0xaM

noitalusnI detalusni-noN

eciveDnoitcennoClanretxE yalererutainiM)epytknis(tinutupnirecneuqeS

41

DSDynamic Series

(1) Mode and Software

The controller software has two areas to enter data:

Position Data: Stores all of the position data

Application Program: Stores and creates Move commands, I/O control and Multi-task control

The controller is operated by either the Positioning Mode or Program Mode. The chart below shows the relationshipbetween the two modes:

Position Data

DS-S-C1

Positions containment area

Move command,I/O control andprogramming area(variable computing)

Application Program⇐

Program Mode

Position Data

Position Data

Application program

Positioning Mode

OR Data

Input ⇐

42

.oNniP noitceS .oNtroP noitcnuF roloCelbaC

A1 42P tuoniV42+tnerruclanretxE nworB-1

B1

tupnI

CN deR-1

A2 CN egnarO-1

B2 CN wolleY-1

A3 CN neerG-1

B3 CN eulB-1

A4 CN elpruP-1

B4 evreseR yarG-1

A5 teseRUPC etihW-1

B5 000 tupnItratSlanretxE kcalB-1

A6 100 tupnIdloH nworB-2

B6 200 CN deR-2

A7 300 CN egnarO-2

B7 400 tupnI1.oNnoitisoP wolleY-2

A8 500 tupnI2.oNnoitisoP neerG-2

B8 600 tupnI4.oNnoitisoP eulB-2

A9 700 tupnI8.oNnotisoP elpruP-2

B9 800 tupnI01.oNnotisoP yarG-2

A01 900 tupnI02.oNnoitisoP etihW-2

B01 010 tupnI04.oNnoitisoP kcalB-2

A11 110 tupnI08.oNnoitisoP nworB-3

B11 210 tupnI001.oNnoitisoP deR-3

A21 310 tupnI002.oNnoitisoP egnarO-3

B21 410 tupnI004.oNnoitisoP wolleY-3

A31 510 CN neerG-3

B31

tuptuO

003 tuptuOmralA eulB-3

A41 103 tuptuOydaeR elpruP-3

B41 203 tuptuOetelpmoCgninoitisoP yarG-3

A51 303 CN etihW-3

B51 403 CN kcalB-4

A61 503 CN nworB-4

B61 603 CN deR-4

A71 703 CN egnarO-4

B71 42N VOtnerruClanretxE wolleY-4

(1) Operation

Supply Power

DS-S-C1 READY Signal output

Input external start

External device

Start Homing

Upon completion, output complete signal

DS-S-C1

External device

Input position number

External device

Input external start

DS-S-C1

Move to position number

Upon completion, output complete signal

⇓⇓⇓⇓⇓

⇓⇓⇓⇓⇓

⇓⇓⇓⇓⇓

⇓⇓⇓⇓⇓

⇓⇓⇓⇓⇓

⇓⇓⇓⇓⇓

↓↓↓↓↓

↓↓↓↓↓

1

2

3

4

5

6

2,5

4

13,6

8. Position Mode


43

DSDynamic Series

.oNtroP snoitcnuF noitanalpxE

tupnIteseRUPC .rellortnocehtstratseR

000 tupnItratSlanretxE rotautcaeht,NOsnruttupnitnemomehtsA.noitisopdetangisedehtotsevom

100 tupnIdloH aotsetarelecedrotautcaeht,NOsnrutsihtnehW.pots

200

300CN gninoitisopehtgnirudCNotsegnahc300~200

.edom

400 tupnI1.oNnoitisoP











510 CN .edomgninoitisopgnirudCNotsegnahc510

003 tuptuOmralA/potSycnegremE nanehwropotsycnegremenagnirudNOsnrutsihT.sruccororre

103 tuptuOydaeR .ydaersirellortnocehtnehwNOsnrutsihT

203 tuptuOetelpmoCgninoitisoP .etelpmocsievomnotisopecnoNOsnrutsihT

303

703CN .edomgninoitisopgnirudCNotsegnahc703~303

(2) I/O Port~

~

10° units

101 units

102 units

004~014 are used as BCD codesto designate the position no.

The moment input port 000(external start input) turns ON, theactuator moves to the designatedposition.

Homing is performed when thereis no position number designation.

44

B

Moving Moving

A: Position 1 execution start

B: Position 2 execution start

The timing for the position number shifting is the time from after the position presently beingexecuted is completed until the next external start input (start signal) can be input.

Position 1 Position 2

T1: The time from the READY signalON to homing start input ON.

T1min = 50ms

T2: The time from the external startsignal ON to the P-End signal OFF.

T2max = 15ms

T3: The time from the P-End signal ON to when the external start signal input can be entered.

T3min = 50ms

T2

T3

T1

ReadyOutput

P-EndOutput

ExternalStart Input

PositionNo. Input

A

2. Timing for Position No. Switching

1. StartingTiming for each signal

(3) Timing of each signal

Homing Start

Note: Please do not input Position No.Input and External Start Input at thesame time.

45

DSDynamic Series

.oNniP noitceS .oNtroP noitcnuF roloCelbaC

A1 42P tupnIV42+tnerruclanretxE nworB-1

B1

tupnI

tupnI1.oNGRP deR-1

A2 tupnI2.oNGRP egnarO-1

B2 tupnI4.oNGRP wolleY-1

A3 tupnI8.oNGRP neerG-1

B3 tupnI01.oNGRP eulB-1

A4 tupnI02.oNGRP elpruP-1

B4 evreseR yarG-1

A5 tupnIteSUPC etihW-1

B5 000 tupnItratSlanretxE kcalB-1

A6 100 tupnIresU nworB-2

B6 200 tupnIresU deR-2

A7 300 tupnIresU egnarO-2

B7 400 tupnIresU wolleY-2

A8 500 tupnIresU neerG-2

B8 600 tupnIresU eulB-2

A9 700 tupnIresU elpruP-2

B9 800 tupnIresU yarG-2

A01 900 tupnIresU etihW-2

B01 010 tupnIresU kcalB-2

A11 110 tupnIresU nworB-3

B11 210 tupnIresU deR-3

A21 310 tupnIresU egnarO-3

B21 410 tupnIresU wolleY-3

A31 510 tupnIresU neerG-3

B31

tuptuO

003 tuptuOmralA eulB-3

A41 103 tuptuOydaeR elpruP-3

B41 203 tuptuOresU yarG-3

A51 303 tuptuOresU etihW-3

B51 403 tuptuOresU kcalB-4

A61 503 tuptuOresU nworB-4

B61 603 tuptuOresU deR-4

A71 703 tuptuOresU egnarO-4

B71 42N VOtnerruClanretxE wolleY-4

1. Automatic start by a parameter setting

Supply Power

DS-S-C-1 READY Signal Output

External device

Input Program No. XX

⇓⇓⇓⇓⇓

⇓⇓⇓⇓⇓

1

2

2

1

3

The program number XX (PRG No. XX) is input into the parameter’s “automatic start program no.”

Program No. XX Start

2. Start by an external device

Supply Power

⇓⇓⇓⇓⇓

Start Program No. XX


⇒⇒⇒⇒⇒

(1) Operation

9. Program Mode

3 External device

Input External start

⇓⇓⇓⇓⇓


46

T1: The time from when the READY outputturns ON until the external start signalcan be input.

T1min = 30ms

T2: The time from the program number isinput until the external start signal canbe input.

T2min = 30ms

T3: The time from the input of the externalstart signal.

T3min = 30ms

T2

T1 T3

Program No.Input

External Start Input

Program 1

↑↑↑↑↑ ↑↑↑↑↑

Actuatormovement

Decelerated to a stop Movement start

The servo actuator is decelerated to a stopby turning the hold signal ON while theactuator is moving, and starts up again byturning the hold signal OFF.

Note: Homing is executed within the program.

(2) I/O Port Chart

(3) Timing of each signal

10° units Designated BCD inputs for start program.

101 units

1. Start

2. Timing of motion using the hold signal

~

~

The moment input port 000 (external start input)turns ON, the designated program is executed.


10.oNGRP

20.oNGRP

40.oNGRP

80.oNGRP

01.oNGRP

02.oNGRP

evreseR

tupnIteseRUPC .rellortnocehtstratseR

000 tupnItratSlanretxE .detucexesimargorpdetangisedeht,NOsnruttupnitnemomehttA

100

510tupnIresU .sesoohcehsatupnisihtesunacresuehT

003 tuptuOmralA/potSycnegremE .sruccororrenanehwropotsycnegremenagnirudNOsnrutsihT

103 tuptuOydaeR .ydaersirellortnocehtnehwNOsnrutsihT

203

703tuptuOresU .sesoohcehsatroptuptuosihtesunacresuehT

47

DSDynamic Series

petS dnammoC

01 002PVOM

11 100PVOM

21 001PVOM

31 020PVOM

4. Program Structure

(1) Program Structure

The program consists of “Position Data” which registers only the coordinate values, and “Application Program” whichexecutes all movements.

Position Data

An area where all moving coordinates are registered

Application Program

The main application program

⇓⇓⇓⇓⇓ ⇓⇓⇓⇓⇓

………… …………… …

………… …………… …

………… …………… …………… …

………… …

………… …………… …

………… …

………… …………… …

………… …

Position numbers 1∼ 500 and Apllication program1∼ 32 may be used.

In step 12, position No. 100 (100.00) is executedby the move command.

⇑⇑⇑⇑⇑

It is not necessary to input the Position Data in anascending order. The order will be done in theApplication Program.

(2) Program Structure [Position Data]

Origin 100 300 400200

350 25020015050

P1 P2 P3 P4 P5

(3) Application Program

This programs commands that actually execute suchmovements as Move, Output ON, Output OFF and Timer.In addition, it registers up to 32 programs. The chart onthe right is a combination example using the Position Dataand Application Program.

[Application Program Example]

P1 → P2 → P3 → P4 → P5 → P1 (This path is repeated):

P1 P2 P3 P5P4

.oNnoitisoP ataDnoitisoP

100 00.0

001 00.001

522 XX.XXX

.oNnoitisoP ataDnoitisoP

1000 00.05

2000 00.051

3000 00.002

4000 00.052

5000 00.053

petS dnammoC noitanalpxE

1 NOVS NOovreSehtsnruT

2 EMOH gnimoHsetucexE

3 LEV 005 ces/mm005otyticolevehtsteS

4 GAT 10

5 PVOM 100 1.oNnoitisoPotsevoM





01 OTOG 10 10GATotspmuJ

48

yrogataC noitcnuF dnammoC

rotautcAlortnoCnoitangiseD

yticolevteS LEV

rotcafyticolevteS DRVO

noitareleccateS CCA

oitarnoitomSteS VRCS

tesffoteS TSFO

tropesuaperalceD DLOH

tropetelpmocpotseralceD LCNAC

sutatssixaeriuqcA TSXA

rotautcAlortnoCsdnammoC

]FFONO[ovreS XXVS

gnimoH EMOH

noitisopdetangisedotevoM PVOM

noitisopdetangisedotevoM IPVM

noitomhtaP HTAP

]FBNBFFNF[goJ XWXJ

tlahaotswolssixA POTS

tuptuO/tupnInoitarepOgalFsdnammoC

gnihcnarbgnirtsretcarahcerapmoC]ELTLEGTGENQE[ XXFI

noitucexednammoceralceDdehsilbatsenuerasnoitidnocnehw ESLE

gnidneFIeralceD FIDE

erutcurtSOD

sdnammoC

]ELTLEGTGENQE[pooL XXWD

ODmorfepacsE VAEL

ODtaepeR RETI

etelpmocODeralceD ODDE

[DS exclusive commands]

5. SEL Language CommandsyrogetaC noitcnuF dnammoC

ciremuNsnoitaluclaC

ngissA TEL

evoM NART

selbairavraelC RLC

citamhtirAsnoitaluclaC

ddA DDA

tcartbuS BUS

ylpitluM TLUM

ediviD VID

redniamererugiF DOM

lanoitcnuFsnoitaluclaC

eniS NIS

enisoC SOC

tnegnaT NAT

tnegnatcrA NTA

toorerauqS RQS

cigoLsnoitarepO

DNAcigoL DNA

ROcigoL RO

ROXEcigoL ROE

erapmoC nosirapmoC XXPC

remiT

tiawemiT WMIT

lecnactiawemiT CMIT

emiteriuqcA MTTG

galF·O/IsnoitarepO

]TNFFONO[galF·tuptuO XXTB

]FFONO[galF·tupnI XXTW

)tib51xaM(tupniyraniB NI

)stigid3xaM(tupniDCB BNI

)tib6xaM(tuptuoyraniB TUO

)stigid1xaM(tuptuoDCB BTUO

margorPlortnoC

pmuJ OTOG

tegratpmujeralceD GAT

enituorbusetucexE RSXE

enituorbustratS RSGB

enituorbusdnE RSDE

ksaTlortnoC

margorpetanimreT TIXE

margorptratS GPXE

smargorprehtopotS GPBA

noitisoPsnoitarepO

991elbairavotnoitisopngissA TEGP

991elbairavfoeulavngissA TUPP

atadtniopraelC RLCP

atadtniopypoC YPCP

sixafonoitisoptnerrucdaeR DERP

atadnoitisopmrifnoC TSTP

yticolevnoitisopngissA LEVP

noitareleccanoitisopngissA CCAP

ezisnoitisopmrifnoC ZISP

yrogetaC noitcnuF dnammoC

rotautcAlortnoCsdnammoC

evometangisedyltceriD DVOM

tnemevomlatnemercnI IDVM

49

DSDynamic Series

Sample program 3:Cycle move position number 1~number 2, and end the program.

Sample program 4:Upon homing, moves to 100mmlocation at a speed of 200mm/sec.Setting 100mm as a srandard point,while 010 and forward 011 areinputting, backward jog movementis executed at a speed of 5mm/sec.When 012 is inputted, returnsto standard point of 100mm ata speed of 200mm/sec.

10. Sample Programs

Sample program 1:Upon homing, reciprocate move position number 1 andnumber 2. Upon moving to Number 1, outputs 307.Upon move to number 2, outputs 306. After 015 isinputted into each number, begins move.

Sample program 2:Move to 50mm using 001 input, andthen, turn complete output 302 ON.

petS O/A EDOC-PO 1DNRPO 2DNRPO TSOP tnemmoC

1 EMOH gnimoH

2 LEV 002 ces/mm002gnittesdeepS

3 GAT 1

4 NOTW 510 510tupnitiaW

5 FOTB 603 FFOsi603

6 PVOM 1 1.oNnoitisopotevoM

7 NOTB 703 FFOsi703

8 NOTW 510 2.oNnoitisopotevoM

9 FOTB 703 FFOsi703


11 NOTB 603 NOsi603

21 OTOG 1 gaTotoG

-etSp O/A -OC-PO

EDDNRPO

1DNRPO

2-OPTS tnemmoC

1 EMOH gnimoH

2 GAT 3 daehapmuJ3OTOG

3 1 OTOG 1 1GATotogneht,NOsi100tropfI

4 2 OTOG 2 2GATotogneht,NOni200tropfI

5 OTOG 3 3GAToT


7 FOTB 203 303 FFO0303~203tuptuO


9 DVOM 05 mm05otevoM

01 NOTB 203 NOsi203

11 OTOG 3 3GATotoG


31 FOTB 203 303 FFO303~203tuptuO



61 NOTB 303 NOsi303

71 OTOG 3 3GATotoG

petS O/A N EDOC-PO 1DNRPO 2DNRPO TSOP tnemmoC

1 EMOH gnimoH


3 TEL 1 0 1elbairavotni0etutitsbuS

4 GAT 1 daeha1mpuJOTOG



7 DDA 1 1 1elbairavotni1ddA

8 QEPC 1 5 006 N0006galfneht,5si1elbairavfoeulavfI

9 006 OTOG 2 2GATotog,neht,NOsi006galFFI

01 OTOG 1 1GATotoG


21 TIXE dnemargorP

petS O/A N EDOC-PO 1DNRPO 2DNRPO TSOP tnemmoC

1 EMOH gnimoH

2 GAT 1





7 110N NWFJ 1 010 drawrofog,FFOsi110dnaNOsi010elihW

8 010N NWBJ 1 110 drawrofog,NOsi110dnaFFOsi010elihW

9 210N OTOG 2 2GATotogneht,FFOsi210fI

01 OTOG 1 1GATotoG

50

First, upon confirming either the trapezoid pattern or square patterns, calculations for each pattern is done accordingto the calculation method listed below.

• Movement confirmation method:

In case you wish to move the transfer speed at a set rated speed, you may determine either the trapezoidor triangle patterns, acccording to the reaching speed is large or small via setting speed.

Arrival speed (Vmax) = Distance (Smm) X Acceleration

Arrival speed (Vmax) = SmmX9,800mm/sec2 X Acceleration setting for actuator (G)

Thus, the result is listed below:

Rated speed (V) < Arrival speed (Vmax) • • • • • Trapezoid PatternRated speed (V) > Arrival speed (Vmax) • • • • • • Triangle Pattern

• Positioning time calculation method:

A. Trapezoid Pattern:

Positioning time (T) = + +

B. Triangle Pattern:

Positioning time (T) = 2 +

A. Trapezoid Pattern

B. Triangle PatternA. Trapezoid Pattern

Distance (mm) Speed (mm/sec)

Speed (mm) Acceleration (mm/sec2) Setting time (0.15sec)

Distance (mm) Acceleration (mm/sec2)

Rated speed time = Rated speed move distance = Distance (mm) Speed (mm/sec2)

Rated speed (mm/sec2) X (rated speed time [sec])2

2

Note:Acceleration speed is attained by using ACC/DEC setting value (G) X9,800mm /sec of the controller. If the ACC/DEC settingvalue of the controller is 0.3G, the calculation is as follows: 0.3X9,800mm/sec2=2,940mm/sec2 .

As for the setting time, we normally consider approximately 0.15 sec in terms of determining thecompletion of movement to the desired location.

Positioning Time Calculation Method

Technical Information

Speedmm/sec

Accelerationrange

Positioning Time

Deceleration range

Timesec

Setting time (0.15 sec)

Setting time (0.15sec)

Speedmm/sec

Acceleration. range

Rated speed range

Positioning time

Decelerationrange

Timesec

Setting time (0.15 sec)

51

DSDynamic Series

enihcaMepyT

.xaMdeepS

detaRdeepS

5mm

01mm

02mm

03mm

04mm

05mm

57mm

001mm

051mm

002mm

052mm

003mm

053mm

004mm

054mm

005mm

055mm

006mm

H6AS/H5ASmm008ces/ G3.0 80.0 21.0 61.0 02.0 32.0 62.0 23.0 73.0 54.0 25.0 85.0 56.0 17.0 77.0 38.0 29.0 80.1 92.1

M6AS/M5ASmm004ces/ G3.0 80.0 21.0 61.0 02.0 32.0 62.0 23.0 93.0 15.0 46.0 67.0 98.0 10.1 41.1 62.1 54.1 38.1 13.2

L6AS/L5ASmm002ces/ G2.0 01.0 41.0 02.0 52.0 03.0 53.0 84.0 06.0 58.0 01.1 53.1 06.1 58.1 01.2 53.2 37.2 25.3 15.4

H4ASmm566ces/ G3.0 80.0 21.0 61.0 02.0 32.0 62.0 23.0 73.0 54.0 35.0 06.0 86.0

M4ASmm033ces/ G3.0 80.0 21.0 61.0 02.0 32.0 62.0 43.0 24.0 75.0 27.0 78.0 20.1

L4ASmm561ces/ G2.0 01.0 41.0 12.0 72.0 33.0 93.0 45.0 96.0 99.0 03.1 06.1 09.1

M6A/M5Amm004ces/ G2.0 01.0 41.0 02.0 52.0 92.0 23.0 93.0 54.0 85.0 07.0

L5A/L5Amm002ces/ G2.0 01.0 41.0 02.0 52.0 03.0 53.0 84.0 06.0 58.0 01.1

M4Amm033ces/ G2.0 01.0 41.0 02.0 52.0 92.0 23.0 04.0 74.0 26.0 77.0

L4Amm561ces/ G2.0 01.0 41.0 12.0 72.0 33.0 93.0 45.0 96.0 99.0 03.1

Rated speed time

Triangle

Trapezoid

Positioning Time Calculation Method (sec)

Transfer distance

Triangle

Trapezoid

Note: Setting time (0.15sec) is not included.

1000

900

800

700

600

500

400

300

200

100

00.1sec

Speed

0.2sec 0.3sec

SA4L, A4L

A4M

A5M, A6M

SA4M

SA5M, SA6M

SA4H

SA5H, SA6H

0.3G

0.2G

SA5L, SA6L, A5L, A6L

mm/sec

52

• SA4/SA5:Fix by using the 4 thru holes located on the upper sideof the main body, or use bolts to fix to the tap holeslocated on the bottom.

Upper side mounting holes:

Tap diameter for Bottom mounting:

• SA6:Use bolts to fix to the tap holes from the bottom of themain body (the upper side does not have any mounting holes).

Arm Type

The Arm Type has a built-in brake. Connect the actuator onto the controller andrelease the brake using the brake release switch. While the brake is released, pull theslider towards the stroke end and then, turn the power OFF. Remove the coverusing the 4 cover screws. Fix onto the mounting holes located on themachine base.

Slider Type

DS Mounting Method

Cable Treatment Method

CONTROLLER

CODEREADYALARMBAT

BRAKERELEASENORMAL

TEAING/RS232 PORT

ONOFF

PORTIAI Corporation

CONTROLLER

CODEREADYALARMBAT

BRAKERELEASENORMAL

TEAING/RS232 PORT

ONOFF

PORTIAI Corporation

App

roxi

mat

ely

over

50m

m

Note 1:The cable between the DS Actuator and controlleris equipped with built-in motor power line and encoderline. Therefore, for maintain proper bending radiusaccording to the drawings below:

Note 2:The cable is not a robot cable with high warp capability.Therefore, application method which requires for the DSactuator to move, please make sure that there’s no unneces-sary impact on the cable treatment (see diagram below).

CorrectWrong

CorrectWrong

Over R30

4AS-SD 3M

5AS-SD 4M

4AS-SD 5htpeD3M

5AS-SD 7htpeD4M

6AS-SD 9htpeD5M

4AS-SD 3M

5AS-SD 4M

6AS-SD 5M

24 V

0 V

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