E5CK Users Manual - OmronIII How This Manual is Organized Purpose Title Description Learning about the gener-al features of the E5CK-T ˘

USERS MANUAL

Digital Controller(Programmable Type)

E5CK

Cat. No. H090-E1-01B

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PRECAUTIONS IN USING THE PRODUCT1 !

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About this manual

(1) All rights reserved. No part of this publication may be reproduced, stored in a retrieval system or transmitted,in any form, or by any means, mechanical, electronic, photocopying, recording, or otherwise, without the priorwritten permission of OMRON.

(2) Moreover, because OMRON is constantly striving to improve its high-quality products, the information in thismanual is subject to change without notice.

(3) Every precaution has been taken in the preparation of this manual. Nevertheless, if you find any errors or omis-sions, please contact the branch of OMRON or sales office listed at the end of this manual, and inform themof the catalog No. on the front cover.

Preface

II

Meanings of Abbreviations !

Symbol Term

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&'( &"

( (

) 63

62 - !.

63 !! 7 !8)9

:!8;;3#$9!2)";;2#$

How to Read Display Symbols

A B C D E F G H I J K L M

N O P Q R S T U V W X Y Z

“Reference” mark"!!

Conventions Used in This Manual

III

How This Manual is Organized

Purpose Title Description

Learning about the gener-al features of the E5CK-T

<2<<-*=>?)->*

! !

Setting up <3<<.=.(=(->*

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Basic E5CK-T operations <4<<'(->.=(->*<<<.(=(%=

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Applied E5CK-T opera-tions

<+<<(..&-? >.=(->*<<<.(=(%=

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Communications with ahost computer

</<<)-*A 7>%%)*-(->*:)*->*

!

Calibration <B<<(&-'=(->*

Troubleshooting <C<<=>)'&7>>-*A

IV

PRECAUTIONS ON SAFETY

Marks For Ensuring Safe Use and Their Meanings

"

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WARNING Incorrect handling may cause death or injury.

WARNING

Do not touch the terminals while the power isON. This may cause an electric shock.

V

NOTICE

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Preface I. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Conventions Used in This Manual II. . . . . . . . . . . . . . . Precautions on Safety IV. . . . . . . . . . . . . . . . . . . . . . . . .

CHAPTER 1 INTRODUCTION 1–1. . . . . . . . . . . . . . . . . . . . . . . . . . . This chapter introduces the names of parts on the E5CK-T and their functions. For details on how to use the controller and parameter settings, see Chapter 2onwards.

1.1 Names of parts 1–2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1.2 Input and Output 1–5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

1.3 Program 1–7. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1.4 Parameters and Menus 1–8. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

1.5 About the Communications Function 1–11. . . . . . . . . . . . . . . . . . . . . . .

1.6 About Calibration 1–12. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

CHAPTER 2 PREPARATIONS 2–1. . . . . . . . . . . . . . . . . . . . . . . . . . . This chapter describes the operations (e.g. setup, installation and wiring) youshould carry out before turning the E5CK-T ON.

2.1 Setup 2–2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2.2 Installation 2–4. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

2.3 Wiring Terminals 2–6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

CHAPTER 3 BASIC OPERATION 3–1. . . . . . . . . . . . . . . . . . . . . . . . This chapter describes actual examples for understanding the basic operation ofthe E5CK-T.

3.1 Convention Used in this Chapter 3–2. . . . . . . . . . . . . . . . . . . . . . . . . . .

3.2 Setting Input Specifications 3–4. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

3.3 Setting Output Specifications 3–7. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3.4 Setting Alarm Type 3–9. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

3.5 Setting Patterns 3–13. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3.6 Protect Mode 3–18. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

3.7 Starting and Stopping Operation 3–20. . . . . . . . . . . . . . . . . . . . . . . . . . . 3.8 Adjusting Control Operation 3–21. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

CHAPTER 4 APPLIED OPERATION 4–1. . . . . . . . . . . . . . . . . . . . . . This chapter describes each of the parameters required for making full use of thefeatures of the E5CK-T.Read this chapter while referring to the parameter descriptions in chapter 5.

4.1 Selecting the Control Method 4–2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

4.2 Operating Condition Restrictions 4–5. . . . . . . . . . . . . . . . . . . . . . . . . . . 4.3 Ramp Rise Rate Setup Program 4–7. . . . . . . . . . . . . . . . . . . . . . . . . . .

4.4 Program Operation 4–10. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Table of Contents

4.5 Program output 4–13. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

4.6 Setting Running Conditions 4–15. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

4.7 How to Use Event Input 4–17. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

4.8 LBA 4–19. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

4.9 How to Use Transfer Output 4–21. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

CHAPTER 5 PARAMETERS 5–1. . . . . . . . . . . . . . . . . . . . . . . . . . . . . This chapter describes the parameters of the E5CK-T.Use this chapter as a reference guide.

Conventions Used in this Chapter 5–2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Protect Mode 5–3. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Manual Mode 5–5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Level 0 Mode 5–6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Program Mode 5–11. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Level 1 Mode 5–17. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Level 2 Mode 5–22. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Setup Mode 5–28. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Expansion Mode 5–36. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Option Mode 5–44. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

Calibration Mode 5–48. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

CHAPTER 6 USING THE COMMUNICATIONS FUNCTION 6–1. . This chapter mainly describes communications with a host computer and com-munications commands.

6.1 Outline of the Communications Function 6–2. . . . . . . . . . . . . . . . . . . .

6.2 Preparing for Communications 6–3. . . . . . . . . . . . . . . . . . . . . . . . . . . .

6.3 Command Structure 6–5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

6.4 Commands and Responses 6–7. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

6.5 How to Read Communications Error Information 6–15. . . . . . . . . . . . .

6.6 Program Example 6–17. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

CHAPTER 7 CALIBRATION 7–1. . . . . . . . . . . . . . . . . . . . . . . . . . . . . This chapter describes procedures for each calibration operation.Read this chapter only when the controller must be calibrated.

7.1 Parameter Structure 7–2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

7.2 Calibrating Thermocouples 7–4. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

7.3 Calibrating Platinum Resistance Thermometers 7–7. . . . . . . . . . . . .

7.4 Calibrating Current Input 7–9. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

7.5 Calibrating Voltage Input 7–10. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

7.6 Checking Indication Accuracy 7–12. . . . . . . . . . . . . . . . . . . . . . . . . . . . .

CHAPTER 8 TROUBLESHOOTING 8–1. . . . . . . . . . . . . . . . . . . . . . This chapter describes how to find out and remedy the cause if the E5CK-Tdoes not function properly.Remedy E5CK-T trouble in the order of the descriptions in this chapter

8.1 Initial Checks 8–2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

8.2 How to Use the Error Display 8–3. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

8.3 How to Use the Error Output 8–5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

8.4 Checking Operation Restrictions 8–6. . . . . . . . . . . . . . . . . . . . . . . . . . .

APPENDIXSPECIFICATIONS A–2. . . . . . . . . . . . . . . . . . . . . . . . CONTROL BLOCK DIAGRAM A–5. . . . . . . . . . . . . . SETTING LIST A–6. . . . . . . . . . . . . . . . . . . . . . . . . . . MODEL LIST A–10. . . . . . . . . . . . . . . . . . . . . . . . . . . . . PARAMETER OPERATIONS LIST A–11. . . . . . . . . . ASCII CODE LIST A–13. . . . . . . . . . . . . . . . . . . . . . . .

INDEXREVISION HISTORY

CHAPTER 1 INTRODUCTION

1–1

CHAPTER 1INTRODUCTION

: !

3

CHAPTER1

22 * 23

% 23

: 23

( 24

7" 2+

23 -> 2

- 2

> 2/

24 . 2B

2+ .% 2C

. 2C

2H

22;

: 22;

2 (: 222

2/ ( 223


1–2

1.1 Names of parts

Main parts

P 2-6

P 2-3

P 2-2

Input type jumperconnector

Terminals

Rear case

Output unit

Front panel

Front panel

OUT1OUT2SUB1MANURSTRMTAT

Operation indica-tors

Run/Reset key

Display key Down key Up key

No.2 display

No.1 display

RUN/RST

1.1 Names of parts

1–3

About the displays

?

?!

E• >)2

& 829

>*

E• >)3

& 839

>*

E• )'2

& 829

>*

E• %(*)

&

E• =

&

E• =%

&

E• (

:

No.1 display

No.2 display

Operation statusindicators


1–4

"

!"

!"

" -

"!-

"!-"

!8"9 "

: !

22;

"

*3! "

*3

: !! RUN/RST "

"!":!

22;(!4+ "

How to use keys

keyRUN/RST

key

key

1.2 Input and Output

1–5

1.2 Input and Output

Alarm 2

Temperatureinput

Voltage input

Current input

Event input

ControllerControl output(heat)

Control output(cool)

Alarm 1

Alarm 3

LBA

Error 1

Error 2

Control output 1

Control output 2

Auxiliary output 1

Transfer output 1

Input typejumper

LBA

Error 1

Error 2

Error 2

!!5 !

Temperature input/Voltage input/Current inputE• >!

- !

E•

!I!!!&!)!*!=!!'!1!.&--

.I.2;;!.2;;

E•

+3;(!;3;(

E•

25?!;5?!;2;5?

(#4J'$ K

=F=!(F%!7F7!( !.

Input

Event input


1–6

>*

2

3

(2

1 23!#$

*

1 !#4(:$

E• J

#$!#$!(24!&'(!

23!. ! >!

2#$!3#(F? $

E• ( 2!3

2

E• >#$!#$!24&'(

23>24!&'(!

23 2

- !8#$9

929!929 939!

939 929( !

2!3

2

E• 1 ! 9

#$9929939

E• (J

..!. !7 !

E•

!

Output

Output assign-ments

Transfer output

1.3 Program

1–7

1.3 Program

J

#;4$ 2/

Pattern 3

Pattern 1

Pattern 0

Step 0 Step 1 Step 2 Step 15

E• A!89 '

!

7 !89'

!!"

E• A!

E• -!

#=$ ;+#=$

E• ? !"#( $

#7$

E• (

E• !

E• >*F>::

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How programsare structured

Program opera-tion

Step operation

Alarm output

Program output


1–8

1.4 Parameters and Menus

.

%

& ;

.

& 2

& 3

>

#

$"

!

-!

-!

!

# $K# $

!*!! !

-!

! ! !

!!

@ -!

(# $!!.-?

@ -!

!

!"#&'($!

-!

"

! ! F

Parameter types

Protect mode

Manual mode

Level 0 mode

Program mode

Level 1 mode

Level 2 mode

Setup mode

1.4 Parameters and Menus

1–9

-!

. ! .-?>*F>::

! !F

!!

K

-!

!

1 !1!

#4:$

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

Level 0 mode

Program mode

Level 2 mode

Setup mode

Expansion mode

Option mode

Calibration mode

Power ON

Level 1 mode

Manual mode

Protect mode

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

+

+

+

+

+

RUN/RST

RUN/RST

RUN/RST

E• #

$! "2

1 !

:! ;!

*3 L M

E• !

"

"

E• .(!

Expansion mode

Option mode

Calibration mode

Selecting modes


1–10

E• -L M!L M!L ML M!

;! ! 2 3! !

E• -LEE MLEE MLEE MLEE M!

! ! ! !

1!!

>::1

!

E• ;

! RUN/RST " "

2

E• ! "

" ;3

;! "

"' "

E• 1! "

Parameter1

Parameter2

Parameter3

Parametern

E• - "!

E• 1 !

"!

"

E• 1!

E• 1>::!

# " $

"

Selectingparameters

Fixing settings

1.5 About the Communications Function

1–11

1.5 About the Communications Function

"-

,!

:!/

1 =343!

#4;2$

1 =+C!

#4;4$

RS-232C

RS-485


1–12

1.6 About Calibration

!

7 !!

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# !$-!

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E•

E• .

E•

E• 5

#4:$

1 !

!

1 !

!

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:!B

Calibratinginputs

Calibrating trans-fer output

Registering cal-ibration data

CHAPTER 2 PREPARATIONS

2–1

CHAPTER 2PREPARATIONS

# !

$ >*

CHAPTER2

32 33

? 33

@ 33

34

34

33 - 3+

? 3+

. 3+

% 3

34 1 3/

3/

. 3/

1 3/


2–2

2.1 Setup

@

?

#2$ ."

"

#3$ ?

Setting the input type jumperE• :@!

2J3

E• @!

I : Current input V : Voltage input

TC/PT : Temperature input

E• @J8F.#$9

E• 1@!

E• 1 @!

"

E• !"

Draw-out

2.1 Setup

2–3

Setting up the output unit

Model Specifications (control output 1/control output 2)

E53-R4R4E53-Q4R4E53-Q4HR4E53-C4R4E53-C4DR4E53-V44R4E53-Q4Q4E53-Q4HQ4H

Relay/RelayVoltage (NPN)/RelayVoltage (PNP)/Relay4 to 20 mA/Relay0 to 20 mA/Relay0 to 10 V/RelayVoltage (NPN)/Voltage (NPN)Voltage (PNP)/Voltage (PNP)

Setup#2$

#

$:

#3$ 1

!

#

$

Setting up the option unit

Unit Model Specifications

Communications unitCommunications unitInput unitCommunications unit

E53-CK01E53-CK03E53-CKBE53-CKF

Communications (RS-232C)Communications (RS-485)Event input: 1 inputTransfer output: 4 to 20 mA

Setup#2$ .

!D

#

$

#3$ 1 !

#$

Output unit list

Option unit list


2–4

2.2 Installation

Dimensions5853 13 100

44.8

48

PV

SVOUT1

OUT2 MANU STOP RMT AT SUB1

RUN

E5CK

RST

AM

Panel cutout

E• = " 2

E• %

D

D

45 +0.60

45 +0.60

Unit (mm)65 min.

60 min.

2.2 Installation

2–5

MountingAdapter

Panel

Watertight packing

#2$ -

#3$ .

!

#4$ 1

! " ,

;3H;4H*N!4+" N

((2;; #4>5;B$:

About the TerminalCover


2–6

2.3 Wiring Terminals

Terminal arrangement

5

4

3

2

1

10

9

8

7

613 14

11 12

OUT1

OUT2

SUB1

OPTION

IN

AC100-240V(AC/DC24V )

SOURCE

E•

E• 1

E• , ;BC*

#C" $

E• ) %4

7.2mm max.

7.2mm max.

- !*

E• -*+.

2;;3+;5(!;F/;7D!25(

3+5(!;F/;7D!/5(

3+5?!41

" 7 !

"#$?

E• > 4J'4J:

About the powerblocks

A C54321

109876

C

D B

11 12

13 14

Precautionswhen wiring

Wiring

Power supply

5

432

1

10

9

87

613 14

11 12

2.3 Wiring Terminals

2–7

E• */C

8

7

6

8

7

6

8

7

6

8

7

6

-

+

-

+

-

+

V mA

TC ⋅ PT V I

Thermocouple Platinum resistancethermometer

Voltage input Current input

E• @

@ #F.$:

@! 3J3

E• *22232#>)2$

,D

11

12

11

12

L

11

12

L

11

12

L

11

12

L

E53-R4R4 E53-Q4R4E53-Q4Q4

E53-Q4HR4E53-Q4HQ4H

E53-V44R4 E53-C4R4E53-C4DR4

NPN PNP 0 to 10V 4 to 20mA

+v+

-

+

-

+

-

+

-GND

mA

Relay

V

GND

+v

E• *H2;3#>)3$

,D

10

9

10

9

L

10

9

L

+v+

-

+

-GND

E53-Q4Q4 E53-Q4HQ4H

NPN PNP

E53-R4R4 /E53-V44R4E53-Q4R4 /E53-C4R4E53-Q4HR4/E53-C4DR4

Relay

GND

+v

E•

Output Type Specifications

RelayVoltage (NPN)Voltage (PNP)

250VAC, 3 A12VDC, 20 mA (with short-circuit protection)12VDC, 20 mA (with short-circuit protection)

0 to 10V

4 to 20mA

0 to 10VDC, Permissible load impedance: 1 kΩ min., Resolution: Approx. 2600

4 to 20 mA, Permissible load impedance: 500 Ω max., Resolution: Approx. 2600

Input

5

4

32

1

10

9

87613 14

11 12

Control output5

4

3

2

1

10

98

7

613 14

11 12


2–8

E• *342#)'2$

E• ,D 2

3

2

E• =

2!3;5(!2(

E• *2!242+

E•

13

14

1

13

14

1

13

14

1

13

14

1

SD

RD

SG

A

B

+

–4 to 20mA

E53-CK01

RS-232C

E53-CK03

RS-485

E53-CKB E53-CKF

Event input Transfer output

E• :=343=+C!

/!) :

E• )

Contact input ON: 1kΩmax., OFF: 100 kΩ max.

No-contact input ON: residual voltage 1.5 V max., OFF: leakage current 0.1 mAmax.

.

13

14

1

+

–

E•

+3;(?!. ;;Ω!=

(3/;;

Auxiliary output 1

54

321

109

87

613 14

11 12

Option

5

4

32

1

10

9

87

613 14

11 12

CHAPTER 3 BASIC OPERATION

3–1

CHAPTER 3BASIC OPERATION

CHAPTER3

42 ) 43

43 - 4+

- 4+

4

( 4

44 > 4B

> 4B

?F 4B

4C

4+ ( 4H

( 4H

( 4H

( 42;

F 42;

4 . 424

.* 42+

* 42+

.F 42+

( 42

4/ .% 42C

42C

42C

4B > 43;

4C (@ > 432

432

% 434

( #($ 43+


3–2

3.1 Convention Used in this Chapter

!!@

:!+(>

.

Power ON

Setup

Setting input specifications

Setting output specifications

Setting alarm output

Protecting parameters

Operation

Start

Adjustment

Stop

Power OFF

Setting patterns

7 !

:!

8 98!9

8 9

8 9

: !!

# 22;$

Basic OperationFlow

3.1 Convention Used in this Chapter

3–3

E• (

E• #$!23

82!98392!

>!22

E• 2

E• 3

2;.5

E•

E•

5

4

3

2

1

10

9

8

7

613 14

11 12

OUT1

OUT2

Humidifier Control target

Temperature sensorK thermocouple

Alarm 1 (deviation upper-and

lower-limit)

E5CK–T

AC100-240V(AC/DC24V )

Step 1 Step 2 Step 3

Pattern 0

Time: hr, min

0.20 0.40 0.20

50

100

SP

Setup examples


3–4

3.2 Setting Input Specifications

Setting input specifications

Input type

Temperature input?

Temperature unit

Temperature input shift

End of setup

Decimal point

Scaling

Setup mode

Level 2 mode

N

Y

E• 1!

#$

#$*

E• 1 !8 9!8 9

89

E• *#;32$89#$

832#$9

E• 189!"

@-@

!@

E• :!

@!.FF- 42

E• : ! 42

Input type

3.2 Setting Input Specifications

3–5

Temperature inputE• 898:9

!8F:9#$8 9

8 9

E• 1!

:!

23! #$

3;233;;

E• ! 898

9# 3$

0100

Temperature

Upper limit value

Lower limit value

Input shift upper limit value

After shift

Before shift

Input shift lower limit value

Input (%FS)

E• 1 # $!

,

E• 8 9!8 989

#$

E• 8 9,

!8 9

,

89

E• +3;((

! -!8

9829

100%FS0

Readout (humidity)

Scaling upper limit value (95.0%)

Scaling lower limit value (10.0%)

Input (4 to 20 mA)

Temperature unit

Temperature input shift

Analog input


3–6

-!0"!

24

89 O8329

89 O89

89O84;9

89 O82;9

#2$ !8<< 9

": !

22;

#3$ . "

8 9

8329

#4$ . " 8<<

F:98 9

#+$ !8 39

"

#$ . " 3

3L<< M#8F9

$

#/$ . "L M#89$

8;;9

#B$ . "84;9

#C$ . "L M#89$

8;;9

#H$ . "82;98

989

Setting Example

1 second min.

1 second min.

1 second min.

3.3 Setting Output Specifications

3–7

3.3 Setting Output Specifications

Output assignmentsE•

23!23

E• =

E•

Assignment Destination

Control Output AuxiliaryOutputDestination

Output Function 1 2 1

Control output (heat)

Control output (cool)

Alarm 1

Alarm 2

Alarm 3

LBA

Time signal 1

Time signal 2

Program end

Stage output

Error 1 : Input error

Error 2 : A/D convertor error

1#$!

-!

#$ !

: !+(>F+2 %# +3$

E• :

2O#$3O(22O(3

E• > 82 9!8

3 9!82 9

#$

E• 8?9#$

( !8 9

:! #.5$#$!

#.$#$! !

.5.

( !8 9

! !89

E• ?F 8F 9

#$8F 9

# $

Standard type

Direct/reverseoperation


3–8

E• 8#$9#

2$8#$983;3;

98#$9

#8#$9$

( -

!0"

-!

82 9 O8#$9

82 9 O839

8F 9 O8 9

89 O83;9

#2$ !8EEE 9

": !

22;

#3$ . "

8 9

#4$ . "L M#82 9

$?L M

#+$ ( ! "

L M #8 2

9$?L M

#$ ( ! "

L M #8F 9 $

?L M

#/$ ( !

"8 29:

! 2B

#B$ . " 2

28EEEE .9

#C$ . "LEEEE M#8#$9$

?83;9(

!,"

Control period

Setting Example

1 second min.

1 second min.

1 second min.

3.4 Setting Alarm Type

3–9


E• 24>!

E• (

89!8 989

E• >*89

898F9

E•

Alarm TypeAlarm Output Operation

Alarm TypeWhen X is positive When X is negative

1 Upper-and lower-limit alarm(deviation)

ONOFF

X X

SPAlways ON

2 Upper-limit alarm(deviation)

ONOFF

X

SP

ONOFF

X

SP

3 Lower-limit alarm(deviation)

ONOFF

X

SP

XONOFF

SP

4 Upper-and-lower-limit rangealarm (deviation)

ONOFF

X X

SPAlways OFF

5Upper-and-lower-limit alarmwith standby sequence(deviation)

ONOFF

X X

SPAlways OFF

6 Upper-limit alarm with stand-by sequence (deviation)

ONOFF

X

SP

ONOFF

X

SP

7 Lower-limit alarm with stand-by sequence (deviation)

ONOFF

X

SP

ONOFF

X

SP

8 Absolute-value upper-limitalarm

ONOFF

X

0

ONOFF

X

0

9 Absolute-value lower-limitalarm

ONOFF

X

0

ONOFF

X

0

10 Absolute-value upper-limitalarm with standby sequence

ONOFF

X

0

ONOFF

X

0

11 Absolute-value lower-limitalarm with standby sequence

ONOFF

X

0

ONOFF

X

0

E• (8249

# $ ? 83 ) #

$9

E• ( 8P9 (

E• ( :

!4 .9# 42+$

Alarm type

Alarm value


3–10

E• >*F>::

ON

OFF

Alarm hysteresis

Alarm value Alarm value

ON

OFF

Upper limit alarm Lower limit alarm

Alarm hysteresis

E• (82

49# 3$?8;;3;;3G:9

E• 8,9 >::

E• :!8!9

!

!>*

7 !8

,9!>*

E• ,-!

!

>>*

(

.

(

Close in alarm/open in alarmE• 18!9

18!9

Alarm Output Output LED

Close in alarmON ON Lit

Close in alarmOFF OFF Not lit

Open in alarmON OFF Lit

Open in alarmOFF ON Not lit

E• (#$F#

$

E• F8249

#$?8EE 9

Alarm hysteresis

Standbysequence


3–11

D #8,9$

Alarm type: lower limit alarm withstandby sequence

Alarm value

Alarm

Standby sequencecanceled

PV

Alarm hysteresis

Time

ON

OFF (open)output

ON (closed)

OFF

Summary ofalarm operations


3–12

( 3 3

.. 83!98

98F9

-!

839 O839

8 39 O# $

8 O8;;39

8F9 O8 9

-!0"

#2$ !8EE 9

": !

2H

#3$ . "

8 9

#4$ . "L M#839$

?839

Setting Example

1 second min.

3.5 Setting Patterns

3–13


If you want to set parameters in the program mode during controller operation, you must first stop operation.Operation may continue only in special instances, for example, to change SP during controller operation.

E•

89

#$

E• .,

8 9

Select the program mode.

Select pattern No.

Set number of steps

Step time/Rate of rise programming

Set step SP/step time

Set pattern execution count

Set alarm value

Set time signal 1, 2Step/ON time/OFF time

All patterns completed?

End of program

Set SP/Ramp time/Soak time of each step

Step time setting

n

y

Rate of rise setting

:

!+(>

8F= 9!8.9!8

2!39


3–14

E•

E• *.!!

E• ;#2$8

98;9

E• 8*9

E• 22/#$?8C9

E• ;!8;.9!8;9!82.9!829

E•

.?8;9

E• ;;;HHH#$

?8;;;9

Step 0 hour

SP

Step 1 hour Step 2 hours Step 3 hours


TimeA: SP of steps 0 and 3B: SP of steps 1 and 2

E• ( !; !

!8;98;;;9

2

Pattern No.

Number of steps

Step SP/Steptime

;2

89

-!89829#?

! $

About the AlarmValue DecimalPoint


3–15

E• (

E• 1 !

.

. 89

SP


Step 1 SP

Step 0 SP

Alarm type: upper-limit alarm

Alarm value

Time

Alarm value

;4


3–16

-!0 ;


Time: hr, min

0.20 0.40 0.20

50

100

SP

SP Time (hr, min.)

Alarm value 2

Step 0 50 0.00 10Step 1 100 0.20 10Step 2 100 0.40 10Step 3 50 0.20 10

#2$ !8 9

": ! 22;

#3$ . "

8 9?8;

;9

#4$ ( 8;;9!

" L M#89

$?8C9

#+$ 8+9 "

#$ 1 ! L M#8;.9

$?8;9

#/$ 8;9 "

#B$ 1 ! L M#8;

9$?8;;;9

#C$ ( 8;;;;9!

" L M#82.9

$?8;9

#H$ 82;;9 "

#2;$ -!8 29!8 3.9!8

39!8 4.9!8 49!

#22$1 .

"L M #89!

?829$

E• .829

E•

Setting Example

1 second min.


3–17

#23$( !

. "L M#839$

?8;9

#24$ 82;2;9 "


3–18

3.6 Protect Mode

E•

E• 89 #$

#>

"$

ModeSet value

Mode0 1 2 3 4 5 6

Calibration

Option

Expansion

Setup

Level 2

Level 1

Program

Level 0 *1

*1 Only the 8PV/Present SP” parameter can be displayed.

E• 18;9!

E• 189! ;

!

E• 18/9!8.5F..9

E• ?829

E• " FF

: ! "

F8"9#$

!!

E• "

Set value Description

0 Key protection OFF1 A/M cannot be selected.2 RUN/RST cannot be selected.3 Both A/M and RUN/RST cannot be selected.

E• ?8;("9

Security

Key protect

3.6 Protect Mode

3–19

-!0

89 839#

$

89 829#(F"$

#2$ . RUN/RST "2

-!

89

?829

#3$ . " 839

#4$ . "8"9

#+$ . " 829

#$ . RUN/RST "2

8.5F..9

# ;$

Setting Example

RUN/RST

RUN/RST

1 second min.

1 second min.

>4'!F

: !+B7) -! +2B

Using Event Input


3–20

3.7 Starting and Stopping Operation

E• #!

$! RUN/RST "

E• #!

$! RUN/RST "1

#$!=&?

E• #($

E• #;2;;G$8%59

# 3$

?8;;;;G9

E• 1!%5"

E• '%5%5

RUN/RST

Manipulated vari-able at reset

-89# $

!

About Changingthe Number ofSteps

3.8 Adjusting Control Operation

3–21


E• . **

!

E• K 89#

$898/9

E• .;28;2.9#

$

E• 1. !..

" .

SP

Before change

After change

Changing point

Time

Step N Step N+1

E• ;28;29

# $

E• 1 !

.

SP

Changing point

Time

Step N Step N+1

Step N Step N+1

Before change

After change

Changing programs

Changing the SP

Changing thetime value


3–22

- !0 8/;9

8;9

#2$ . "

8.5F..9

#3$

#4$ 8 9 "

#+$ . "

L M#8

9$

#$ . "L M#8;.9$!

*38;;9

#/$ . "8/;;9

#B$ . "#8

9$

#C$ 8 ;9 "!

"8.5F..9

Setting Example

1 second min.

1 second min.

1 second min.

1 second min.

!

!

Balance-less,Bump-less Opera-tion


3–23

E•

E• !

"2

,!

" 2

;

E•

!

1 !

E• - !

"

E• (F2;;!;;;

E• *2!

*3

E• ! "(

!

E• 1 !

@!

E• - !

0

Manipulated variable (%)Balance-less,

bump-less points

Manual

Auto

Manipulated vari-able switched OFF ON

Time

+ +

Power inter-ruption

Manual operation


3–24

E• (# $

>*F>::

E• 1 !.-?

#89$

? ! 8(9&?

E• +;G(2;;G(%5

L ML M! !8(F9

# 2$

E• ? !2;;G(#!

L M#+;G($$

E• (!8EEE (9

-%5 +;G!+;G(

"

7 ! "

2;;G(

#?5$(2;G

Deviation at start of ATexecution 10% FS

Deviation at start of ATexecution < 10% full-scale

Limit cycle of MV changewidth 40%

Limit cycle of MV changewidth 40%

Set point Set point

Start of ATexecution

End of ATexecution


End of ATexecution

Time Time

Deviation 10%full-scale

Deviation 10%full-scale

-%5 2;;G!2;;G(

(

Set point


End of ATexecution

Time

Limit cycle of MVchange width 100%

Auto-tuning(A.T.)

40%AT

100%AT

1"!.-?

@

.-?89#.$!8 9#-$

8 9#?$# 2$

: !& 2%

# 2B$

About PID Parame-ters

.

! (

.-?.!"

(

AT Execution Tim-ing

10 minutes

100

Step 0

Set value

Step 0 100 0.10

SP Time


3–25

-!0+;G(

#2$ !8 29

": !

2C

#3$ . " 2

8EEEE (F9-!

8EEE (9

#4$ . "L M

#+$ (&?!(1(&?

#($!

8EEE (9

Setting Example

End of AT execution

1 second min.

AT execute


3–26

CHAPTER 4 APPLIED OPERATION

4–1

CHAPTER 4APPLIED OPERATION

,"

=

CHAPTER4

+2 % +37 +3>*F>:: ++

+3 > = +% + +/

+4 ===. +B= +C. +H

++ . > +2;7F( +2;. +22

+ . +24 +24. +2+

+/ = +2>>* +2 +2/ +2/

+B 7) - +2B- +2B? +2C

+C &'( +2H+H 7)> +32


4–2

4.1 Selecting the Control Method

7 8#$9

?

Parameter

Control Method

Control Output 1Assignment

Control Output 2Assignment

Direct/Reverseoperations

Heating control(Standard) Control output (heat) - Reverse operation

Cooling control(Standard) Control output (heat) - Direct operation

Heating and coolingcontrol Control output (heat) Control output (cool) Reverse operation

#. $

E• : !44 >

# 4B$

E• 1 !898

9

89# 2$

!

8;;;;;;G:9

0 PV 0 PV

Output OutputDead band: deadband width = positive

Overlap band: deadband width = negative

Heatingside

Heatingside

Coolingside

Coolingside

Set point Set point

- !

.-?!@#. $

- !.

7 .O.Q .O .

Heating andcooling control

Dead band

Cooling coefficient

4.1 Selecting the Control Method

4–3

E• - !

8%59# 3$

E• 7 ! !

"

1 !

!

!

?8;9-!

1 !

"

Switching withManual Operation

Manipulated vari-able at reset


4–4

E• .-?>*F>::8.-?F>*F>::9#$1

LEEE M! .-?!

L M!>*F>::?LEEE M

E• ->*F>::!

>*>::D

>*F>::89#$#$

8#$98#$9!

E• -# $!

ON

OFF PV

Hysteresis (heat)

Set point

E• - !!4

ON

OFF PV

Hysteresis (heat)

Heatingside

Set point

Cooling side

Hysteresis (cool)

Dead band

Symbol Parameter Name: Mode Description

Control output 1assignment : Setup

For specifying control method



Direct/reverse operation : Setup


Dead band : Level 1 Heating and cooling control

Cooling coefficient : Level 1 Heating and cooling control

MV at reset : Level 2 Manipulated variable when controloperation is stopped

MV at PV error : Level 2 Manipulated variable when controloperation is PV error

Hysteresis (heat) : Level 1 ON/OFF control

Hysteresis (cool) : Level 1 ON/OFF control

PID / ON/OFF : Expansion ON/OFF control

ON/OFF control

Hysteresis

Parameters

4.2 Operating Condition Restrictions

4–5

4.2 Operating Condition Restrictions

%5!

%5

8%598%59# 3$

1

%5!

100

0PV

Output (%)

MV upper limit value

MV lowerlimit value

- !

"

# $!

# $

100

0 PV

Output (%)

MV upper limit value

MV lower limit value

Heatingside

Set point

Coolingside

8%5 9# 3$

-

!

100

0

Output (%)

Switching pointTime

MV change ratelimit value

1 second

Manipulated vari-able restrictions

MV limiter

MV change ratelimiter


4–6

E• ? >*F>::

E• ? (#%5 $

E• ?

E• 1

E• 1

8

9 8 9 #

$! 7 !!

(!

! #$ !

#$

Scaling (sensor) upper-and lower-limitter values

Changed tothe new up-per limitvalue

Scaling (sensor) range

Set Point

Set point Upper-and lower-limit values of the limitter

Set point limiter

Setting range

Changed to upperlimit value

Input type changed

Set Point

A

B

C B

(setting impossible)

(setting possible)

C

Set Point


MV upper limit : Level 2 For limiting manipulated variable

MV lower limit : Level 2 For limiting manipulated variable

MV change rate limit : Level 2 For limiting manipulated variable

Set point upper limit : Expansion For limiting SP setting

Set point lower limit : Expansion For limiting SP setting





Direct/reverse operation : Setup


Dead band : Level 1 Heating and cooling control

Cooling coefficient : Level 1 Heating and cooling control

MV at reset : Level 2 Manipulated variable when con-trol operation is stopped

MV at PV error : Level 2 Manipulated variable when con-trol operation is PV error

Hysteresis (heat) : Level 1 ON/OFF control

Hysteresis (cool) : Level 1 ON/OFF control

PID / ON/OFF : Expansion ON/OFF control

Limiter operationconditions

Set point limiter

Parameters

4.3 Ramp Rise Rate Setup Program

4–7


4 89.

.

89'!

8 .9!8

98"9

!8F

9#$8 9

Target SP

Step

Ramp step Soak step

Rate of rise

Time unit of ramp rate

Soak time

N N+1

8 .;B9!8

;B98";B9

- !

Target SP 2

Target SP 0

Target SP 1Soak time 0 Soak time 1 Soak time 2

Step

Parameter

0 1 2 3 4 5Target SP 0 Target SP 1 Target SP 2

Rate of rise 0 Rate of rise 1 Rate of rise 2Soak time 0 Soak time 1 Soak time 2


4–8

1!"

:!898B9!

8"49 8 .49

849

( ! !

"1!

Number of steps = even number Number of steps = odd number

18;B98;9!"

"

Step N is skipped.

Step

Ramp step Soak step

N N-1

Soak step

N+1

= ".5

.#.5$

1 !.

After change

Before change

Switching point

Time

Before change

After change

Step N Step N+1

Step N Step N+1

E• - !

&"!. !

E• 1" ! "

Relationship withthe number ofsteps

When the rate ofrise is set to “0”

Running the ramprise rate setupprogram Changing

parameters


4–9

&0 -

!


100

30 60 90 120

Target SP 0 : 100

Rate of rise 0 : 3

Soak time 0 : 0.30

Target SP 1 : 10

Rate of rise 1 : 3

Soak time 1 : 0.30

“Number of steps” = 4, “Time unit of ramp rate” = minutes, “PV start” = 10

- !;2

8 .;9!8;98";93

4 8 .29!8298"

29

#2$ ( .5#.5$!

82;9

#3$ ( 849! .."4;

#2;;2;F4O4;$ . 82;;9;-.5

8+;9 !3;

#4$ -2!.. !

8";9#!84;9$

#+$ -3!.. 8

298 .;98

.29-"4;

#$ -4!.. !

8"29#!84;9$


Step time/Rate of rise programming : Expansion Ramp rise rate

Target SP 0 to 7 : Program Ramp rise rate

Rate of rise 0 to 7 : Program Ramp rise rate Soak time 0 to 7 : Program Ramp rise rate

: to

'! !

829

Operation at Input Error

Program example

Program structure

How the programworks

Parameters


4–10

4.4 Program Operation

E• #7$

#( $

E• 7(

Run in level 0 mode

Check step No.

Hold?

Hold = ON

ContinueEnd of hold?

End

Hold = OFF

Advance

Advance = ON

Continue

End of advance

End

End: To program operation

Y

Y

N

N

E• F " *

8*9# ;$

E• 189# ;$8 >*9!

#$!87>&?9&? L M

.*38.5F..9

E• 7

89O8 >::9!=!=!

E• 8 9# ;$8 >*9!

1 !8( 9

8 >::9

E• - !

Hold/advance

4.4 Program Operation

4–11

Pattern operationE• !

89

# $

E• HHHH#$#?

8;9$

E• .898;9

E•

89# ;$

8;9

E• ;!8

9 # $ 8 >*9 #? 8

>::9$

Time

Pattern 0 Pattern 1 Pattern 2

E• 1 !8

>*9#$8

9! *1

!

#:

>*! +2H$

E• .898;9"

Time

Pattern 0 Pattern 1 Pattern 3

“pattern execution count” of pattern 2 is set to 0

Repeating execu-tion of the samepattern

Executing all patterns


4–12


Hold : Level 0 Pauses program execution.

Advance : Level 0 Advances the program one step.

Pattern execution count : ProgramRepeatedly executes currentpattern.

Run all :Expansion Executes all patterns.

E• (

E• 1 !

;

About Reset

Parameters

K 8 9

# ;$? !

- #HHHHHH

$!8HHH9

? 7!

( !"

About Pattern Elapsing Time

4.5 Program output

4–13

4.5 Program output

E•

2F3

.

E•

E•

Time signal output

ON time

OFF time

Time

E• >*>::

E• >>*>*>::

E• 8 2F3

9# $#?8;;9$

E• >*F>:: 8 2F3>*98

>::9# $

E• 1>::>*!>*

>*

E• >>*>*>::

E• 1

!@ ,

:! !>*

>::

Time signal

About ON conditions


4–14

Program status

E• >

Final step

Program end output

Time

1s

E• >

Stage output

Time1s

Symbol Parameter Name: Mode Description Time signalset step : Program Time signal

Time signalON time : Program Time signal

Time signalON time : Program Time signal

Control outputassignment : Setup Program status

Auxiliary outputassignment : Setup Program status

: to

Program end

Stage output

Parameters

4.6 Setting Running Conditions

4–15

4.6 Setting Running Conditions

E• K >*

!=!=!%

E• -8!9

E• -8=!9

E• -8=!9!

E• -8%!9

E•

>*

Continue Reset Run Manual

Pattern No.

Step No. - -

Pattern elapsing time - -

Pattern execution count - -

Hold status - -

Auto/Manual -Run/Reset - -

MV at reset *1 - -

Manual MV *2

*1 During auto mode at power interruption

*2 During manual mode at power interruption

-"#$

E• 8>*9#

$?8 9

Operation at power ON


4–16

Starting the program run

E• 1 !

8.59-

8.598.59#$!

.

.5 -.

.5!

SP

PV


Disabled time

Start point

Time

E• (!

E• 89# 3$

;;;HHH#$?8;;;9

E• (!7 !

. 8

9#$-89!.

L M*3

E• 189

! 7 !

.!.

*-


Operation at power ON : Expansion Operation when power isturned ON

PV start : Expansion Start of program run

Standby time : Level 2 Start of program run

End condition : Expansion Operation end program run

PV start

Standby operation

End condition

Parameters

4.7 How to Use Event Input

4–17

4.7 How to Use Event Input

E• 1 !#4J'$

E•

E• >*>::>*

E• K

=F=

(F%

7F7

(

.

E• >*F>::@ 3;;

E• 1 !

#>::>*$ 1

F!

#$ #>::>*$ !

#$ #>*>::$ >

E• 8 29

#$

E•

8 29

Setting Function

Event input disabled

OFFON: Reset /ONOFF: Run

ON: Manual /OFF: Auto

ON: Hold /OFF: Hold cancel

Execute at OFFON

OFF : pattern 0 / ON: pattern 1 (*1)

OFF: pattern 0 / ON: pattern 2 (*2)*1 Enabled when the “number of patterns” parameter is set to “2” or more

*2 Enabled when the “number of patterns” parameter is set to “3” or more

Input assignments


4–18

E• !"

7 ! F! F!F

>*>::!

"

E• . #$ #>::>*$

!=&? .

#$ #>*>::$

E• 1 8>*9!

!8%(*)9&?

E•

E• #7$ >*!

87>&?9&? 7

>::

E•

E• . #>::>*$

( ! >::

E•

E• .

8

9:!8+9!

;3


Event input assignments Option Event input functions

Detailed description of input functions

Run/Reset

Reset Run

Auto/Manual

Hold/Hold cancel

Advance

Advance

Pattern select

Parameters

4.8 LBA

4–19

4.8 LBA

E• &'(

(!&'("(F?

E• &'(#&'"($@

( !&'(

E• *!!

&'(

8&'(

9

E• &'(

&'(

&'(

E•

PV

LBA=ON

LBA detection time

LBA detection width

Output

Time

Heater burnout

LBA detection time

E• &'(@ &'(

- ! #.5$

2@ !&'(>::

E• (3@ !

"

&'(!&'(

>::

E• - !

89( !@ 8

93@

&'(>*

LBA detectiontime

LBA detectionwidth

LBA detectionexample


4–20

E• &'( #

$

E• -&'( !

8&'(9# 3$

E• &'(

#2$

#3$ %" &'(

# ;3G:$

PV

0.2%FS

Measurement time Tm

LBA detection time = Tm x 2

Output

Time

#4$ " &'(


AT execute/Cancel : Level 1 For automatic setting of LBAdetection time

LBA detection time : Level 2 For setting LBA detection time

LBA detection width : Expansion For changing LBA detectionwidth

Setting the LBAdetection time

Determining theLBA detectiontime

Parameters

4.9 How to Use Transfer Output

4–21

4.9 How to Use Transfer Output

E• 1 !

#4:$

E• K 89

#$

..#$!. !% #$!

% #$

E• - 8

#$98 #$9!

89

E•

8989

! (!

(mA)

20

4

20

4

0100

(mA)Transfer output Transfer output

Reverse scaling Enlarged scale

Transfer outputupper limit: 0

Transfer output lowerlimit: 100

Manipu-latedvariable(%)

Transfer output lowerlimit: 10

Transfer output upperlimit: 80

Manipulatedvariable (%)


Transfer output type : Option Transfer output designation

Transfer output upper limit : Option Transfer output scaling

Transfer output lower limit : Option Transfer output scaling

Transfer outputtype

Transfer outputscaling

Parameters


4–22

CHAPTER 5 PARAMETERS

5–1

CHAPTER 5PARAMETERS

)

CHAPTER5

) 3

.% 4

%%

& ;% /

. % 22

& 2% 2B

& 3% 3+

% 3C

% 4/

>% ++

% +C


5–2

The meaning of icons used in this chapter

?

?

)

?

?

?

?(

About parameter display>!

8)9

7 ! !

Conditions of UseThe controller mustbe in operation.

AT Execute/cancel

About the Order in Which Parameters Described in This Chapter.

Conventions Used in this Chapter

Function

Setting

Monitor

Example of use

See

Model

5–3

E• " "'

!" "

E• ! RUN/RST "2

! RUN/RST "

2

E•

Symbol Parameter Name PageSecurity 5-3

Key protect 5-4

Security

E• *

E• >89"

:!849! ;2

ModeSetting value

Mode0 1 2 3 4 5 6

Calibration

Option

Expansion

Setup

Level 2

Level 1

Program

Level 0 *1

*1 The “PV/Present SP” parameter is only displayed.

E• 18;9!

E• 189! ;!

E• 18/9!8.5F..9

# $

E• ?829#>$

E=

4/.%# 42H$

Protect Mode

Function

Setting

See


5–4

Key protect

E• ?" =)*F=()>F%(*)(&: !

()>F%(*)(&"#

"$8"9#$ !

E• "

Set value Description

1 No keys are protected.

2 AUTO/MANUAL key operation cannot be selected.

3 “RUN/RST” key cannot be selected.RUN/RST

4Both the AUTO/MANUAL and RUN/RESET key operationscannot be selected.

E• ?8;9#"$

E=

4/.%# 42H$

Protect Mode

Function

Setting

See

5–5

E• -!!8%(*)9&?

E• 1!

!

"- !

E• ;3! "

2! "

2 ;

E• 8%%59

Manual MV

E• 1

"!

E• *2

*3

E• %5

Control Method Setting Range Unit Default

Standard -5.0 to 105.0 % 0.0Heating and cooling -105.0 to 105.0 % 0.0

E=

4C(@ >F%# 433$

Manual Mode

Function

Setting

See


5–6

E• 89#

$8;989>8.5F..9

898/9

E•

,

E• ! "2

-L M "2

! ;

E• ! " !

"

E• ;

Symbol Parameter Name Page

PV/Present SP 5-6

Pattern No. 5-7

Step No. monitor 5-7

Hold 5-8

Advance 5-8

Standby time monitor 5-9

Pattern elapsing time 5-9

Pattern execution count monitor 5-9

MV monitor (heat) 5-10

MV monitor (cool) 5-10

PV/Present SP

E• *2!..

*3

E•

Monitor Range Unit

Process Value Scaling lower limit -10%FS to scaling upper limit +10%FS EUPresent SP Set point lower limit to set point upper limit EU

E• ? ! "

.5

E=

8-98 98 98?9#$

8989#$

Level 0 Mode

Function

Monitor

See

5–7

Pattern No. Conditions of UseThe “number of patterns” parameter mustbe set to a value greater than “2”.

E•

E• ? !

E•

Setting Range Unit Default0 to number of patterns -1 None 0

E=4 .# 42+$

E=

(

8*9#$

Step No. monitor

E• %*#8;9

$

Monitor Range Unit

0 to Number of steps-1 None

E=++. ># +24$

E=

8798( 9# ;$

Level 0 Mode

Function

Setting

See

Function

Monitor

See


5–8

Hold

E•

E• .#$

E• 1 8F9 >*!L M#$

!>::L M#$

E• - !

Setting Range Default

OFF : Hold cancel / ON: Hold

E=++. ># +24$

+C7) -# +2B$

E=

8 29#$

Advance

E•

E• :

E• 1 8F9 >*!L M# $

E• !L M#>::$

E• 1L M#>*$!

E• ( ! L M

E• 7

E=

++. ># +24$+B7) -# +2B$

E=

8 29#$

Level 0 Mode

Function

Setting

See

Function

Example of use

See

5–9

Standby time monitor Conditions of UseThe controller must be in a standby state.

E• ? #

$

Monitor Range Unit

0.00 to 99.59 Hour, minute

E=

+/ = # +2H$

E=

89# 3$

Pattern elapsing time

E• ?1

!

Monitor Range Unit

0.00 to 99.59 Program time unit

18HHH9!8HHH9"

Pattern execution count monitor

E• ?8;9

Monitor Range Unit

0 to pattern execution count Times

E=

8.9# $

Level 0 Mode

Function

Monitor

See

Function

Monitor

Function

Monitor

See


5–10

MV monitor (heat)

MV monitor (cool)

Conditions of UseThe control must be standard control orheating and cooling control.

E•

E• %

E• 8%5

#$9

E• 8%5#$9

E• %5#$

Control Monitor Range Unit

Standard -5.0 to 105.0 %Heating and cooling 0.0 to 105.0 %

E• %5#$

Control Monitor Range Unit

Heating and cooling 0.0 to 105.0 %

Level 0 Mode

Function

Monitor

5–11

E• 89#

$8;98+9

E•

E• ! "2

-L M "!

"2!

E• ! " !

"

E•


Pattern No. 5-7 *1

Number of steps 5-12

Step 0 SP or Target SP 0 5-12

Ramp rate 0 5-13

Step 0 time or Soak time 0 5-13

| |

Step 7 SP or Target SP7 5-12

Ramp rate 7 5-13

Step 7 time or Soak time 7 5-13

Step 8 SP 5-12

Step 8 time 5-13

| |

Step 15 SP 5-12

Step 15 time 5-13

Pattern execution count 5-14

Alarm value 1 5-14

Alarm value 2 5-14

Alarm value 3 5-14

Time signal 1 enabled step 5-15

Time signal 1 ON time 5-15

Time signal 1 OFF time 5-16

Time signal 2 enabled step 5-15

Time signal 2 ON time 5-15

Time signal 2 OFF time 5-16

62 ;:! B

Program Mode


5–12

Number of steps

E•

Setting Range Unit Default1 to 16 None 8

E=

4 .# 42+$

E=

(

Step 0 time (Step time)Target SP 0 (Rate of rise programming)

toStep 7 SP (Step time)Target SP 7 (Rate of rise programming)

Step 8 SP (Step time)

Step 15 SP (Step time)

E• .;2

E• .;B

E• ? !

!

Setting Range Unit DefaultSP lower limit to SP upper limit EU 0

E=

4 .# 42+$

+4===. # +H$

E=

(

8-98 98 98?9#$

8F= 9#$

Program Mode

Function

Setting

See

Conditions of UseWithin the number of steps.

to

Function

Setting

See

5–13

Ramp rate 0

to

Ramp rate 7

Conditions of UseWithin the number of steps only in the rateof rise programing.

E•

Setting Range Unit Default0 to 9999 EU/Time unit of ramp rate 0

;"

E=+4===. # +H$

E=

(

8F= 989#$

Step 0 time (Step time)Soak time 0 (Rate of rise programming)

toStep 7 time (Step time)Soak time 7 (Rate of rise programming)

Step 8 time (Step time)

Step 15 time (Step time)

E• ;2

E• ";B

Setting Range Unit Default0.00 to 99.59 Program time unit 0.00

E=

4 .# 42+$

+4===. # +H$

E=

( 8 F= 98. 98

9#$

Program Mode

Function

Setting

See

Conditions of UseWithin the number of steps.

to

Function

Setting

See


5–14

Pattern execution count

E•

E• 8

9# ;$

Setting Range Unit Default0 to 9999 Time 1

;

E=

++. >F.# +24$

E=

(

Alarm value 1

Alarm value 2

Alarm value 3

Conditions of UseAlarms must be assigned as outputs. Forexample, if alarm outputs 1 and 2 only areassigned as outputs, the “alarm value 3”parameter cannot be used.

E•

24

E• ? !

!

Setting Range Unit Default-1999 to 9999 EU 0

E=

4+ (# 42;$

4 .F( # 42/$

E=

8-98 98 98?98

2 983 98(2

98(298(398(498(298(

398(49#$

8(298(398(49# 3$

Program Mode

Function

Setting

See

Function

Setting

See

5–15

Time signal 1 enabledstep

Time signal 2 enabledstep

Conditions of UseEach of the time signals must be assignedas outputs.

E•

Setting Range Unit Default0 to 15 None 0

E=

+. # +2B$

E=

8 2>*98 2>::98 3>*98

3>::9# $

Time signal 1 ON time



E• >*


E=

+. ># +2B$

E=

8 298 398 2>::9

8 3>::9# $

8. 9#$

Program Mode

Function

Setting

See

Function

Setting

See


5–16

Time signal 1 OFF time



E• >::


E=

+. # +2B$

E=

8 298 398 2>*9

8 3>*9# $

8. 9#$

Program Mode

Function

Setting

See

5–17

E• 89#

$8;9849

E• @ ! (

# $! ! .-?

E• ! "2

-L M "2

! 2

E• ! " !

"

E•


AT Execute/Cancel 5-18

Proportional band 5-18

Integral time 5-18

Derivative time 5-18

Cooling coefficient 5-19

Dead band 5-19

Manual reset value 5-20

Hysteresis (heat) 5-21

Hysteresis (cool) 5-21

Control period (heat) 5-22

Control period (cool) 5-22

Level 1 Mode


5–18

AT Execute/Cancel Conditions of UseThe controller must be in operation, andcontrol must be advanced PID control.

E• %5 #+;G2;;G$((

!8.-?98&'(9#&'"($

E• ? !2;;G(

E• +;G(!L M!2;;G(!L M?

!(&?7 !

!L M

E• 1(! L M

E=

4C(@ >F(# 43$

E=

8.98- 98? 9# 2$

8&'(9# 3$

Proportional band

Integral time

Derivative time

Conditions of UseThe control must be advanced PID con-trol.

E• .-?*.-?(

Parameter Setting Range Unit Default

Proportional band 0.1 to 999.9 %FS 10.0Integral time 0 to 3999 *1 Second 233

Derivative time 0 to 39999 Second 40

E=

8(F9# 2$

Level 1 Mode

Function

Example of use

See

Function

Setting

See

5–19

Cooling coefficient Conditions of UseThe control must be either heating andcooling control, or advanced PID control.

E• - !.

.O .

Setting Range Unit Default0.01 to 99.99 None 1.00

E=

+2 %F7 # +3$

E=

8.9# 2$

Dead band Conditions of UseThe control system must be heating andcooling control.

E• (

Setting Range Unit Default-19.99 to 99.99 %FS 0.00

E=

+2 %F7 # +3$

Level 1 Mode

Function

Setting

See

Function

Setting

See


5–20

Manual reset value Conditions of UseThe control must be either standard con-trol or advanced PID control, and the “inte-gral time” parameter must be set to “0”.

E• , D.

.?

Setting Range Unit Default0.0 to 100.0 % 50.0

Hysteresis (heat)

Hysteresis (cool)

Conditions of UseThe control system must be ON/OFF con-trol.

E• >*F>::

E• -!8#$98

#$9

E• - !

)8#$9

!8#$9

Parameter Setting Range Unit DefaultHysteresis (heat) 0.01 to 99.99 %FS 0.10Hysteresis (cool) 0.01 to 99.99 %FS 0.10

E=+2 %F>*F>::# +$

E=

82 983 9#$

8.-?F>*F>::9#$

Level 1 Mode

Function

Setting

Function

Setting

See

5–21

Control period (heat)

Control period (cool)

Conditions of UseRelay, SSR or voltage output must set asthe outputs, and the control must be set toadvanced PID control, standard control orheating and cooling control.

E• "

E• -!8#$98

#$9

E• - !

)8#$9

!8#$9


Control period (heat) 1 to 99 Second 20Control period (cool) 1 to 99 Second 20

E=

44 ># 4B$

E=

82 983 9#$

Level 1 Mode

Function

Setting

See


5–22

E• 89#

$8;9839

E• @

!

! &'(

#&'"($!!

E• ! "2

-L M "!

"2! 3

E• ! " !

"

E•


Remote/Local 5-25

Standby time 5-25

LBA detection time 5-26

MV at reset 5-26

MV at PV error 5-27

MV upper limit 5-27

MV lower limit 5-27

MV change rate limit 5-27

Input digital filter 5-28

Alarm 1 hysteresis 5-29



Input shift upper limit 5-29

Input shift lower limit 5-29

Level 2 Mode

5–23

Remote/Local Conditions of UseThe communications function must be inuse.

E•

E• !

!

K"


“ ”: remote / “ ”: local

E=

/) :

E=

898 989

898*98

29#$

E>

4;2F;4

Standby time

E•

Setting Range Unit Default0.00 to 99.59 Hour, minute 0.00

E=

+/ = F F#

+3;$

E=

89# ;$

Level 2 Mode

Function

Setting

See

Model

Function

Setting

See


5–24

LBA detection time Conditions of UseThe LBA (Loop Break Alarm) functionmust be assigned as an output.

E• (

E• &'( ;3G

8%5

98%59

E• &'(8;9

Setting Range Unit Default

0 to 9999 Second 0

E=

+C&'(# +3;$

C47)># C$

E=

8(F9# 2$

82 983 98(2

9#$

MV at reset

MV at PV error

Conditions of UseAdvanced PID control.

E• 8%5 9

E• 8%5.59


Standard -5.0 to 105.0 % 0.0Heating and cooling -105.0 to 105.0 % 0.0

E=

%5 4B ># 432$

%5.5 C37)?# C4$

Level 2 Mode

Function

Setting

See

Function

Setting

See

5–25

MV upper limit

MV lower limit

MV change rate limit

Conditions of UseThe control must be advanced PID con-trol.

E• 8%598%59

1

!

!

E• 8%5 9

-

!

8;;9

E• %5

Control Method Setting Range Unit DefaultStandard MV lower limit +0.1 to 105.0 % 105.0Heating and cooling 0.0 to 105.0 % 105.0

E• %5


Standard -5.0 to MV upper limit -0.1 % -5.0Heating and cooling -105.0 to 0.0 % -105.0

E• %5


0.0 to 100.0 %/S 0.0

E=

+3> =F% # +B$

Level 2 Mode

Function

Setting

See


5–26

Input digital filter

E•

A

PV before passing through filter

PV after passing through filter

0.63A

Input digital filter

Time constant Time


0 to 9999 Second 0

Alarm 1 hysteresis

Alarm 2 hysteresis

Alarm 3 hysteresis

Conditions of UseAlarms must be assigned as output. Forexample, if alarm outputs 1 and 2 only areassigned as outputs, the “alarm 3 hystere-sis” parameter cannot be used.

E• 24


0.01 to 99.99 %FS 0.02

E=

4+ (# 42;$

E=

8(298(398(498(298(3

98(49#$

8( 298( 398( 49#. $

Level 2 Mode

Function

Setting

Function

Setting

See

5–27

Input shift upper limit

Input shift lower limit

Conditions of UseThe input type must be set to temperatureinput (thermocouple or platinum resis-tance thermometer).

E•


-199.9 to 999.9 C or F 0.0

E=

43 -# 4+$

E=

8-9#$

Level 2 Mode

Function

Setting

See


5–28

E• 89#

$8;9829

E• "

! ! !F

E• ! "2

-L M "!

"2!

E• ! " !

"

E•


Input type 5-29

Scaling upper limit 5-30

Scaling lower limit 5-30

Decimal point 5-30

C/F selection 5-31

Parameter initialize 5-31

Control output 1 assignment 5-32

Control output 2 assignment 5-32

Auxiliary output 1 assignment 5-33

Alarm 1 type 5-34

Alarm 1 open in alarm 5-35

Alarm 2 type 5-34


Alarm 3 type 5-34


Direct/Reverse operation 5-35

Setup Mode

5–29

Input type

E•

E• ?8329

Set value Input Type

0 JPt100-199.9 to 650.0 (C) /-199.9 to 999.9 (F)Platinum resistance thermometer

1 Pt100 -199.9 to 650.0 (C) /-199.9 to 999.9 (F)Platinum resistance thermometer

2 K1 -200 to 1300 (C) /-300 to 2300 (F)3 K2 0.0 to 500.0 (C) /0.0 to 900.0 (F)4 J1 -100 to 850 (C) /-100 to 1500 (F)5 J2 0.0 to 400.0 (C) /0.0 to 750.0 (F)6 T -199.9 to 400.0 (C) /-199.9 to 700.0 (F)7 E 0 to 600 (C) /0 to 1100 (F)8 L1 -100 to 850 (C) /-100 to 1500 (F)9 L2 0.0 to 400.0 (C) /0.0 to 750.0 (F) Thermocouple10 U -199.9 to 400.0 (C) /-199.9 to 700.0 (F)

Thermocouple

11 N -200 to 1300 (C) /-300 to 2300 (F)12 R 0 to 1700 (C) /0 to 3000 (F)13 S 0 to 1700 (C) /0 to 3000 (F)14 B 100 to 1800 (C) /300 to 3200 (F)15 W 0 to 2300 (C) /0 to 4100 (F)16 PLII 0 to 1300 (C) /0 to 2300 (F)17 4 to 20mA

Current input18 0 to 20mA

Current input

19 1 to 5V20 0 to 5V Voltage input21 0 to 10V

Voltage input

E=

43 -# 4+$

E=

1

8F:9#$

1

8 98 98?9#$

Setup Mode

Function

Setting

See


5–30

Scaling upper limit

Scaling lower limit

Decimal point

Conditions of UseThe input type must be set to analog input(voltage or current input).

E•

E• 1 !

8 9

8 9

E• 89

# !$)# )$

E• !


Scaling upper limit Scaling lower limit +1 to 9999 None 100Scaling lower limit -1999 to scaling upper limit -1 None 0

E• ??8;9

Set Value Setting Example

0123

0 digits past decimal point1 digit past decimal point2 digits past decimal point3 digits past decimal point

1234123.412.341.234

E=

43 -# 4+$

E=

8-9#$

Setup Mode

Function

Setting

See

5–31

C/F selection Conditions of UseThe input type must be set to temperatureinput (thermocouple or platinum resis-tance thermometer).

E•

E• 898:9


“ ”: C / “ ”: F

E=

43 -# 4+$

E=

8-9#$

Parameter initialize

E• = 7 !

8- 9! 8 9! 8 9! 8? 9

8F:9

E• 1!L M#89$D

! "L M#89$

Setup Mode

Function

Setting

See

Function

Example of use


5–32

Control output 1 assignment

Control output 2 assignment

E• ( 23

E• 2;

#$!#$!(24!&'(! 2

3!.

E• 1 23>*!

8>)298>)39&?

Symbol to

Function Control output (heat) Control output (cool) Alarms 1 to 3 LBA

Symbol to

Function Time signals 1 to 2 Program end Stage output

?

829OL M!839OL M

E=

44 ># 4B$

E=

E• (

E• 7

8 298 398 23>*

98 23>::9# $

8&'(9# 3$

Setup Mode

Function

Setting

See

5–33

Auxiliary output 1 assignment

E• ( 2

2;

(24!&'(! 23!. ! !2#

$!3#(F? $

E• 1 2>*!)'2&?

Symbol to to

Function Alarms 1 to 3 LBA Time signals 1 to 2

Symbol

Function Program end Stage output Error 1 Error 2

L M

E=

44 ># 4B$

E=

E• (

8 298 398 23>*

98 23>::9# $

8&'(9# 3$

Setup Mode

Function

Setting

See


5–34

Alarm 1 type

Alarm 2 type

Alarm 3 type

Conditions of UseAlarms must be assigned as outputs. Forexample, if alarm output 1 and 2 only areassigned as outputs, the “alarm 3 type”parameter cannot be used.

E• 8(249

:! 42;

Set Value Settings Set Value Settings1 Upper- and lower-limit alarm 7 Lower-limit alarm with standby sequence

2 Upper-limit alarm 8 Absolute-value upper-limit alarm

3 Lower-limit alarm 9 Absolute-value lower-limit alarm

4 Upper- and lower-limit rangealarm

10 Absolute-value upper-limit alarm withstandby sequence

5 Upper- and lower-limit alarm withstandby sequence

11 Absolute-value lower-limit alarm withstandby sequence

6 Upper-limit alarm with standbysequence

?839

E=

4+ (# 42;$

E=

8( 298( 398( 49#. $

8(298(398(49# 3$

8(298(398(498

2 983 98(2

9#$

Setup Mode

Function

Setting

See

5–35

Alarm 1 open in alarm



Conditions of UseAlarms must be assigned as outputs. Forexample, if alarm outputs 1 and 2 only areassigned as outputs, the “alarm 3 open inalarm” parameter cannot be used.

E• 24

E• 18!9

18!9

!&?

Alarm Output Function Alarm Output Output LED

Close in alarmON ON Lit

Close in alarmOFF OFF Not lit

Open in alarmON OFF Lit

Open in alarmOFF ON Not lit


“ ” :Close in alarm/ “ ”:Open in alarm

E=

4+ (# 42;$

E=

8( 298( 398( 49# 2$

8(298(398(49# 3$

8(298(398(498

2 983 98(2

9#$

Direct/Reverse operation

E• 8?9#$

( !

8 9


“ ” : Reverse operation/ “ ”:Direct operation

E=

44 >F?F # 4C$

Setup Mode

Function

Setting

See

Function

Setting

See


5–36

E• 89#

$8;9829

E•

. ! .-?

>*F>::! !F

!

E• ! "2

-L M "!

"2!

E• ! " !

"

E•


Set point upper limit 5-37

Set point lower limit 5-37

PID/ON/OFF 5-37

Operation at power ON 5-38

End condition 5-38

Number of patterns 5-39

Program time unit 5-39

Step time/Rate of rise programming 5-40

Time unit of ramp rate 5-40

PV start 5-41

Alarm during ramp step enable 5-41

Run all enable 5-41

α 5-42

AT calculated gain 5-42

Automatic return of display mode 5-43

AT hysteresis 5-43

LBA detection width 5-43

Expansion Mode

5–37

Set point upper limit

Set point lower limit

E• &..

89

89*!

.

E• 1 !

E• ? !

!


Set point upper limit Set point lower limit +1 to scaling upper limit EU 1300Set point lower limit Scaling lower limit to set point upper limit -1 EU -200

? !

E=

+3> =# +B$

E=

8- 9 8 98 98?9 #

$

PID/ON/OFF

E• .-?>*F>::


“ ” :Advance PID/ “ ” :ON/OFF

E=

+2 %F>*F>::# +$

E=

87#$987#$9# 2$

Expansion Mode

Function

Setting

See

Function

Setting

See


5–38

Operation at power ON

>*

E• 89

E• 8=9 =

E• 8=9

E• 8%9

8%9(F%"


“ ” :Continue/ “ ” :Reset/ “ ” Run/ “ ” :Manual

E=

+/ = F>>*# +2+$

End condition

E• .

E• 89

7 !.

!.


“ ” :Reset/ “ ” :Continued control using final SP

E=

+/ = F# +2$

E=

8*9# $

*-

Expansion Mode

Function

Setting

See

Function

Setting

See

5–39

Number of patterns

E•


1 to 4 1

E=

8=9#$

8 29#$

Program time unit

E•

8. 9!8;29F";B9!8

2>*98 3>*98 2>::98 3>::

9


“ ” :Hour, minute/ “ ” :Minute, second

E=

8. 9# 2$

8;2F";B98 2>*98 3>*

98 2>::98 3>::9# $

Expansion Mode

Function

Setting

See

Function

Setting

See


5–40

Step time/Rate of rise programming

E•


“ ” :Set time/ “ ” :Rate of rise programming

E=

4 .# 42+$

+4===. # +H$

E=

8;2.F .;B98=;B98;2F"

;B9# $

Time unit of ramp rate Conditions of UseRate of rise programming must be set.

E• 8;B9


“ ” : Minute/ “ ” : Hour

E=

8=;B9# $

Expansion Mode

Function

Setting

See

Function

Setting

See

5–41

PV start Conditions of UseThe set time must be set.

.

E• .5 . #.5$

E• . .;# $

18.59!

..5 -.

.5!


“ ” : PV/ “ ” :SP

E=

+/ = F F.5# +3;$

Alarm during ramp step enable

E• !L>*M!L>::M


“ ” : / “ ”

Run all enable Conditions of UseThe “number of patterns” parameter mustbe set to a value greater than “1”.

E• ;!L>*M

E• .89# 2$8;9

"


“ ” : / “ ”

Expansion Mode

Function

Setting

See

Function

Setting

Function


5–42

α Conditions of UseThe control must be advanced PID con-trol.

E• *!

E• .-?α


0.00 to 1.00 None 0.65

AT calculated gain Conditions of UseThe control must be advanced PID con-trol.

E• *!

E• @ .-?

E• !

!


0.1 to 10.0 None 1.0

E=

8(F9# 2$

8.-?F>*F>::9#$

Expansion Mode

Function

Setting

Function

Setting

See

5–43

Automatic return of display mode

E• -"

;3 !.5F.

.

E• 18;9!#!

.5F..$

E•


0 to 99 Second 0

AT hysteresis Conditions of UseThe control must be advanced PID con-trol.

E• *!

E• (

>*F>::


0.1 to 9.9 %FS 0.2

LBA detection width Conditions of UseThe LBA (Loop Break Alarm) functionmust be assigned as an output.

E• &'(

E• 1

! &'(


0.0 to 999.9 %FS 0.2

Expansion Mode

Function

Setting

Function

Setting

Function

Setting


5–44

E• 89#

$8;9829

E• K-

!!

E• ! "2

-L M "!

"2!

E• ! " !

"

E•


Event input assignment 1 5-45

Communication stop bit 5-46

Communication data length 5-46

Communication parity 5-46

Communication baud rate 5-46

Communication unit No. 5-46

Transfer output type 5-47

Transfer output upper limit 5-47

Transfer output lower limit 5-47

Option Mode

5–45

Event input assignment 1 Conditions of UseThe event input function must be in use.

E•

8=F!98(F!987F!98( !98.;29

E• 1 F

.;O3;!.2O33

E• 1 !

#>::>*$ 1 F

! #>::>*$ !

#>*>::$>

Settings Function

Event input disabled

OFFON : Reset /ONOFF : Run

ON : Manual /OFF : Auto

ON : Hold /OFF : Hold cancel

OFFON Execution

OFF: pattern 0 / ON: pattern 1 (*1)

OFF: pattern 0 / ON: pattern 2 (*2)

62 89839

63 89849

E• ?8 9

E=

+B7) # +34$

E=

8=F9# 3$

8798( 9# ;$

8.*9# ;F $

E>

4'

Option Mode

Function

Setting

See

Model


5–46

Communication stop bit

Communication data length

Communication parity

Communication baud rate

Communication unit No.

Conditions of UseThe communications function must be inuse.

E• >*

E• %"!

!

E• 1 !*

*

E• 89


1, 2 Bits 2

E• 8 9

Setting Range Unit Default7, 8 Bits 7

E• 89

Setting Default

“ ”: None/ “ ”:Even/“ ”:Odd

E• 89

Setting Range Unit Default1.2, 2.4, 4.8, 9.6, 19.2 kbps 9.6

E• 8*9


0 to 99 None 0

E=

/) :

E=

8=F&9# 3$

E>

4;2F;4

Option Mode

Function

Setting

See

Model

5–47

Transfer output type

Transfer output upper limit

Transfer output lower limit

Conditions of UseThe transfer output function must be inuse.

E•

E• 89

!

..!. !% #$!% #$

# $

E• 8989

(!

E• ? !

!

E• .

Transfer Output Type Transfer Output Lower Limit to Transfer Output Upper Limit

“ ” Present SP -1999 to 9999

“ ” Process Value -1999 to 9999

“ ” Manipulated variable (heat) -5.0% to 105.0% (standard control), 0.0 to 105.0% (heatingand cooling control)

“ ” Manipulated variable (cool) 0.0 to 105.0%

E• ?L M

E=

+H7)># +32$

E>

4:

Option Mode

Function

Setting

See

Model


5–48

E• 89#

$8;91 (

!898;9

E• >

89#

$(!

#4:$

E• ! "2

-L M "!

"2!

E• :!B

Calibration Mode

CHAPTER 6 USING THE COMMUNICATIONS FUNCTION

6–1

CHAPTER 6USING THECOMMUNICATIONSFUNCTION

CHAPTER6

/2 >: /3

> /3

/3

- /3

/3 . /4

/4

/+

/4 /

/+ = /B

= F /B

- /2;

= F /23

/ 7=

- /2

/2

) /2/

// . /2B

7 /2B

. /2C

/2H


6–2

6.1 Outline of the Communications Function

1 ! 4;2F;4

E• =F

E• -

E•

E• 1 (!

E• 1 1

E• 2 *

E• ; 1 !

E• 8F9! 8( F9! 8F 9

8 9

89!

89

-!

F

Command frame Command frame

Response frame

Host computerE5CK-T

=343!=+33=+C

=343!=+C

E• >

;2=343

;4=+C

Outline

Transfer procedure

Interface

6.2 Preparing for Communications

6–3

6.2 Preparing for Communications

: !

3.

Cable connectionsE• >

#22$

E• 2

E• )#(1A3C$

RS-232C

No.

13 SDRD14

1 SG

E5CK-TIBM-PC/XTDE-25FemaleDTE

(SD) TXD

(RD) RXD

(RS) RTS

(CS) CTS

(SG) COMMON

(ER) DTR

(DR) DSR

2

3

4

5

20

6

7

FG 1

25 pins

E• 222*-2*!43

E• ;;

E• )#(1A3C$

E• (

:!

!*4;!

*;3H

E• ) 23;Ω#2F31$

+Ω

-

+

FG

RS-485

No.

32

31

RS-485

No.

32 A

B31

Host computerRS-485

Shielded cable

E5CK-T (No.0) E5CK-T (No.30)

Terminator (120Ω 1/2W)

A

B

A < B : “1” MarkA > B : “0” Space

19

20

A

B

19 A

B20

RS-232C

RS-485


6–4

%

1

!"

:!

0

#$

Parameter/Symbol Setting Set ValueUnit No. 0 to 99 0 to 99

Baud rate 1.2/2.4/4.8/9.6/19.2 (kbps) 1.2/2.4/4.8/ 9.6 /19.2

Bit length 7/8 (bit) 7 /8

Parity None/even/odd / /

Stop bit 1/2 1/ 2

Inverted items are factory settings.

Setting the com-municationsspecifications

Communicationsparameters

6.3 Command Structure

6–5

6.3 Command Structure

UnitNo.

Commandcode

Data FCS

CR

Command type

@ *

2B 1B 2B 4B 2B 2B

Command

UnitNo.

Commandcode

Data FCS

Command type

CR

Endcode

@ *

2B 1B 2B 4B 2B 2B2B

Response

End code = 00

UnitNo.

Commandcode

FCS

Command type

CR

Endcode

@ *

2B 1B 2B 2B 2B2B

End code = 00

Response

E• 8R9

E• )*

8*9-

! 8*9

E•

Code Command type1 Parameter read2 Parameter write3 Special command4 Program parameter read5 Program parameter write

E•

1F

F!

*

E• ?

1

!8;;;;9-

!8;;9

! #

$!89#-$

About invalidparameters


6–6

E•

:

!/7=-

# /23$

E• :#:",$

":

"!//. # /2C$

E• 8698=# =$9

-#$"

Conversion to ASCII code at each digit of the calculation result and setting to FCS

>=

:8R;;2;;;;;;9

How to CalculateFCS

#2$ (--78+;7!4;7!!

4;79

#3$ >=

#4$ (--#8+'9$

#+$ :

ASCII Hex

ASCII @ 0 0 1 0 0 0 0 0 0

Hex 40H 30H 30H 31H 30H 30H 30H 30H 30H 30H

Completed frame (with appended terminator)

Exclusive OR

ASCII @ 0 0 1 0 0 0 0 0 0 7 1

Hex 40H 30H 30H 31H 30H 30H 30H 30H 30H 30H 37H 31H

ASCII @ 0 0 1 0 0 0 0 0 0 7 1 * CR

Hex 40H 30H 30H 31H 30H 30H 30H 30H 30H 30H 37H 31H 2AH 0DH

FCS

FCS Terminator

40H30H30H31H30H30H30H30H30H30H=71H

6.4 Commands and Responses

6–7


E• ?2(--

E• 1 !

#2$89

#3$

(2!:#$

2;;OL;2;;M!2;;OL(;;M!2OL:;2M

Reading/writing parameters

Reading parameters

Command

ParameterNo.

ParameterNo.

UnitNo.

FCS

CR

UnitNo.

Read data FCS

CR

Endcode

@

@

*

*

2B 2B 4B 2B 2B

2B 2B 4B 2B 2B2B

1 0 0 0 0

1Response

Writing parameters

Command

ParameterNo.

ParameterNo.

UnitNo.

Write data FCS

CR

UnitNo.

Write data FCS

CR

Endcode

@

@

*

*

2B 2B 4B 2B 2B

2B 2B 4B 2B 2B2B

2

2Response

.

E• 1

E• =

E• :!

/2;

E• 8(F9!87F798( 9

E• : ! /C

/H


6–8

Parameter No. Parameter Data Setting and Monitor Range Mode

00 PV monitor *1 *2 Scaling lower limit -10% to scaling upper limit +10%

01 Set point *1 Set point lower limit to set point upper limitLevel 0

04 MV monitor (heat) *1 -5.0 to 105.0Level 0

14 Valve opening monitor *1 -10.0 to 110.0 Level 0

02 Alarm value 1 -1999 to 9999

03 Alarm value 2 -1999 to 9999 Program

41 Alarm value 3 -1999 to 9999

g

19 Proportional band 0.1 to 999.9

20 Integral time 0 to 3999

21 Derivative time 0 to 3999

22 Cooling coefficient 0.01 to 99.99

09 Dead band -19.99 to 99.99

23 Manual reset value 0.0 to 100.0 Level 1

06 Hysteresis (heat) 0.01 to 99.99

43 Hysteresis (cool) 0.01 to 99.99

07 Control period (heat) 1 to 99

08 Control period (cool) 1 to 99

46 LBA detection time 0 to 9999

47 MV at reset *5 -5.0 to 105.0

48 MV at PV error *5 -5.0 to 105.0

50 MV upper limit *3 MV lower limit +0.1 to 105.0

49 MV lower limit *4 -5.0 to MV upper limit -0.1

51 MV change rate limit 0.0 to 100.0

56 Input digital filter 0 to 9999 Level 2

25 Alarm 1 hysteresis 0.01 to 99.99



53 Input shift upper limit -199.9 to 999.9

54 Input shift lower limit -199.9 to 999.9

62 .

63 ? !

64 ? ! ;;2;;

6+ ? ! 2;;;;

6 ? ! 2;;2;;

*3


6–9

Parameter No. Parameter Data Setting Range Mode

57 Input type 0 to 21

59 Scaling upper limit Scaling lower limit +1 to 9999

58 Scaling lower limit -1999 to scaling upper limit -1

60 Decimal point 0 to 3

30 C/F selection 0: C, 1: F

61 Control output 1 assignment 0 to 4, 6, 10 to 13

62 Control output 2 assignment 0 to 4, 6, 10 to 13

63 Auxiliary output 1 assignment 2 to 4, 6 to 8, 10 to 13Set upSet up

65 Alarm 1 type 1 to 11

66 Alarm 1 open in alarm 0: Closed in alarm, 1: Open in alarm





71 Direct/Reverse operation 0: Reverse operation, 1: Direct operation

28 Set point upper limit *1 Set point lower limit +1 to scaling upper limit

27 Set point lower limit *1 Scaling lower limit to Set point upper limit -1

72 PID / ON/OFF 0: Advanced PID, 1: ON/OFF

35 α 0.00 to 1.00Expansion

85 AT calculated gain 0.1 to 10.0Expansion

36 Automatic return of display mode 0 to 99

93 AT hysteresis 0.1 to 9.9

55 LBA detection width 0.0 to 999.9

6B 3H

6C ;#$!2#$!3+(24!/&'(!BC23!2;22 23!23. !24

6H 4+

62;? ! F

*7

*8

*8

*8

*9

*9

*9


6–10

Issuing special commands

Commandcode

Commandcode

UnitNo.

Instruction code FCS

CR

UnitNo.

Instruction code FCS

CR

Endcode

@

@

*

*

2B 2B 4B 2B 2B

2B 2B 4B 2B 2B2B

3

3

Command

Response

E• =F=

=

2

E• (F

2

E• % 2

- !

>!

8 9!

E•

=# >*$

((!

E•

% !

('!

#+'$:

! /22

E• 7

7

2

E• (

(

2

00 Run/Reset 0000: Run, 0001: Reset

02 Remote/Local 0000: Local, 0001: Remote

07 AT Execute/Cancel0000: Cancel, 0001: 40% AT execu-tion, 0002: 100% AT execution

09 Move to setting level 1 0000

11 Software reset 0000

14 Status 0000: A group, 0001: B group

15 Hold 0000: Hold cancel, 0001: Hold

16 Advance 0000

-8=F=98( 9!

;


6–11

A groupBit Description [1] [0]

0 Heating side output ON OFF *1

1 Cooling side output ON OFF

2 Alarm output 1 ON OFF *2



5 LBA output ON OFF *2

6

7 Run/Reset Reset Run

8 Auto/Manual Manual Auto

9 Remote/Local Remote Local

10

11 AT AT execution OFF

12 Hold During hold OFF

13

14

15

B groupBit Description [1] [0]

0 Setting level 1 0

1

2 Control output 1 type Linear Pulse

3

4

5 Input error ON OFF

6 A/D converter error ON OFF

7

8

9

10

11 Time signal 1 output ON OFF *2

12 Time signal 2 output ON OFF *2

13 Ramp/soak Ramp Soak

14 Program end ON OFF *4

15 During standby ON OFF

62 (8>::9

63 (8>::9

64 1>* 2H;!829

6+ 8>*9*3L M:L M! +2

; 2!89

-!

;!!#;?O

$

About Setting Levels


6–12

Reading/writing program parameters

Reading parameters

ParameterNo.

ParameterNo.

UnitNo.

FCS

CR

UnitNo.

Read data FCS

CR

Endcode

@

@

*

*

2B 2B 4B 2B 2B

2B 2B 4B 2B 2B2B

4 0 0 0 0

4

Command

Response

Writing parameters

ParameterNo.

ParameterNo.

UnitNo.

Write data FCS

CR

UnitNo.

Write data FCS

CR

Endcode

@

@

*

*

2B 2B 4B 2B 2B

2B 2B 4B 2B 2B2B

5

5

Command

Response

.

E• 1

E• =

E• : !

/24/2+


6–13


00 Pattern No. *2 0 to number of patterns -1 *2

01 Step No. monitor *1 0 to number of steps -1

63 Standby time monitor *1 0.00 to 99.59Level 0

02 Pattern elapsing time monitor *1 0.00 to 99.59Level 0

03 Pattern execution count monitor *1 0 to 9999

60 Number of steps 1 to 16

05 Step 0 SP/Target SP 0 SP lower limit to SP upper limit

06 Ramp rate 0 0 to 9999

07 Step 0 time/Soak time 0 0.00 to 99.59















22 Step 5 time/Soak time 5 0.00 to 99.59 Program


g






29 Step 8 SP SP lower limit to SP upper limit

30 Step 8 time 0.00 to 99.59


32 Step 9 time 0.00 to 99.59


34 Step 10 time 0.00 to 99.59


36 Step 11 time 0.00 to 99.59


38 Step 12 time 0.00 to 99.59


40 Step 13 time 0.00 to 99.59

62 =

63 ; =


6–14



42 Step 14 time 0.00 to 99.59


44 Step 15 time 0.00 to 99.59

04 Pattern execution count 0 to 9999

45 Time signal 1 enabled step 0 to 15 Program

46 Time signal 1 ON time 0.00 to 99.59

g

47 Time signal 1 OFF time 0.00 to 99.59

48 Time signal 2 enabled step 0 to 15

49 Time signal 2 ON time 0.00 to 99.59

50 Time signal 2 OFF time 0.00 to 99.59

62 Standby time 0.00 to 99.59 Level 2

54 Operation at power ON *3

55 End condition 0: Reset, 1: Final step SP

61 Number of patterns 1 to 4

51 Program time unit 0: Hour, minute, 1: Minute, second

56 Step time/Rate of rise programming 0: Step time, 1: Rate of rise programming Expansion

57 Time unit of ramp rate 0: Minute, 1: Hour

p

58 PV start 0: SP start, 1: PV start

52 Alarm during ramp step enable 0: OFF, 1: ON

53 Run all enable 0: OFF, 1: ON

64 ;!2=!3=!4%

6.5 How to Read Communications Error Information

6–15

6.5 How to Read Communications Error Information

"

)

8;;9

-8;;9!

CR

UnitNo.

Commandcode

FCS

Command type

Endcode

@ *

End code 0D Code name Command cannot be executed

E• 1

E• 1

E• (+;G(

E• (F 2

E• (( 2

E• -

End code 10 Code name Parity error

."

"-

!

End code 11 Code name Framing error

"-

!

=

*

About the Unit No.

End code

Description

Action

Description

Action

Description

Action


6–16

End code 13 Code name FCS error

:#:",$

":

End code 14 Code name Format error

"-

!

End code 15 Code name Setting range error

*

"

Undefined error

CR

UnitNo.

FCS

@ *

2B2B 2B 2B

CI

E• (

E• ( #

$

E• "*

Description

Action

Description

Action

Description

Action

Description

Action

6.6 Program Example

6–17

6.6 Program Example

How to use programs

: !

CR

UnitNo.

Commandcode

Data FCS

Command type

@ *

2B2B 1B 2B 4B 2B

Input these data. These are automaticallygenerated.

UnitNo.

Commandcode

Data FCS

Command type

CR

Endcode

@ *

2B 1B 2B 4B 2B 2B2B

Procedure#2$ =

#3$ 8=)*9

#4$ 189!#R

$

#+$ 8 9

Conditions when running a programE•

' H/;;

' B

.

3

E• %"


6–18

Program list (language: IBM PC Compatible Machine)

1000 ’1010 ’ PROGRAM : E5CK-T COMMUNICATION PROGRAM1020 ’ FOR IBM PC COMPATBLE MACHINE1050 ’1060 ’ Default RS-232C SPEED: 9600BPS, PARITY: EVEN, DATA: 7, STOP: 21070 OPEN “COM: E73” AS #11080 *REPEAT1090 ’ Enter send data1100 INPUT “send data : ” , SEND$1110’ FCS calculation1120 FCS=01130 FOR IFCS=1 TO LEN (SEND$)1140 FCS=FCS XOR ASC (MID$ (SEND$, IFCS, 1))1150 NEXT1160 FCS$=RIGHT$ (“0”+HEX$ (FCS), 2)1170 ’ Execute communications1180 ZZZ$=SEND$+FCS$+“*”+CHR$ (13)1190 PRINT #1, ZZZ$;1120’ Check response1210 RECCNT=0: TMP$=“”1220 *DRECLOOP:1230 IF LOC (1) < > 0 THEN DREC11240 RECCNT=RECCNT+11250 IF RECCNT=5000 THEN *DRECERR ELSE DRECLOOP1260 *DREC11270 TMP$=TMP$+INPUT$ (LOC (1), #1)1280 IF RIGHT$ (TMP$, 1)=CHR$ (13) THEN *DRECEND

ELSE RECCNT=0: GOTO *DRECLOOP1290 *DRECERR1300 TMP$=“No response !!” +CHR$ (13)1310 *DRECEND1320 RECV$=TMP$1330 PRINT “receive data : ” ; RECV$1340 ’ Repeat to make Command1350’ GOTO *REPEAT1360 ’ END1370 CLOSE #11380 END

6.6 Program Example

6–19

Examples of useE• *8;;9

E• - ! ""

7 ! !

(!

Set the set point to “300.0”E• -

@ 00 5 05 3000

300.0

Set point

Write parameter

E• =

@ 00 5 05 00 3000 (FCS) *

Normal end

Start runningE• -

@ 00 3 00 0000

Run

Run/Reset

Special command

E• =

@ 00 3 00 00 0000 (FCS) *

Normal end

Monitor process valueE• -

@ 00 1 00 0000

Dummy data

Monitor process value

Read parameter

E• =

@ 00 1 00 00 2000 (FCS) *

Process value = 2000

Normal end


6–20

CHAPTER 7 CALIBRATION

7–1

CHAPTER 7CALIBRATION

=

CHAPTER7

B2 . B3

B3 B+

B4 .

= BB

B+ - BH

B 5 - B2;

B/ " -( B23


7–2

7.1 Parameter Structure

E• !LEE M

LEE M

E• 7 !L M

!!

-!L M 89

#$8;9

E•

0 to 10V0 to 5V 1 to 5V

Thermocouple

Thermocouple 1

Transfer output

Data storage

Platinum resistancethermometer Voltage inputCurrent input

Thermocouple 2

Thermocouple 1 : K1/J1/L1/E/N/W/PLII

Thermocouple 2 : K2/J2/L2/R/S/B/T/UPlatinum resistance thermocouple :JPt100/Pt100

Only when thetransfer outputfunction is sup-ported

E• ! ".

→→

-!

→

E• > 89#

$

! "2

E•

#4:$@!

"

E•

E• ( !":

! B23

7.1 Parameter Structure

7–3

E• .*2!

7*3

E• *!

! !

E• 1 !

"

E• >!LEE M

89"

Calibration itemmenu

Calibration itemparameter

Process value

Calibration storemark

Calibration store mark


7–4

7.2 Calibrating Thermocouples

E• !2

#2!I2!&2!!*!1!.&--$3 #3!3!&3!=!!

'!!)$

E• 1 ! (!

#*/B$

Preparations

5

4

3

2

1

1211

DMM

STV

Cold junction compensator

0C/32F

Compensating conductor

10

9

8

7

61413

AC100-240V(AC/DC24V )

~

SOURCE

E• @

;7 !"

#$

E• - !5?F !

?%%

7 ! ?%% ,

E• ) 7

!=!!!'!1.&--!

@

@

( !#

$#$@

@

Connecting theCold JunctionCompensator

0°C/32°F 0°C/32°F

Cold junctioncompensator

Cold junctioncompensator

E5CK-T E5CK-T

Compensating conductor Compensating conductor

Short

Open

7.2 Calibrating Thermocouples

7–5

-

!"#B$#2;$

#2$ 1LEEE M!4;*3 ,

#3$ :!. "L M

#;5$5;51 *3D# $!

"

#4$ . "L M#;5$

5;51 *3D

# $!L M"

#+$ *!@. "

L M#42;5$542;51 *3D#

$! "

#$ .L M"L M#;5$

5;51 *3D

# $! "

#/$ :! ?5!@1 !" 5%"@;

" L M#

$1 *3

D# $! "

#B$ *!-

!"#22$. "

L M#3;($

#C$ 3;( "

-! 83;(9

#H$ . " L M#+(

$

#2;$ +( "

-! 8+(9

#22$. "

. "*3 L M!

-

"*3LEEE M!

#23$ 2 .

"LEEE M

Calibration: thermocouple 1


7–6

-

!"#B$#2;$

#2$ 1LEE M!4;*3 ,

#3$ :!. "L M

#3;5$53;51 *3D# $!

"

#4$ . "L M#;5$

5;51 *3D

# $! "

#+$ *!@. "

L M#42;5$542;51 *3D#

$! "

#$ . "L M#;5$

5;51 *3D

# $! "

#/$ :! ?5!@1 !" 5%"@;

" L M#

$1 *3

D# $! "

#B$ *!-

!"#22$. "

L M#3;($

#C$ 3;( "

-! 83;(9

#H$ . " L M#+(

$

#2;$ +( "

-! 8+(9

#22$. "

. "*3 L M!

-

"*3LEEE M!

#23$ 3 .

"LEEE M

Calibration: ther-mocouple 2

7.3 Calibrating Platinum Resistance Thermometers

7–7

7.3 Calibrating Platinum Resistance Thermometers

PreparationAC100-240V(AC/DC24V )

~

10

9

8

7

6

5

4

3

2

1 1413

1211

DMM

6-dial

SOURCE

E• )"

E• - !/!?%% 7 !?%%,

E• #$*/B

-!"#B$#2;$

#2$ 1LEEE M!4;*3 ,

#3$ :!. "L M

#4;;Ω$/4;;Ω *3D# $! "

#4$ . "L M#;Ω$

*/C1 *3D# $! "

#+$ *!''0

10

9

8

7

6

5

4

3

2

1 1413

1211

6-dial

AC100-240V(AC/DC24V )

~

SOURCE

%"*/B/*/C

Calibration

Cont’d on next page

Change wiring.

Short terminalNos.6 to 8


7–8

#$ . "L M#2;Ω$

/ 2;Ω1 *3 D

# $! "

#/$ . "L M#;Ω$

*/C1 *3D

# $! "

#B$ *!-

!"#22$. "

L M#3;($

#C$ 3;( "

-!

83;(9

#H$ . " L M#+(

$

#2;$ +( "

-!

8+(9

#22$. "

. "*3 LEE M!

-

"*3LEEE M!

#23$

. "LEEE M

From previous page

Short terminalNos.6 to 8

7.4 Calibrating Current Input

7–9

7.4 Calibrating Current Input

Preparation

10

9

8

7

6

5

4

3

2

1 1413

1211

DMM

STV

AC100-240V(AC/DC24V )

~

SOURCE

E• - !5?F !?%% 7 !?%%,

-!"#+$#B$#2$ 1LEEE M!4;

*3 ,

#3$ . " L M#3;($53;(1 *3D# $!

"

#4$ . " L M#;($5;(1 *3D# $! "

#+$ *!-

!"#C$. " L M#3;($

#$ 3;( "

-! 83;(9

#/$ . " L M#+($

#B$ +( "

-! 8+(9

#C$ . "

. "*3 LEE M!

-

"*3LEEE M!

#H$ . "LEEE M

Calibration


7–10

7.5 Calibrating Voltage Input

Preparation

10

9

8

7

6

5

4

3

2

1 1413

1211

DMM

STV

AC100-240V(AC/DC24V )

~

SOURCE

E• - !5?F !

?%% 7 !

?%%,

-

!"#+$#B$

#2$ 1LEE M!4;

*3 ,

#3$ . " L M#5

$551 *3

D# $! "

#4$ . " L M#;5

$5;51 *3

D# $! "

#+$ *!-

!"#C$. "

L M#3;($

#$ 3;( "

-!

83;(9

#/$ . " L M#+(

$

#B$ +( "

-!

8+(9

Calibration: 0 to 5V, 1 to 5V

Cont’d on next page

7.5 Calibrating Voltage Input

7–11

#C$ . "

. "*3 LEE M!

-

L M"*3LEEE M!

#H$ #;5!25$

. "LEE M

-

!"#+$#B$

#2$ 1LEE M!4;

*3

,

#3$ . " L M#2;5

$52;51 *3

D# $! "

#4$ . " L M#;5

$5;51 *3

D# $! "

#+$ *!-

!"#C$. "

L M#3;($

#$ 3;( "

-!

83;(9

#/$ . " L M#+(

$

#B$ +( "

-!

8+(9

#C$ . "

. "*3 LEE M!

-

"*3LEEE M!

#H$ #;2;5$.

"LEE M

From previous page

Calibration: 0 to 10V


7–12

7.6 Checking Indication Accuracy

Checking indication accuracyE• ( !""

E• > .5F. # ;$

E• "

E• .

, %"

@

#$

10

9

8

7

6

5

4

3

2

1 1413

1211

STV

Cold junction compensator

Compensation conductor

AC100-240V(AC/DC24V )

~

SOURCE

E• >

%"@;!5

, "

E• .

,

10

9

8

7

6

5

4

3

2

1 1413

1211

6-dial

AC100-240V(AC/DC24V )

~

SOURCE

E• >

/, "

Thermocouple

Platinum resis-tance thermome-ter

7.6 Checking Indication Accuracy

7–13

E• .

,

10

9

8

7

6

5

4

3

2

1 1413

1211

STV

AC100-240V(AC/DC24V )

~

SOURCE

E• >

5 , "

5 , "

Current input orVoltage input


7–14

CHAPTER 8 TROUBLESHOOTING

8–1

CHAPTER 8TROUBLESHOOTING

=

CHAPTER8

C2 -" C3

C3 7)? C4

C4 7)> C

C+ " >= C/


8–2

8.1 Initial Checks

-!"

#2$ .

%">*(!"

#3$ -@

%"@

@

JumperSetting Parameter Operation

TC/PT Current (0 to 20 mA) Operation is fixed at scaling lowerlimit value.

Current (4 to 20 mA)

Voltage (0 to 10 V, 0 to 5 V) Operation is fixed at scaling lowerlimit value.

Voltage (1 to 5 V)

I Temperature input

Voltage (0 10 V, 0 to 5 V) Operation is fixed at scaling lowerlimit value.

Voltage (1 to 5 V)

V Temperature input

Current (0 to 20 mA) Operation is fixed at scaling lowerlimit value.

Current (4 to 20 mA)

#4$ 1

%"

#+$

1 =343!=+33=+C!

"

( !

- " !

!"!

!

- !89*3

E•

E• -

E• .

About Errors ThatOccur During Motor Calibration

8.2 How to Use the Error Display

8–3

8.2 How to Use the Error Display

1!*2

"!

"

Input error

-

" !!!"

:!

8%5.59# 3$

(

.

Memory error

-

:!>::">* -

!-

!

"

>::#3(+3;(!

, ;G$(

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A/D converter error

-

:!>::">* -

!-

!

"

>::#3(+3;(!

, ;G$(

>::.

Meaning

Action

Operation at er-ror

Meaning

Action

Operation at er-ror

Meaning

Action

Operation at error


8–4

Calibration data error

!

>*

'7

!

Display range over

!

# S2;G$

#2HHHHHHH$

E• 182HHH9 L M

E• 1 8HHHH9 L M

!

- !LM*3

E•

E• -

E• .

About Errors ThatOccur During Mo-tor Calibration

Meaning

Action

Operation at error

Meaning

Operation

8.3 How to Use the Error Output

8–5

8.3 How to Use the Error Output

: !44 >

# 4B$

E• &'( #&'"($

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+C&'(# +2/$

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8&'(9

# 3$

E• - 2!

21!

8-9

E• - 3!

2(F? 1!

8(F? 9

LBA

Input errors

A/D converter error


8–6

8.4 Checking Operation Restrictions

1!

D

- !"

RestrictionInoperable or Invalid Functions

RestrictionAT Execution Limitter Function Other

At heating and coolingcontrol

40%AT

At ON/OFF control Manipulated variableMV change rate

At AT execution MV change rate Parameter setting

At reset Manipulated variableMV change rate

-"89 (

APPENDIX

A–1

APPENDIX

.-:-(->* (3

>*=>&'&>?-(A=(% (

-*A&- (/

%>?&&- (2;

.(=(%=>.=(->*&- (22

(-->?&- (24

OMRON CorporationIndustrial Automation Company

Control Devices Division H.Q.Analog Controller DivisionShiokoji Horikawa, Shimogyo-ku,Kyoto, 600-8530 JapanTel: (81)75-344-7080/Fax: (81)75-344-7189

Regional Headquarters

OMRON EUROPE B.V.Wegalaan 67-69, NL-2132 JD HoofddorpThe NetherlandsTel: (31)2356-81-300/Fax: (31)2356-81-388

OMRON ELECTRONICS LLC1 East Commerce Drive, Schaumburg, IL 60173U.S.A.Tel: (1)847-843-7900/Fax: (1)847-843-8568

OMRON ASIA PACIFIC PTE. LTD.83 Clemenceau Avenue,#11-01, UE Square,239920 SingaporeTel: (65)6835-3011/Fax: (65)6835-2711

OMRON (CHINA) CO., LTD. Room 2211, Bank of China Tower,200 Yin Cheng Road (M)Shanghai, 200120 ChinaTel: (86)21-5037-2222/Fax: (86)21-5037-2200

E5C

KD

igital C

on

troller (P

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User's M

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at. No

. H090-E

1-01B

Cat. No. H090-E1-01B Note: Specifications subject to change without notice.

0706 (1097)

Authorized Distributor:

APPENDIX

A–2

SPECIFICATIONS

Ratings

Supply voltage 100 to 240V AC, 50/60 Hz 24 VAC/DC, 50/60 Hz

Operating VoltageRange 85% to 110% of rated supply voltage

Power Consumption 15VA 6 VA, 3.5 W

Sensor Input

Thermocouple: K, J, T, E, L, U, N, R, S, B, W, PLII *1, *2Platinum resistance thermometer: JPt100, Pt100Voltage input: 4 to 20 mA, 0 to 20 mA (input impedance 150Ω)Current input: 1 to 5 V, 0 to 5 V, 0 to 10 V (input impedance 1MΩ)

Control Output According to output unit (see “Output Unit Ratings and Characteristics” (page A-4)

Auxiliary Output SPST-NO, 3 A at 250 VAC (resistive load)

Control Method Advanced PID or ON/OFF control

Setting Method Digital setting using front panel keys.

Indication Method 7-segment digital display and LEDs

Other Functions According to option unit (see “Option Unit Ratings and Characteristics” (page A-4)

Ambient Temperature -10°C to 55°C (without condensation and icing)/3-year warranty period: -10 to 50°C

Ambient Humidity 35% to 85% (relative humidity)

Storage Temperature -25°C to 65°C (without condensation and icing)

62 11F=3/

63 : ! (+

*1, *2

SPECIFICATIONS

A–3

Characteristics

Indication Accuracy

Thermometer:(T0.3% of indication value or T1°C, whichever greater) T1 digit max. (*1)Platinum resistance thermometer:(T0.2% of indication value or T 0.8°C whichever greater) T1 digit max.Analog input: T0.2%FST1 digit max.

Temperature variation influ-ence (*2)

Platinum resistance thermometer:(T1% of PV or T 2°C, whichever greater) T1 digit max.Thermocouple (R, S, B, W):(T1% of PV or T 2;°C whichever greater) T1 digit max

Voltage variation influence(*2)

(T1% of PV or T2;°C, whichever greater) T1 digit max.Other thermocouples (K1, K2, J1, J2, E, N, T, L1, L2, U, PLII):(T1% of PV or T+°C, whichever greater) T1 digit max.Analog input (current, voltage, or remote SP input): T1%FST1 digit max.

Hysteresis 0.01 to 99.99%FS (in units of 0.1%FS)

Proportional Band (P) 0.1 to 999.9%FS (in units of 0.1%FS)

Integral Time (I) 0 to 3999s (in units of 1 second)

Derivative Time (D) 0 to 3999s (in units of 1 second)

Control Period 1 to 99s (in units of 1 second)

Manual Reset Value 0.0 to 100.0% (in units of 0.1%)

Alarm Setting Range -1999 to 9999 (decimal point position dependent on input type)

Sampling Period Temperature input: 250 ms, Analog input: 100 ms.

Program Method Set time or rate of rise programming

Program Size Max. 4 patterns, Max. 16 steps/pattern

Program Time Accuracy T0.2% T500 ms of set value (even-numbered steps in the “rate of rise program-ming” setting are set to the time unit of ramp rate)

Insulation Resistance 20 M min. (at 500 VDC)

Dielectric Strength 2000 VAC, 50/60 Hz for 1 min. (between electrically live terminals of differentpolarities)

Vibration Malfunction 10 to 55 Hz, 10m/s2 approx. 1G for 10 min. each in X, Y, and Z directionsVibration Resistance Destruction 10 to 55 Hz, 10m/s2 approx. 2G for 2 hrs. each in X, Y, and Z directions

Shock Resistance

Malfunction 200 m/s2 min. approx. 20G, 3 times each in 6 directions (100 m/s2 approx.10G applied to the relay)

ResistanceDestruction 300 m/s2 min. approx. 30G, 3 times each in 6 directions

Weight Approx. 170 g, adapter: approx. 10 g

Enclosure RatingsFront panel: NEMA4 for indoor use (equivalent to IP66)Fear case: IP20Terminals: IP00

Memory Protection Non-volatile memory (number of writes: 100,000) (*3)

62 2!*2;;T3°T2 )!&2&3T3T2 '+;;°=3;;°T4°T2 1T2 T;4GT4° .&--T2 T;4GT3°

63 (J2;°34°°5 J2U2;G

64 1. !F!

APPENDIX

A–4

Sensor Input Setting Ranges and Indication Ranges

Input Setting Range Indication Range

JPt100 -199.9 to 650.0 (C°) / -199.9 to 999.9 (F°) -199.9 to 735.0 (C°) / -199.9 to 999.9 (F°)

Pt100 -199.9 to 650.0 (C°) / -199.9 to 999.9 (F°) -199.9 to 735.0 (C°) / -199.9 to 999.9 (F°)

K1 -200 to 1300 (C°) / -300 to 2300 (F°) -350 to 1450 (C°) / -560 to 2560 (F°)

K2 -0.0 to 500.0 (C°) / -0.0 to 900.0 (F°) -50.0 to 550.0 (C°) / -90.0 to 990.0 (F°)

J1 -100 to 850 (C°) / -100 to 1500 (F°) -195 to 945 (C°) / -260 to 1660 (F°)

J2 -0.0 to 400.0 (C°) / -0.0 to 750.0 (F°) -40.0 to 440.0 (C°) / -75.0 to 825.0 (F°)

T -199.9 to 400.0 (C°) / -199.9 to 700.0 (F°) -199.9 to 460.0 (C°) / -199.9 to 790.0 (F°)

E 0 to 600 (C°) / -0 to 1100 (F°) -60 to 660.0 (C°) / -110 to 1210 (F°)

L1 -100 to 850 (C°) / -100 to 1500 (F°) -195 to 945 (C°) / -260 to 1660 (F°)

L2 0.0 to 400.0 (C°) / 0.0 to 750.0 (F°) -40.0 to 440.0 (C°) / -75.0 to 825.0 (F°)

U -199.9 to 400.0 (C°) / -199.9 to 700.0 (F°) -199.9 to 650.0 (C°) / -199.9 to 999.9 (F°)

N -200.0 to 1300 (C°) / -300 to 2300 (F°) -199.9 to 460.0 (C°) / -199.9 to 790.0 (F°)

R 0 to 1700 (C°) / 0 to 3000 (F°) -350 to 1450 (C°) / -560 to 2560 (F°)

S 0 to 1700 (C°) / 0 to 3000 (F°) -170 to 1870 (C°) / -300 to 3300 (F°)

B 100 to 1800 (C°) / 300 to 3200 (F°) -170 to 1870 (C°) / -300 to 3300 (F°)

W 0 to 2300 (C°) / 0 to 4100 (F°) -70 to 1970 (C°) / 10 to 3490 (F°)

PLII 0 to 1300 (C°) / 0 to 2300 (F°) -230 to 2530 (C°) / -410 to 4510 (F°)

4 to 20mA

0 to 20mA

1 to 5V

0 to 5V

0 to 10V

One of following ranges depending onresults of scaling

-1999 to 9999

-199.9 to 999.9

-19.99 to 99.99

-1.999 to 9.999

-10 to 110% of setting range. Note, however, that max. value is -1999to 9999.

Output Unit Ratings and Characteristics=

: ! 3B

Option Unit Ratings and Characteristics

Contact input ON: 1kΩ max., OFF: 100kΩ min.

Event inputsNo-contact input ON: residual voltage 1.5 V max., OFF: leakage current 0.1 mA

max.

Communications

Interface :RS-232C, RS-422 or RS-485

Transmission method :Half-duplex

Synchronization method :Start-stop synchronization (asynchronous method)

Baud rate :1.2/2.4/4.8/9.6/19.2 kbps

Transfer output DC 4 to 20 mA, Permissible load impedance: 600Ω max., Resolution: Approx.2600

CONTROL BLOCK DIAGRAM

A–5

CONTROL BLOCK DIAGRAM

SPlimitter

Program

PV

Temperatureinput

Digital filter

Input shift

Analog input

Digital filter

Scaling

Input type

Control method

Control mode Control mode

ON/OFF control PID control ON/OFF control

3-position control PID control

MV change rate limitter

MV changerate limitter

MV limitter MV limitter

Dead band

MV at PV error

Manual MV

MV at stop

Error

Reset

Manual

Manipulatedvariable(cool)

Manipulatedvariable(heat)

Error

Reset

Manual

Process/function

Control

Data

Heatingside

Coolingside

Heatingside

Coolingside

ResetReset

APPENDIX

A–6

SETTING LIST

Mode Parameter Name Setting Range Unit Default Remarks Setting

ProtectSecurity 0 to 6 None 1

ProtectKey protect 0/1/2/3 None 0

Manual Manual MV -5.0 to 105.0 % 0.0

Pattern No. 0 to number of patterns -1 None 0

Level 0 Hold OFF/ON None OFF At program opera-tion

Advance OFF/ON None OFF At program opera-tion

Pattern No. 0 to number of patterns -1 None 0

Number of steps 1 to 16 None 8

toSteps 0 to 15 SP/Target SP 0 to 7 SP lower limit to SP upper limit EU 0

to Ramp rate 0 to 7 0 to 9999 *3 0

toStep 0 to 15 time/Soak time 0 to 7 0.00 to 99.59 *4 0.00

Pattern executioncount 0 to 9999 Times 1

Program Alarm value 1 -1999 to 9999 EU 0Program

Alarm value 2 -1999 to 9999 EU 0

Alarm value 3 -1999 to 9999 EU 0

Time signal 1 enabledstep 0 to 15 None 0

Time signal 1 ON time 0.00 to 99.59 *4 0.00

Time signal 1 OFFtime 0.00 to 99.59 *4 0.00

Time signal 2 enabledstep 0 to 15 None 0

Time signal 2 ON time 0.00 to 99.59 *4 0.00

Time signal 2 OFFtime 0.00 to 99.59 *4 0.00

AT Execute/Cancel OFF/ AT-1/AT-2 None OFF

Proportional band 0.1 to 999.9 %FS 10.0

Integral time 0 to 3999 sec 233

Derivative time 0 to 3999 sec 40

Cooling coefficient 0.01 to 99.99 None 1.00 At heating andcooling control

Level 1 Dead band -19.99 to 99.99 %FS 0.00 At heating andcooling control

Manual reset value 0.0 to 100.0 % 50.0

Hysteresis (heat) 0.01 to 99.99 %FS 0.10

Hysteresis (cool) 0.01 to 99.99 %FS 0.10 At heating andcooling control

Control period (heat) 1 to 99 sec 20

Control period (cool) 1 to 99 sec 20 At heating andcooling control

*2

*2

*2

*1

SETTING LIST

A–7


Remote/Local RMT/LCL None LCL

Standby time 0.00 to 99.59 Hour,Min. 0.00

LBA detection time 0 to 9999 Sec 0

MV at reset -5.0 to 105.0 % 0.0

MV at PV error -5.0 to 105.0 % 0.0

MV upper limit MV lower limit +0.1 to 105.0 % 105.0

Level 2MV lower limit -5.0 to MV upper limit -0.1 % -5.0

Level 2MV change rate limitter 0.0 to 100.0 %FS 0.0

Input digital filter 0 to 9999 sec 0

Alarm 1 hysteresis 0.01 to 99.99 %FS 0.02



Input shift upper limit -199.9 to 999.9 °C/°F 0.0 Temperature input

Input shift lower limit -199.9 to 999.9 °C/°F 0.0 Temperature input

Input type 0 to 21 None 2

Scaling upper limit Scaling lower limit +1 to 9999 None 100 Analog input

Scaling lower limit -1999 to scaling upper limit -1 None 0 Analog input

Decimal point 0 to 3 None 0 Analog input

C/F selection C/F None C Temperature input

Parameter initialize Yes/No None NO

Control output 1 assignment *7 None HEAT

Control output 2 assignment *7 None AL-1

Auxiliary output 1 assignment *8 None AL-2

Setup Alarm 1 type 1 to 11 None 2 Output assignmentneeded

Alarm 1 open in alarm N-O/N-C None N-O Output assignmentneeded

Alarm 2 type 1 to 11 None 2 Output assignmentneeded


Alarm 3 type 1 to 11 None 2 Output assignmentneeded


Direct/Reverse operation OR-R/OR-D None OR-R

62 ? !2;;G

63 )8. &9# (22$

64 )F

6+ .

6 ? ! ;;2;;G

6/ ? ! 2;;;;G

6B 7(F>>&F(&2F(&3F(&4F7'(F&'(F2F3F.*?FA

6C (&2F(&3F(&4F7'(F&'(F2F3F.*?FAF==F444

*1

*2

*5

*6

APPENDIX

A–8


Set point upper limit Set point lower limit +1 to scaling upper limit EU 1300

Set point lower limit Scaling lower limit to Set point upper limit -1 EU -200

PID / ON/OFF PID / ON/OFF None PID

Operation at power ON CON/RST/RUN/MAN None CON

End condition RST/SP None RST

Number of patterns 1 to 4 None 1

Program time unit HHMM/MMSS None HHMM

Step time/Rate of rise pro-gramming TIME/PR None OFF

Expan-i

Time unit of ramp rate M/H None OFFExpansion PV start PV/SP None SP

Alarm during ramp step en-able ON/OFF None ON

Run all enable ON/OFF None OFF

α 0.00 to 1.00 None 0.65

AT calculated gain 0.1 to 10.0 None 1.0

Automatic return of displaymode 0 to 99 Sec 0

AT hysteresis 0.1 to 9.9 %FS 0.2

LB detection width 0.0 to 999.9 %FS 0.2

Event input assignment 1 NON/RST/MAN/HOLD/ADV/PTN0 to 1 None NON

Communication stop bit 1/2 bit 2

Communication data length 7/8 bit 7

Communication parity NONE/EVEN/ODD None EVEN

Option Communication baud rate 1.2/2.4/4.8/9.6/19.2 kbps 9.6p

Communication unit No. 0 to 99 None 0

Transfer output type SP/PV/O/C-O None SP

Transfer output upper limit *10 *10 10

Transfer output lower limit *10 *10 *10

6H 1! 89#$

62;

Transfer Output Type Transfer Output Lower Limit to Transfer Output Upper Limit

SP :Present SP -1999 to 9999

PV :Process value -1999 to 9999

O :Manipulated variable (heat) -5.0 to 105.0% (standard control), 0.0 to 105.0% (heating and cooling control)

C-O :Manipulated variable (cool) 0.0 to 105.0%

Default : [SP]

*9*9

SETTING LIST

A–9

APPENDIX

A–10

MODEL LIST

Description Type Name Specification

Base unit E5CK-TAA1 AC100-240 Base Unit

E5CK-TAA1-500 AC100-240 Base Unit with terminal cover

E5CK-TAA1 AC/DC24 Base Unit

E5CK-TAA1-500 AC/DC24 Base Unit with terminal cover

Output module E53-R4R4 Relay/relay

E53-Q4R4 Pulse (NPN)/relay

E53-Q4HR4 Pulse (PNP)/relay

E53-C4R4 Linear (4 to 20mA)/relay

E53-C4DR4 Linear (0 to 20mA)/relay

E53-V44R4 Linear (0 to 10V)/relay

E53-Q4Q4 Pulse (NPN)/pulse (NPN)

E53-Q4HQ4H Pulse (PNP)/pulse (PNP)

Option module E53-CK01 RS-232C

E53-CK03 RS-485

E53-CKB Event input : 1 point

E53-CKF Transfer output (4 to 20mA)

Terminal cover E53-COV07 Terminal cover for E5CK-T

The output unit is required for E5CK-TAA1 (including -500). For details on the output unit, see page 2-3.When adding on the option unit, also see the option unit list on page 2-3.

PARAMETER OPERATIONS LIST

A–11

PARAMETER OPERATIONS LIST

E•

E•

Level 0

Program

1 second min.

Manual mode

Protect mode

Parameters in a mode can beswitched by the key. The param-eter following the last parameter is thetop parameter of the mode.

Power ON

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

1 second min.

Level 1

Level 2

Setup mode

Expansionmode

Option mode

Calibrationmode

1 second min.

1 second min.1 second min.

1 second min.

+

+

+

+

RUN/RST

RUN/RST

RUN/RST

Level 0 Program Level 1

PV/Present SP Pattern No. AT Execute/Cancel

Pattern No. Number of steps Proportional band

Step No. monitor to Step 0 to 7 SP Integral time

Hold to Ramp rate 0 to 7 Derivative time

Advance to Step 0 to 7 time Cooling coefficient

Standby time monitor to Step 8 to 15 SP Dead band

Pattern elapsing time monitor to Step 8 to 15 time Position-proportional dead band

Pattern execution count monitor Pattern execution count Manual reset value

MV monitor (heat) Alarm value 1 Hysteresis (heat)

MV monitor (cool) Alarm value 2 Hysteresis (cool)

Alarm value 3 Control period (heat)

Time signal 1 enabled step Control period (cool)



Time signal 2 enabled step



*1

*1

*1In the rate of rise setting, Target SP 0to 7 and Soak time 0 to 7.

APPENDIX

A–12

Level 2 Setup Expansion

Remote/Local Input type Set point upper limit

Standby time Scaling upper limit Set point lower limit

LBA detection time Scaling lower limit PID / ON/OFF

MV at reset Decimal point Operation at power ON

MV at PV error °C/°F selection End condition

MV upper limit Parameter initialize Number of patterns

MV lower limit Control output 1 assignment Program time unit

MV change rate limit Control output 2 assignment Step time/Rate of rise programming

Input digital filter Auxiliary output 1 assignment Time unit of ramp rate

Alarm 1 hysteresis Alarm 1 type PV start

Alarm 2 hysteresis Alarm 1 open in alarm Alarm during ramp step enable

Alarm 3 hysteresis Alarm 2 type Run all enable

Input shift upper limit Alarm 2 open in alarm α

Input shift lower limit Alarm 3 type AT calculated gain

Alarm 3 open in alarm Automatic return of display mode

Direct/Reverse operation AT hysteresis

LBA detection width

Option Calibration

Event input assignment 1 For details, refer to Chapter 7 Calibra-tion/7 1 Structure of Parameters” (page

Communication stop bittion/7.1 Structure of Parameters” (page7-2).

Communication data length ManualCommunication parity

Manual

Communication baud rate Manual MV

Communication unit No.

Transfer output type ProtectTransfer output upper limit

Protect

Transfer output lower limit Alarm 1 open in alarm

Alarm 2 type

ASCII CODE LIST

A–13

ASCII CODE LIST

Hex 0 1 2 3 4 5 6 7

Bin 0000 0001 0010 0011 0100 0101 0110 0111

0 0000 SP 0 @ P p

1 0001 ! 1 A Q a q

2 0010 ” 2 B R b r

3 0011 # 3 C S c s

4 0100 $ 4 D T d t

5 0101 % 5 E U e u

6 0110 & 6 F V f v

7 0111 ’ 7 G W g w

8 1000 ( 8 H X h x

9 1001 ) 9 I Y i y

A 1010 * : J Z j z

B 1011 + ; K [ k

C 1100 , < L ¥ l |

D 1101 - = M ] m

E 1110 . > N ^ n ~

F 1111 / ? O _ o DEL

Upper 4 bits

Lower 4 bits

INDEX

SymbolsVFV: J42

Numbers2;;G( 4J3+

+;G( 4J3+

A( /J22

(F? CJ4!CJ

(F%" 2J+

( 2J23

( * 4J32

(>? % CJ+

( /J

(>* +J24

( J3

(. +J24

(.-?. 4J3

(= +J23

((5?. 4J2

(: 2J22

( 2J4

(>1.? J3

()* /J2

( +J2C!JC

(2 J3/

(2 J4

(2 J4+

(3 J3/

(3 J4

(3 J4+

(4 J3/

(4 J4

(4 J4+

( 4J2;

( 4JH

( 4JH!4J2

( 2 J2+

( 3 J2+

( 4 J2+

( J+3

( 4J

(-->?&- (J24

(F J2C

( 4J3

(J #($ 4J3+

(J " 2J+

(F% +J2C

(2 3JC

(2 J44

B' /J22

'J!'J> 4J34

'>: 4J3

C /J4

- BJH

2J23

.= BJB

BJ+

2J23

5 - BJ2;

BJB!BJH

CJ+

BJ4

% 2JH

;2;5 BJ22

;5!25 BJ2;

2 BJ

3 BJ/

+JC

4J32

. 4J32

4J32

(J4

" -( BJ23

" BJ23

" >= CJ/

F 4J2;

/J

= /JB

J+/

J+/

J+/

J+/

* J+/

/J+

/J2B

I BJ+

>*=>&'&>?-(A=(% (J

3JB

2 J43

3 J43

4JC

#$ J32

INDEX

#$ J32

) 4J3

) J3

+J3!J2H

2J

5 BJ24

D? +J3!J2H

? J4;

? J2C

? +J2C

? &'( +J3;

? 3J+

?F= 4JB!J4

? CJ+

?" 2J+

?J 3J3

E /J2

+J2/!J4C

2J

2 J+

/J2H

+J22

% 2JH!J4/

F: 2J2;

: 2J3

H7 +J3

7 JC

7F +J2;

7F7 +J2C

7 " +JH

7: /J/

7= - /J2

7" 2J+

7 /J2B

7)? CJ4

7)> CJ

7)> +J32

7 +J+

7#$ J3;

7#$ J3;

I-" CJ3

- 3JB

-> 2J

- +J2B

- J3/

- CJ4

- CJ

- J3B

- J3B

- 4J+!J3H

- 3J+

- J2C

- /J3

- /J2;

K 4J2C!J+

L&'( +J2H!CJ

&'( +J2H

&'( +J2H!J3+

&'( +J2H

& ;% 2JC!J/

& 2% 2JC!J2B

& 3% 2JC!J33

& +J/

M% 2J3

% +J4

% 4J3;

% +J

%% 2JC!J

%%5 J

% J3;

% CJ4

%>?&&- (J2;

% /J2H

%5.5 J3+

%5 J3+

%5 J3

%5 +J

%5 +J

%5 J3

%5#$ J2;

%5#$ J2;

%5 J3

N* 2J3

*2 2J4

*3 2J4

INDEX

* J4H

* 4J2+!J23

O>*F>:: +J+

> = +J

>- +JH

>>* +J2!J4C

>&? 2J4

> 3JC

>% 2JH!J++

>)= (J+

> /J3

>: /J3

> 2J/

> 2J/!4JB

>)= (J+

P. 3J+

.D J42

.(=(%=>.=(->*&- (J22

. BJ3

. 2JC

.% 2JC

. JH

. J2+

. JH

.* 4J2+!JB

. +J22

. +J2C

.-?F>*F>:: J4B

. BJ23

. 3J/

. 3J/

. BJB!BJH!BJ2;

. BJ+

. /J4

. /J2B

. 2JB

. +J2+

. /J2B

. +JH

. /J2C

. % J22

. 2JC

. > +J2;

. +J24!+J2+

. +JH

. J2C

.% 2JC!4J2C!J4

.5 +J2/!J+2

.5F.. J/

R=; J24

=B J24

===. +JB

= /JB!/J23

= F /JB

= F /J23

= 2J23

= +JC

=F& J34

= +J22

=J343 2J22!/J4

=J+C 2J22!/J4

=F= +J2C

= +JC

S J4;

J4;

4J2C!J4

2JH

2J2;

% +J3

- = -= (J+

+J/

J4B

J4B

84;;;9 /J2H

( 4JH

- 4J+

-*A&- (J/

> 4JB

. 4J24

= +J2

/J+

@ 3J3

&'( +J3;

3J3

4J4

% 2JC!J3C

.-:-(->* (J3

INDEX

+J2+

4JB

+J2/

, 4J2;

J34

JH

/J2H

> 4J3;

+J2/

;#$ J23!J24

2.#$ J23

2#$ J24

B.#$ J23

B#$ J24

C.#$ J23

C#$ J24

* JB

2JB

.F 4J2+

4J22

%> +J4

T 2J!4J

4J

4J

3J/

J3

BJ23

+J24

2 J2

2>:: J2/

2>* J2

3 J2

3>:: J2/

3>* J2

J+;

2J/

J+B

+J32

+J32!J+B

J+B

/J3

U) /J2/

)" 2J+

) - 4J3;

V5 2J

W18;9!+JC

1 3J/

1 3J/

1 /JB!/J2

Revision History

(

*7;H;2;2'

=

.

Revision code Date Revised content

1 September 1997 Original Production

01A December 2004 Page A-3: Added information to table and accompanying notes.

01B July 2006 Page 4-15: Changed descriptions for “Reset” and “Run” selection.

Page 4-15: Added a note describing “–” after the table.

Pages 4-16 and 5-38: Added a note at the end of End Condition.

Page A-7: Changed the unit for alarm hysteresis from “%” to “%FS.”

OMRON CorporationIndustrial Automation Company

Control Devices Division H.Q.Analog Controller DivisionShiokoji Horikawa, Shimogyo-ku,Kyoto, 600-8530 JapanTel: (81)75-344-7080/Fax: (81)75-344-7189

Regional Headquarters

OMRON EUROPE B.V.Wegalaan 67-69, NL-2132 JD HoofddorpThe NetherlandsTel: (31)2356-81-300/Fax: (31)2356-81-388

OMRON ELECTRONICS LLC1 East Commerce Drive, Schaumburg, IL 60173U.S.A.Tel: (1)847-843-7900/Fax: (1)847-843-8568

OMRON ASIA PACIFIC PTE. LTD.83 Clemenceau Avenue,#11-01, UE Square,239920 SingaporeTel: (65)6835-3011/Fax: (65)6835-2711

OMRON (CHINA) CO., LTD. Room 2211, Bank of China Tower,200 Yin Cheng Road (M),Shanghai, 200120 ChinaTel: (86)21-5037-2222/Fax: (86)21-5037-2200

E5C

KD

igital C

on

troller (P

rog

ramm

able T

ype)

User's M

anu

alC

at. No

. H090-E

1-01B

Cat. No. H090-E1-01B Note: Specifications subject to change without notice.

0706 (1097)

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E5CK Users Manual - OmronIII How This Manual is Organized Purpose Title Description Learning about the gener-al features of the E5CK-T ˘