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YOKOGAWA provides registered users with a variety of information and services.
Please allow us to serve you best by completing the product registration form accessible
from our homepage.
Authorised Representative in the EEA ....................................................................................................................................3
Handling Precautions for the Main Unit ..................................................................................................................................4
Checking the Contents of the Package .................................................................................................................................. 5
Symbols Used in This Manual ................................................................................................................................................ 6
About an Electronic Manual ................................................................................................................................................... 6
Introduction to Functions .....................................................................................................................................7
Part Names .............................................................................................................................................................8
Front Panel Part Names ..........................................................................................................................................................8
Swinging the Front Panel Up and Down ................................................................................................................................ 8
Part Names of the Internal Panel Seen with the Front Panel Swung up.................................................................................9
Overview of Display Switching and Operation Keys ............................................................................................................. 11
Monitoring and Control of Regular Operations (Operation Display) ..............................................................16
Monitoring and Operating the Operation Display ................................................................................................................. 16
Monitoring and Operating the LOOP Display .................................................................................................................16
Monitoring and Operating the METER Display ............................................................................................................... 20
Monitoring and Operating the TREND Display .............................................................................................................. 24
Monitoring and Operating the ALARM Display ..............................................................................................................26
Monitoring and Operating the DUAL Display ................................................................................................................. 28
Switching of Operation Modes (Automatic Control (A), Manual Control (M), or Cascade Setting Automatic Control (C))....30
Switching by Keystroke ...................................................................................................................................................30
Switching in Response to Digital Input ..........................................................................................................................31
Operating the Tuning Displays ...........................................................................................................................32
Operating the Engineering Displays..................................................................................................................36
Setting the Controller Mode ..................................................................................................................................................36
Setting the Control Type and Control Operation Formula ....................................................................................................37
Setting the Scale and Decimal Point Position for Process Variables ....................................................................................38
Registering a Tag and Units ..................................................................................................................................................39
Starting Operations by Manual Operation ............................................................................................................................ 40
PID Parameter Tuning Guide and Automatic Adjustment .................................................................................................... 41
Installation and Wiring ........................................................................................................................................42
Mounting the Instrument Main Unit ................................................................................................................................ 43
Installing an Expandable I/O Terminal ............................................................................................................................44
YS1500/YS1700 main unit .............................................................................................................................................45
Transmitter Supply Power Wiring ...................................................................................................................................52
Wiring for Digital Input/Output and FAIL Output..............................................................................................................53
Direct Input Wiring (Optional Code /A0) ..................................................................................................................... 54
Wiring for the Serial Communication Interface (Optional Code /A31) ........................................................................... 55
Wiring for Distributed Control System (DCS-LCS) Communication (Optional Code /A32) ............................................ 56
Wiring for Peer-to-peer Communication (YS1700, Optional Code /A31) ....................................................................... 56
Wiring for the Ethernet Communication Interface (Optional Code /A34) ........................................................................ 56
Wiring for Power Supply and Grounding ........................................................................................................................57
Installing the Terminal Cover ................................................................................................................................................57
How to Take Actions if the ALM Lamp or FAIL Lamp Lights up ............................................................................................ 58
Backup Operation in the Event of Instrument Failure ..........................................................................................................62
Recovery Operations after Power Failures .......................................................................................................................... 63
List of Parameters ...............................................................................................................................................64
YS1500 Indicating Controller/YS1700 Programmable Indicating
Controller
User’s Manual (Electronic version)
Chapter 1 Control Function
Chapter 2 Auxiliary Control Function
Chapter 3 Auxiliary Input and Output Functions
Chapter 4 Display and Security Functions
Chapter 5 Adjusting of Direct Inputs (Temperature/Resistance/
Frequency)
Chapter 6 Processing during Power Failures
Chapter 7 Self-tuning Function
Chapter 8 Maintenance
Chapter9 Specications
YS1000 Series Communication Interface
User’s Manual (Electronic version)
Chapter 1 Overview
Chapter 2 Setting Communication Functions
Chapter 3
Chapter 4 Description of Ethernet Communication (Modbus/
Chapter 5 Description of DCS-LCS Communication (Optional
Chapter 6
Chapter 7 Functions and Application of YS1310/YS1350/
Appendix ASCII Code Table
Description of RS-485 Communication (Optional Code:
/A31)
TCP) (Optional Code: /A34)
Code: /A32)
Functions and Application of YS1500/YS1700 D-registers
YS1360 D-registers
YSS1000 Setting Software for YS1000 Series/
YS1700 Programmable Function
User’s Manual (Electronic version)
Chapter 1 Overview
Chapter 2 YSS1000 Operation Guide
Chapter 3 User Program Creation Guide
Chapter 4 Operation of Computation and Control Programs
Chapter 5 Basic Usage of Control Modules
Chapter 6 Applied Usage of Control Modules
Chapter 7 Operations and Application of Computing Module
(Instructions)
Chapter 8 Using Peer-to-peer Communication
Chapter 9 Maintenance
Chapter 10 Sample Program
Chapter 11 Worksheets / Program Sheets / Parameter Sheets
Chapter 12 List of Text Program Instructions
YS1000 Series Replacement Manual
(Electronic version)
Chapter 1 Overview
Chapter 2 Replacement with YS100-compatible Type
Chapter 3 Replacement with YS80 Internal Unit-compatible
Type and EBS, I, EK, or HOMAC-compatible Type
Chapter 4 Replacement with YS80-compatible Type
Chapter 5 Replacement with 100 Line-compatible Type
2
IM 01B08B02-01EN
Page 6
Foreword
Thank you for purchasing the YS1000 series single-loop controller
(hereinafter referred to as “YS1000”).
This manual describes the basic functions and operation methods of
the YS1500/YS1700. Please read though this user’s manual carefully
before using the product.
Note that the manuals for the YS1500/YS1700 comprise the following
vedocuments:
● Printedmanual
Manual NameManual Number
YS1500/YS1700 Operation Guide IM 01B08B02-01EN
This manual describes the basic operation methods.
Precautions on the Use of the YS1000 Series
This manual is always delivered even if ‘without
manuals’ was selected.
● Electronicmanuals
Manual NameManual Number
YS1500/YS1700 Operation GuideIM 01B08B02-01EN
This is identical to the printed manual.
YS1500/YS1700 User’s ManualIM 01B08B02-02EN
This manual describes the detailed functions and setting items. It
does not contain the user programs and communication functions.
YS1000 Series Communication Interface
User’s Manual
This manual describes how to use YS1000 in Ethernet, serial, and
DCS-LCS communications.
YSS1000 Setting Software/YS1700
Programmable Function User’s Manual
This manual describes how to use YSS1000 and YS1700’s
programmable function.
YS1000 Series Replacement Manual IM 01B08H02-01EN
This manual describes the compatibility of installation and wiring
with YS100, YS80, EBS, I, EK, HOMAC, and 100 line.
Precautions on the Use of the YS1000 Series
This manual is always delivered even if ‘without
manuals’ was selected.
User’s manuals for YS1000 are available on the following web site:
www.yokogawa.com/ns/ys/im/
You need Adobe Reader 7.0 or later (but the latest version is
recommended) installed on the computer in order to open and read
the manuals.
The printed versions of the electronic manuals are available for
purchase. Contact your nearest YOKOGAWA dealer for details.
are trademarks or registered trademarks of their respective
companies.
Authorised Representative in the EEA
Yokogawa Europe BV. (Address: Euroweg 2, 3825 HD Amersfoort,
The Netherlands) is the Authorised Representative of Yokogawa
Electric Corporation for this Product in the EEA.
Revisions
1st Edition: June 2014
2nd Edition: May 2015
3rd Edition: Mar. 2016
4th Edition: Mar. 2018
Safety Precautions
Thefollowingcontentsarefor the sux codes “-0”, “-1” and
“-2”
This instrument is a product of Installation Category II of IEC/
EN61010-1, IEC/EN61010-2-201 and IEC/EN61010-2-030 Safety
Standards and Class A (use in commercial and industrial areas) of
EN61326-1, EN55011 (EMC Standards) (use a ferrite core and an
arrester to comply with the standards).
CAUTION
This instrument is a class A product (use in commercial and
industrial areas). In a domestic environment this product may
cause radio interference in which case the user needs to take
adequate measures.
This instrument is designed to be used within the scope of
Measurement Category O (other) and is dedicated for indoor use.
* Measurement Category O (other)
This category applies to electric equipment that measures a
circuit connected to a low-voltage facility and receives power from
stationary equipment such as electric switchboards.
To use the instrument properly and safely, observe the safety precautions
described in this user’s manual when operating it. Use of the instrument
in a manner not prescribed herein may compromise protection features
inherent in the device. We assume no liability for or warranty on a fault
caused by users’ failure to observe these instructions.
This instrument is an FM Non-incendive or CSA Non-incendive Standard
certiedproduct.
FM nonincendive: Class 3600:2011
Class 3611:2004
Class 3810:2005
Locations: Class I, Division 2, Groups A,B,C and D
Class I, Zone 2, Groups II C
Temperature Code: T4
CSA nonincendive: C22. 2 No. 213-M1987
CAN/CSA-C22.2 No. 0-10
CAN/CSA-C22.2 No. 0.4-04
Locations: Class I, Division 2, Groups A,B,C and D
Temperature Code: T4
3
Page 7
Notes on the User’s Manual
“Handle with Care” (This symbol is attached to the part(s)
Direct current
• This user’s manual should be readily accessible to the end users
so it can be referred to easily. It should be kept in a safe place.
• Read the information contained in this manual thoroughly before
operating the product.
• The purpose of this user's manual is not to warrant that the
product is well suited to any particular purpose, but rather to
describe the functional details of the product.
The following symbols are used in the product and user’s manuals to
indicate safety precautions:
of the product to indicate that the user’s manual should be
referred to in order to protect the operator and the
instrument from harm.)
Protective grounding terminal
Functional grounding terminal (Do not use this terminal as
a protective grounding terminal.)
Alternating current
• In order to protect the system controlled by this product and the
product itself, and to ensure safe operation, observe the safety
precautions described in this user’s manual. Use of the instrument
in a manner not prescribed herein may compromise the product's
functions and the protection features inherent in the device.
We assume no liability for safety, or responsibility for the product's
quality, performance or functionality should users fail to observe
these instructions when operating the product.
• Installation of protection and/or safety circuits with respect to a
lightning protector; protective equipment for the system controlled
by the product and the product itself; foolproof or failsafe design
of a process or line using the system controlled by the product
or the product itself; and/or the design and installation of other
protective and safety circuits are to be appropriately implemented
as the customer deems necessary.
• Be sure to use the spare parts approved by YOKOGAWA when
replacing parts or consumables.
• This product is not designed or manufactured to be used in critical
applications include nuclear power equipment, devices using
radioactivity, railway facilities, aviation equipment, air navigation
facilities, aviation facilities, and medical equipment. If so used,
it is the user’s responsibility to include in the system additional
equipment and devices that ensure personnel safety.
disconnect the wiring of the protective grounding terminal. Doing so
renders the protective functions of the instrument invalid and poses a
potential shock hazard.
● DefectsinProtectiveFunctions
If protective functions such as grounding are suspected to be
defective, do not operate the instrument. Ensure that all protective
functions are in working order before operating the instrument.
● DoNotUseinanExplosiveAtmosphere
Do not operate the instrument in locations with combustible
or explosive gases or steam. Operation in such environments
constitutes an extreme safety hazard. Use of the instrument in
environments with high concentrations of corrosive gas (H
etc.) for extended periods of time may cause a failure.
S, SOx,
2
● DoNotRemoveInternalUnit
The internal unit should not be removed by anyone other than YOKOGAWA's
service personnel. There are dangerous high voltage parts inside.
● ExternalConnection
Ensure that protective grounding is connected before connecting the
instrument to the device under measurement or to an external control circuit.
• YOKOGAWA makes no warranties regarding the product except
those stated in the WARRANTY that is provided separately.
• The product is provided on an "as is" basis. YOKOGAWA
assumes no liability to any person or entity for any loss or
damage, direct or indirect, arising from the use of the product or
from any unpredictable defect of the product.
Notes on Software
• YOKOGAWA makes no warranties, either expressed or implied,
with respect to the software’s merchantability or suitability for
• To use the software on another machine, the software must be
purchased again separately.
It is strictly prohibited to reproduce the product except for backup purposes.
•
• Store the software CD-ROM (the original medium) in a safe place.
• All reverse-engineering operations, such as reverse compilation
or the reverse assembly of the product are strictly prohibited.
• No part of the product’s software may be transferred, converted,
or sublet for use by any third party, without prior written consent
from YOKOGAWA.
Handling Precautions for the Main Unit
•
The instrument comprises many plastic components. To clean it, wipe
it with a soft, dry cloth. Do not use organic solvents such as benzene
or thinner for cleaning, as discoloration or deformation may result.
• Keep electrically charged objects away from the signal terminals.
Not doing so may cause the instrument to fail.
• Do not apply volatile chemicals to the display area, operation
keys, etc. Do not leave the instrument in contact with rubber or
PVC products for extended periods. Doing so may result in failure.
• If the equipment emits smoke or abnormal smells or makes
unusual noises, turn OFF the instrument’s power switch
immediately and unplug the device. In such an event, contact
your sales representative.
Regarding the LCD
A small number of missing or steady-on LCD pixels and
minor variations in brightness uniformity is a normal display
characteristic and not a malfunction.
Protection of Environment
Waste Electrical and Electronic Equipment
(WEEE), Directive
Applicable models: YS1700-10x, -11x, -12x, -20x, -21x, -22x
YS1500-10x, -12x, -20x, -22x
However, except the option /A08.
This is an explanation of how to dispose of this product based on
Waste Electrical and Electronic Equipment (WEEE), Directive. This
directive is only valid in the EU.
● Marking
This product complies with the WEEE Directive
marking requirement. This marking indicates that
you must not discard this electrical/electronic
product in domestic household waste.
● ProductCategory
With reference to the equipment types in the
WEEE directive, this product is classified as a
“Small equipment” product.
Do not dispose in domestic household waste.
When disposing products in the EU, contact your
localYokogawaEuropeB.V.oce.
4
IM 01B08B02-01EN
Page 8
Checking the Contents of the Package
0001E.ai
Unpack the box and check the contents before using the product. If
When contacting your sales representative, inform them of this
number too.
ModelandSuxCodes
Model
YS1700
YS1500
Use
Type
Power supply
Direct input (*4)
Communication
Certification
*1
Suffix
-1
-2
Only YS1700 is compatible. The expandable I/O terminal (model YS010)
and expandable I/O cable (model YS011) (cable length: 3 m) are provided.
Code
0
1
2
3
4
5
0
1
Optional
Code
/A01
/A02
/A03
/A04
/A05
/A06
/A07
/A08
/DF
/A31
/A32
/A34
/FM
/CSA
Remarks
Programmable indicating controller
Indicating controller
With hard manual unit
Without hard manual unit
Basic type
Basic type with expandable I/O (*1)
Compatible type for YS100 (with
YS100 case)
Compatible type for YS80 internal unit/
compatible type for EBS, I, EK, and
HOMAC (*2)
Compatible type for YS80 (compatible
size for YS80 with YS100 terminal)
Compatible type for pneumatic 100
line (with YS100 terminal) (*3)
100 V AC, 24 V DC common power
220 V AC power
mV input
Thermocouple input
RTD input
Potentiometer input
Isolator
Two-wire transmitter input (isolated)
Two-wire transmitter input (non-isolated)
Frequency input (*11)
Direct input with Fahrenheit
temperature range function (*5)
RS-485 communication (PC-link,
Modbus, YS protocol, and Peer-toPeer) (*6)
DCS-LCS communication (*7)
Ethernet communication (Modbus/
TCP) (*8)
FM nonincendive approved (FM Class
I, Div 2) (*9)
CSA safety and nonincendive
approved (Class I, DIV 2) (*10)
*2 This type can be connected to the YS80 housing (model SHUP).
(The EK/HOMAC-compatible housing (SHUP-420) and EBS/I
series-compatible housing (SHUP-100) are sold separately.)
The 100 line-compatible housing (model YS006) is sold separately.
*3
*4 Direct input options can be combined only with suffix codes “-2,”
“-4,” or “-5.” Selection of multiple options is not possible.
Optional code /DF can be combined only with optional code /A02 or /A03.
*5
*6 A combination with suffix code “-3” is not possible. Optional
codes /A31 and /A32 cannot be simultaneously specified. Please
specify the communication options /A31 (RS-485 communication)
to directly communicate with the CENTUM CS3000/VP.
*7 Optional codes /A31 and /A32 cannot be simultaneously
specified. Please specify the communication options /A32 (DCSLCS communication) to communicate with the CENTUM CS3000/
VP through the SCIU.
Optional code /A34 can be specified only for suffix codes “-0” or “-1.”
*8
*9
Optional code /FM can be combined only with suffix codes “-0” or “-1.”
*10 This option can be combined only with suffix codes “-0,”
“-1,” “-2.” However, certification is planned for the
combination of suffix code -2 and optional code /CSA.
*11 When option code /A08 is specified, the conformity to CE marking
is excluded
For the installation and wiring of YS1500/YS1700-2, -3,
-4, or -5, see the YS1000 Series Replacement Manual.
user must refer to the user’s manual for special instructions. The
same symbol is used in the user’s manual on pages that the user
needs to refer to, together with the term “WARNING” or “CAUTION.”
WARNING
Calls attention to actions or conditions that could cause serious or
fatal injury to the user, and indicates precautions that should be taken
to prevent such occurrences.
CAUTION
Calls attention to actions or conditions that could cause injury to
the user or damage to the instrument or property and indicates
precautions that should be taken to prevent such occurrences.
For the RJC mounting, see the chapter “Installation and Wiring” in this
A1179MN 1
–1
manual or the YS1000 Series Replacement Manual.
For YS100-0, or
YS100-1
For YS100-2
For YS100-4
450 × 3.5 mm
434 × 2 mm
Supplied with YS1700-
.
1
Cable length: 3 m
Supplied with YS1700-1.
Supplied with products with
optional code /A02. (*1)
For direct input cable
(Supplied with products
with optional code /A0
This user’s manual, A4
size
Indicates related operations or explanations for the user’s reference.
Indicates a character string displayed on the display.
[ ]
Setting Display
Indicates a setting display and describes the keystrokes required to
display the relevant setting display.
Perform the operations in chronological order. This section describes
the procedure under the assumption that these steps are being
Describes restrictions, etc. regarding a relevant operation.
Accessories (sold separately)
The following lists accessories that are sold separately. When
ordered, check that none of them are missing or damaged. To inquire
about the accessories or about how to place an order, contact your
sales representative.
No.Item NameModel
120Ωterminating
1
resistor (*1)
YS0201
Sales
Unit
Remarks
For RS-485
communication
About an Electronic Manual
User’s manuals for YS1000 are available on the following web site:
www.yokogawa.com/ns/ys/im/
You need Adobe Reader 7.0 or later (but the latest version is
recommended) installed on the computer in order to open and read
the manuals.
For a built-in 24 V
250Ωshuntresistor
2
YS0211
transmitter power
supply
*1 The instrument has a built-in terminating resistor, which can be
selected for use by setting the relevant parameter. If a terminating
resistor is used in another device at the termination of the same
communication system, an external terminating resistor needs to
be provided to match the terminating resistance of the YS1000’s
built-in terminating resistor.
6
IM 01B08B02-01EN
Page 10
Introduction to Functions
The YS1000 series is a series of single-loop controllers to meet the demands of users’ consistently advancing and diversifying
needs. It is capable of the flexible control computation required for process control.
Features
• Color LCD display
The monitoring and operation display is provided in color, and input and output values, various constants, and incorporated
control functions can be set freely using key switches on the front panel. The monitoring displays include LOOP Display,
TREND Display, ALARM Display, and METER Display which provides information in much the same way as analog meters.
• Failsafe function
Two CPUs are configured to provide manual operations and displays even if one of the CPUs becomes faulty. Moreover, be-
cause the instrument incorporates a hard manual circuit independent of the digital circuit, it can continue to generate manipulated output variables even if the digital circuit that includes the CPUs fails.
• AC/DC-common power supply with wide operating voltage range.
The instrument can be powered by either AC (100 V AC) or DC (24 V DC).
• The front panel is dust- and water-proof (conforming to IP54).
• Abundant communication functions
The instrument can incorporate Ethernet (Modbus/TCP) communication, serial communication (Modbus, PC-link, and YS
protocol), and DCS-LCS communication.
• Control functions and abundant computation functions
The instrument is capable of single-loop, cascade, selector, and programmable control functions.
It can also perform computations such as the four arithmetic operations, logic computation, exponent, logarithm, temperature
compensation, pressure correction, etc. and peer-to-peer communication. (Optional YSS1000 Setting Software is required.)
Introduction to Functions
• Number of I/O points
Use of YS1700’s expandable I/O terminal allows the use of a maximum of eight analog inputs, a maximum of four analog
outputs, and a maximum of 14 DIOs.
Definition of Terms
• PV: Process variable input from process
• SV: Setpoint regarded as a control target
• MV: Manipulated variable for operating control elements such as valves.
• PID control: Control system based on action which combined three elements: proportional (P) action, integral (I) action, and
derivative (D) action.
• M mode: Mode in which manipulated output variables are operated manually.
• A mode: Mode in which MV is automatically controlled based on YS1000’s setpoint
• C mode: Mode in which MV is controlled based on an external setpoint
• Multi-function mode: Modes of the three preinstalled functions (single-loop mode, cascade mode, and selector mode)
• Programmable mode: Mode in which input/output or control computation is programmed
• User program: A program created using the YSS1000 Setting Software (available as an option)
IM 01B08B02-01EN
7
Page 11
Part Names
0201E.ai
Front Panel
0202E.ai
0203E.ai
0204E.ai
Front Panel Part Names
(12)
(1)
(9)
(10)
(11)
Figure 2.1
(2)
(3)
(4)
(5)
(6)
(7)
(8)
Swinging the Front Panel Up and Down
Swinging up the front panel
1.
Press upwards in the center of the bottom of the front panel. You can draw the front panel toward you until you feel a slight
resistance and the movement of the front panel will stop.
(You can swing up the front panel more smoothly if hold the top and bottom of the front panel.)
2.
Swing the front panel up and out from that position.
(1) Color LCD display: 120 × 320 dots
(2) FAIL lamp (LED: red)
(3) ALM lamp (LED: yellow)
(4) C mode key, A mode key, M mode key, and LED indicators
(C: green, A: green, M: yellow)
(5) SV increase key
(6) SV decrease key
(7) PF key and LED indicator
(8) Page key
(9) MV increase key
(10) MV decrease key
(11) Fast-change key/SHIFT key
(12) TAG label (recommended position to attach label)
of Regular Operations (Operation Display)” in this manual.
Figure 2.3
Figure 2.2
Swinging down the front panel
Push down on the center of the top of the front panel. When you feel a slight sense of resistance, stop pushing. Slide it forward
from that position. It will click into place, indicating that it is locked.
Figure 2.4
8
8
IM 01B08B02-01EN
Page 12
Part Names of the Internal Panel Seen with the Front Panel Swung up
0205E.ai
(9)
Part Names
(1)
(7)
(5)
(3)
(8)
(4)
(6)
(3)
(2)
Figure 2.5
(1) Connector for connection to a PC (PROGRAMMER)
This is a communication cable connector for downloading, uploading, or monitoring parameters or user programs set using
(2) Metal lever
Touch the metal lever to discharge static electricity. Before you connect the cable to the YS110 connector, touch the metal
lever.
(3) Connector for YS110 standby manual station (MANUAL STA)
(4) Internal unit release lever
(5) Hard manual operation wheel (HARD MANUAL)
An operation wheel to manipulate an output
(6) MV balance lamp (BAL) (Color: green)
Lights up when a manipulated output variable and the hard manual unit’s output value agree with each other.
(7) Hard manual selector switch (ON/OFF)
The switch used to switch to a manipulated variable (MV) set using the hard manual operation wheel.
(8) An internal unit fixing screw
(9) LED and switch for repair
Contact us for repair.
For products with suffix code -2xx, there are no hard manual unit-related parts ((5), (6), and (7)).
Part Names
Do not remove the internal unit from the instrument case. Contact YOKOGAWA’s sales office or sales representative when
removing the internal unit, as safety standard inspection is required.
Explosionhazard.
Do not remove or insert the internal unit in explosive atmospheres.
Products with optional code /FM or /CSA cannot satisfy the explosion protection standards if the internal unit is removed.
IM 01B08B02-01EN
WARNING
WARNING
CAUTION
9
Page 13
YS1500/YS1700 Operating Procedure
YS1500 or
YS1700
Tuning/operations can be
0301E.ai
When using the instrument for the first time, proceed according to the following sequence:
YS1500
Unpack the instrument and check the specifications
Turn ON power supply
Select the
multi-function mode
► Setting the Controller Mode (p.36)
Multi-function mode has
the following three modes:
• Single-loop mode
• Cascade mode
• Selector mode
Installation
No
YS1700
► Checking the Contents of the Package (p.5)
► Installation and Wiring (p.42)
Will you create
user programs?
Yes
YS1700
Turn ON power supply
Select the
programmable mode
► Seting the Controller Mode (p.36)
Write user programs
► YSS1000 Setting Software/YS1700 Programmable
Function User’s Manual
YSS1000
Setting Software (PC)
Create
user programs
► YSS1000 Setting
Software/YS1700
Programmable
Function User’s
Manual
10
10
Set up engineering constants
Start tuning/operation
Regular operation
► Operating the Engineering
Displays (from p.36)
set using the YSS1000
Setting Software.
► Operating the Tuning Displays
(from p.32)
Tuning Guide (from p.40)
► Monitoring and Control of Regular Operations (from p.16)
Figure 3.1
► YSS1000 Setting
Software/YS1700
Programmable Function
User’s Manual
IM 01B08B02-01EN
Page 14
Basic Operation
Power ON
0401E.ai
SHIFT
Overview of Display Switching and Operation Keys
The YS1000 has the following three display groups:
(1) Operation Display Group
This group has a LOOP Display which allows operation mode switching during control operation, SV setting, and MV opera-
tion; a TREND Display which displays the trends of PV, SV, and MV; an ALARM Display which displays detailed alarm infor-
mation; a LOOP Display which displays two loops simultaneously (operation is on a loop basis); and a METER Display which
displays PV, SV, and MV on a meter scale using a pointer.
(2) Tuning Display Group
This group has a display for setting and displaying control parameters such as PID, and a display for monitoring input/output
signals.
(3) Engineering Display Group
This group has a display for setting up functions as a controller, a display for setting and displaying various registers and vari-
ous tables, a display for setting input specifications and a password setting display.
Selecting a Display
The flow of display selecting operations is as follows:
SHIFT
SHIFT
SHIFT
+++
Operation Display
group
C
Tuning Display
group
For operations of the Tuning Display and Engineering Display groups, see
“Operating the Tuning Displays” and “Operating the Engineering Displays .”
Engineering Display
group
YS1500/YS1700 Operating
Procedure
Basic Operations
Basic Operations
Figure 4.1
When the instrument’s power is turned ON, the Operation Display appears.
1.
Each time the Page key ( ) is pressed with the SHIFT key (
2.
The display changes in the order of Operation Display, Tuning Menu Display, and Engineering Menu Display, after which the
Operation Display reappears.
) held down, the display is switched.
Note
Operation of the SHIFT key + Page key (a two key keystroke) implies that you should press the Page key with the SHIFT key
held down. Doing so in the opposite order does not switch the display.
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1111
Page 15
Basic Operations
Software keys
Software keys are keys displayed on the LCD. The functions of the software keys are assigned to the operation keys on
the right of the display.
In the figure at the left, the ↑ (UP) software key corresponds with the
mode key.
To the LOOP1, TREND1, METER1,
or DUAL 1 Display (To an Operation
Display on which the Tuning Menu
Display is selected for the first time)
group
PID1
PID2
STC1
STC2
PID Setting Display 1
PID Setting Display 2
STC Setting Display 1
STC Setting Display 2
P&T REG
P&T Register Display 1/3
↑
Press at the first line.
Press at the last line.
P&T Register Display 2/3
↑
Press at the first line.Press at the last line.
I/O DATA
P&T Register Display 3/3
I/O Data Display
+
Engineering Display
group
CONFIG1
CONFIG2
SCMAINT
PASSWORD
SMPL & BATCH
Function Setting Display 1
Function Setting Display 2
Input Specification Setting Display
Password Setting Display
Sample & Batch Setting Display
OPE
OPE
OPE
OPE
↓
Press at the last line.
↓
TREND3
Display
↓
TREND2
Display
To the LOOP2, TREND2, METER2,
or DUAL 2 Display (To an Operation
Display on which the Tuning Menu
Display is selected for the first time)
↑
Press at the first line.
SHIFT
+
Basic Operations
Engineering
Menu Display 2
[DISPLAY]
[LCD]
[COMM]
[
GX1 TABLE]
[GX2 TABLE]
[FX TABLE]
IM 01B08B02-01EN
DISPLAY
LCD
COMM
GX1 TABLE
GX2 TABLE
FX TABLE
Setting Display for Operation
Display
LCD Setting Display
Communication Setting Display
GX1 Table Setting Display
GX2 Table Setting Display
FX Table Setting Display
Engineering
Menu Display 3
[PGM1 SET]
PGM2 SET]
[
[
PID TABLE]
[
K CONST]
[LCD MAINT]
Figure 4.5
PGM1 SET
Program-setting-unit 1
PGM2 SET
Setting Display
Program-setting-unit 2
PID TABLE
K CONST
Setting Display
Preset PID Setting Display
K-constant Display 1/2
↑↓
Press at the first line.Press at the last line.
LCD MAINT
K-constant Display 2/2
LCD Maintenance Display
15
Page 19
Monitoring and Control of Regular Operations
(22) Key LOCK status display
0501E.ai
(Operation Display)
Monitoring and Operating the Operation Display
Monitoring and Operating the LOOP Display
Tag number (1)
Display title (2)
P-register display (18)
PV digital display (3)
SV digital display (7)
MV digital display (9)
HH pointer, PH pointer (5)
Alarm generation display,
control status display
LL pointer, PL pointer (5)
Cascade setting input value (20)
PV underflow (6)
ML pointer (11)
MV valve direction (13)
MV underflow (12)
MV bar, MV scale (10)
(17)
(19) Operation status display
(14) Engineering units
(16) 100% value of scale
(6) PV overflow
(8) SV pointer
(4) PV bar
(15) PV bar scale
(21) PF key function display
(16) 0% value of scale
(11) MH pointer
(13) MV valve direction
(12) MV overflow
Figure 5.1
Table 5.1
No. in
Figure
(1)Tag number
Name Description
A tag number combining alphanumeric characters and symbols having a maximum of 12 digits
is displayed on a loop basis.
(2)Display title The title of the display being shown is indicated.
(3)PV digital display
(4)PV bar
A PV value is displayed in engineering units in a digital value of five significant digits (seven
digits including a sign and decimal point).
A PV value is displayed in a bar. The bar display is in 200 dots at full scale (100%) and
increases/decreases on a dot (0.5%) basis.
PH values (high limit alarm setpoints for PV) and PL values (low limit alarm setpoints for PV) are indicated
PH, PL, HH, and LL
(5)
pointers
with triangular pointers, while HH values (high-high limit alarm setpoints for PV) and LL values (low-low
limit alarm setpoints for PV) are indicated with pointers which are overlapped pairs of triangles. Pointers
are clipped and displayed at 0% if PV values are below 0%, or displayed at 100% if they exceed 100%.
PV underflow and
(6)
PV overflow
(7)SV digital display
A PV underflow is displayed if a PV value is below 0%, while a PV overflow is displayed if it
exceeds 100%.
An SV value is displayed in engineering units in a digital value of five significant digits (seven
digits including a sign and decimal point).
SV values are indicated with triangular pointers. The pointer display moves up and down with
(8)SV pointer
a resolution of 0.5%. Pointers are clipped and displayed at 0% if SV values are below 0%, or
displayed at 100% if they exceed 100%.
(9)MV digital display
MV bar
(10)
MV scale
(11)MH and ML pointers
MV underflow and
(12)
MV overflow
An MV value is displayed in a digital value of four significant digits (six digits including a sign
and decimal point, with the number of decimal places fixed to one digit) in a % display.
An MV value is displayed in a bar. The bar display is in 80 dots (100%) at full scale, divided into
20 blocks (5%) for display. It increases/decreases on a dot (1.25%) basis. A scale divided into
10 (10% segments) is also displayed.
MH values (high limit setpoints of MV) and ML values (low limit setpoints of MV) are indicated
with triangular pointers.
An MV underflow is displayed if an MV value is below 0%, while an MV overflow is displayed if it
exceeds 100%.
(13)MV valve direction MV valve direction is displayed as [C] (closed) or [O] (open). The valve direction can be set.
16
16
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Monitoring and Control of Regular Operations (Operation Display)
Table 5.2
No. in
Figure
Name Description
(14)Engineering units Engineering units (UNIT) are displayed in a maximum of seven digits.
(15)PV bar scale The PV bar scale is displayed divided into a maximum of 10 segments (10% segments).
0% value of scale, 100%
(16)
value of scale
Alarm generation display,
(17)
Control status display
P-register display
(18)
0% value of scale (SCL) and 100% value of scale (SCH) are displayed in engineering units in
a digital value of five significant digits (seven digits including a sign and decimal point).
Alarm and control statuses are displayed in abbreviations. These vary according to
controller mode in the multi-function mode; or according to the control module in the
programmable mode. See Tables 5.3 to 5.5.
When this display is enabled, P register is displayed on the LOOP 1 and LOOP 2
Displays individually. This display is available in the programmable mode.
The controller operation status is displayed.
DisplayDescription
[POWER DOWN]Power down is being detected.(1)
[H.MAN]Hard manual selector switch has been activated. (2)
Operation status display
(19)
(No indication) The instrument is operating.
[STOP]Operation stopped (such as while setting a
function on the Engineering Display, etc.)
Cascade setting input
(20)
value
[TEST1]
[TEST2]
When the instrument is used in the cascade mode, a cascade setting input value is
displayed in engineering units in a digital value of five significant digits (seven digits
including a sign and decimal point). No value is displayed in the programmable mode.
Test run mode 1 (only in the programmable mode)
Test run mode 2 (only in the programmable mode)
Simulation program is being executed
The key function is displayed. The key function display is different in the multifunction mode and the programmable mode.
1) Multi-function mode
The key function is set using the PF key function selection parameter [PFKEY].
(21)
key function display
When the STC mode selection is “not OFF” and the “ key has been set to STC”,
the function display becomes [STC]. In other cases, nothing is displayed.
2) Programmable mode
The key function can be defined in user programs.
The function display becomes [PF] in the programmable mode.
The key LOCK status is displayed.
DisplayDescription
[ALLK]
Key LOCK status display
(22)
[MDLK]
[SVLK]
[MVLK]
Table 5.3 Alarm Display and Control Status Display in the YS1500/YS1700 Multi-function Mode
Controller Mode
Display Item
SYS-ALM
Alarm generation display (Note 1)
STC-ALM
ALARM-1
CAS
Control status display (Note 2)
SPC, DDC
BUA, BUM
Control substatus display 1
Control substatus display 2
Control substatus display 3
Note 1: This display appears only if an alarm occurs. If multiple alarms occur simultaneously, they are indicated in multiple lines.
Note 2: Only when the operation mode is in cascade setting automatic control (C mode) is a control status displayed, while nothing is indicated in
automatic control (A mode) or manual control (M mode).
IM 01B08B02-01EN
EXT-MAN,EXT-AUT
EXT-PMV,EXT-TRK
SV TRK, PV TRKOPEN, CLOSE
STC-ON, STC-DSP,
ATSTUP
, , and keys, SV increase and decrease (, ) keys, MV
increase and decrease (, ) keys, and key are disabled.
, , and keys are disabled.
SV increase and decrease (
MV increase and decrease (
, ) keys are disabled.
, ) keys are disabled.
Single Loop Cascade Selector
SYS-ALM
STC-ALM
ALARM-1
ALARM-2
CAS
SPC, DDC
BUA, BUM
SYS-ALM
STC-ALM
ALARM-1
ALARM-2
CAS
SPC, DDC
BUA, BUM
EXT-TRK,EXT-PMV EXT-TRK,EXT-PMV
SV2-RMT, SV2-LCL
SEL1, SEL2
STC-ON, STC-DSP,
ATSTUP
STC-ON, STC-DSP
Display
Priority Order
(3)
Monitoring and Control of
Regular Operations
17
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Monitoring and Control of Regular Operations (Operation Display)
Table 5.4 Alarm Display and Control Status Display in the YS1700 Programmable Mode
Control Module
Display Item
Alarm generation display (Note 1)
Control status display (Note 2)
Control substatus display 1
Basic Control
(BSC1)
SYS-ALM
STC-ALM
ALARM-1
CAS
SPC, DDC
BUA, BUM
NoneNoneNoneNone
Cascade Control
(CSC)
SYS-ALM
STC-ALM
ALARM-1
ALARM-2
CAS
SPC, DDC
BUA, BUM
Selector Control
(SSC)
SYS-ALM
STC-ALM
ALARM-1
ALARM-2
CAS
SPC, DDC
BUA, BUM
SYS-ALM
STC-ALM
ALARM-1
ALARM-2
CAS
SPC, DDC
BUA, BUM
SV2-RMT
Control substatus display 2
None
OPEN, CLOSE
SV2-LCL
SEL1, SEL2
None
SEL-EXT
Control substatus display 3
STC-DSP
ATSTUP
Note 1: This display appears only if an alarm occurs. If multiple alarms occur simultaneously, they are indicated in multiple lines.
Note 2: Only when the operation mode is in cascade setting automatic control (C mode) is a control status displayed, while nothing is indicated in
automatic control (A mode) or manual control (M mode).
Table 5.5 Meaning of Display Abbreviations
STC-ON
STC-ON
STC-DSP
ATSTUP
STC-ON
STC-DSP
STC-ON
STC-DSP
ATSTUP
Symbol Meaning Symbol Meaning
SYS-ALM
STC-ALM
ALARM-1
ALARM-2
CAS
SPC
DDC
BUA
BUM
EXT-MAN
EXT-AUT
EXT-PMV
EXT-TRK
A system alarm occurred.
An STC alarm occurred.
A loop 1 process alarm occurred.
A loop 2 process alarm occurred.
Remote operation being conducted in response to
external setpoint input
Remote operation being conducted in response to
SV from a high-level device
Remote operation being conducted in response to
MV from a high-level device
Transition to backup auto status
Transition to backup manual status
Transition to manual control in response to external
digital input
Transition to automatic control in response to
external digital input
Preset MV being output in response to external
digital input
Output being tracked in response to external digital
input
Monitoring and Control of Regular Operations (Operation Display)
Operating the LOOP Display
This section describes keystrokes for performing various settings and operations on the LOOP Display.
(1) Switching the operation mode
M mode key: Switches the operation mode to manual control (M mode).
A mode key: Switches the operation mode to automatic control (A mode).
C mode key: Switches the operation mode to cascade setting automatic control (C mode).
Moreover, the LED inside the operation mode key corresponding to the current operation mode lights up.
This key is enabled when the operation mode is in the A or M mode.
SV increase key: Increases an SV value.
SV decrease key: Decreases an SV value.
(3) MV operation
The MV operation key is used to manually operate a manipulated output variable (MV). This key is enabled when the opera-
tion mode is in the M mode.
MV increase key: Increases an MV value.
MV decrease key: Decreases an MV value.
Moreover, pressing an MV operation key with the
increase/decrease speed.
SHIFT
(fast-change key/SHIFT key) held down accelerates the MV-value
(4) PF key functions
The PF key functions are different in the multi-function mode and the programmable mode.
Multi-functionmode:
The PF key function is set on the Function Setting Display 3 (CONFIG 3). There are the following two parameter designations:
(1) No function: The PF key does not function.
(2) STC ON/OFF: The PF key switches STC operation ON/OFF.
If STC ON/OFF is specified, when STC is ON the LED inside the PF key lights up.
Programmable mode:
The PF key function is defined by user programs then used. The LED in the PF key can be turned ON/OFF by the user pro-
grams.
For cascade control, selector control, or dual-loop control, the loop 1 can be operated on the LOOP 1 Display, while the loop 2
can be operated on the LOOP 2 Display.
Monitoring and Control of
Regular Operations
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Monitoring and Control of Regular Operations (Operation Display)
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0502E.ai
Monitoring and Operating the METER Display
Tag number (1)
Display title (2)
V, SV, MV digital display (3)
HH pointer, PH pointer (11)
LL pointer, PL pointer (11)
ML pointer (14)
MV valve direction (15)
MV pointer (13)
Figure 5.2
Table 5.6
No. in
Figure
Name Description
(1)Tag number As on the LOOP Display, a tag number appears here.
(2)Display title The title of the display being shown is indicated.
PV, SV, and MV
(3)
digital display
(4)PV meter scale
Main scale marks,
(5)
subscale marks
PV, SV, and MV digital values are displayed here.
The PV meter scale displays main and subscale marks, a numerical scale, a scale factor, and engineering units.
The main scale marks and subscale marks are determined by setting the variables to the 0% value of scale (SCL) and to
the 100% value of scale (SCH), which causes the scale to be automatically divided into divisions based on those values.
The scale range is clearly represented in the range of the number of numerical scale digits using the
(6)Scale factor
power of 10 (× 10n). It is possible to set the value of the power, however it can also be automatically
determined from the 0% value of scale (SCL) and 100% value of scale (SCH).
The numerical scale is automatically determined from the 0% value of scale (SCL) and 100% value of
(7)Numerical scale
scale (SCH), and is displayed centered and to the right of the main scale marks. The number of digits to
be displayed is three (or four digits if there is no decimal point).
(8)PV pointer
(9)SV pointer
A PV value is indicated by two pointers (at the left and right sides of the scale). The pointer display
moves up and down with a resolution of 0.5%.
An SV value is indicated with a pointer. The pointer display moves up and down with a resolution of 0.5%.
(10)Engineering units Engineering units (UNIT) are displayed in a maximum of seven digits.
PH, PL, HH, and LL
(11)
pointers
MV meter scale
(12)
MV pointer
(13)
MH and ML pointers
(14)
MV valve direction The MV valve direction is displayed as [C] (closed) or [O] (open). The valve direction can be set.
(15)
PH values (high limit alarm setpoints for PV) and PL values (low limit alarm setpoints for PV) are indicated
with triangular pointers, while HH values (high-high limit alarm setpoints for PV) and LL values (low-low limit
alarm setpoints for PV) are indicated with pointers which are overlapped pairs of triangles.
Scale marks are displayed on the MV meter scale. The mark at the far left is the 0% position and the
mark at the far right is the 100% position. Each scale division is 5%.
MV values are indicated with a pointer. Since the scale’s full scale is 80 dots (100%), the MV pointer
increases and decreases in a resolution of 1.25%.
MH values (high limit setpoints of MV) and ML values (low limit setpoints of MV) are indicated with
triangular pointers.
Monitoring and Control of Regular Operations (Operation Display)
Name Description
The controller operation status is displayed.
DisplayDescription
[POWER DOWN] Power down is being detected.(1)
Operation status
display
[H.MAN]Hard manual selector switch has been activated. (2)
(No indication) The instrument is operating.
[STOP]Operation stopped (such as while setting a function
on the Engineering Display, etc.)
[TEST1]Test run mode 1 (only in the programmable mode)
[TEST2]
Test run mode 2 (only in the programmable mode)
Simulation program is being executed
The key function is displayed. The key function display is different in the multi-function
mode and the programmable mode.
1) Multi-function mode
key function
display
The key function is set using the PF key function selection parameter [PFKEY].
When the STC mode selection is “not OFF” and the “ key has been set to STC”, the
function display becomes [STC]. In other cases, nothing is displayed.
2) Programmable mode
The key function can be defined in user programs.
The function display becomes [PF] in the programmable mode.
The key LOCK status is displayed.
DisplayDescription
Key LOCK status
display
[ALLK]
[MDLK]
[SVLK]
[MVLK]
, , and keys, SV increase and decrease (, ) keys, MV
increase and decrease (, ) keys, and key are disabled.
, , and keys are disabled.
SV increase and decrease (
MV increase and decrease (
Control status is displayed in abbreviations. Control status display differs according to
Control status display
the controller mode in the multi-function mode; or according to the control module in the
programmable mode. See Tables 5.8 to 5.10.
Display
Priority Order
(3)
, ) keys are disabled.
, ) keys are disabled.
Table 5.8 Control Status Display in the YS1500/YS1700 Multi-function Mode
Controller Mode
Display Item
Control status display (Note 1)
Control substatus display 1 (Note 2)
Control substatus display 2 (Note 3)
Table 5.9 Control Status Display in the YS1700 Programmable Mode
Control Module
Display Item
Control status display (Note 1)
Control substatus display 1 (Note 2)
Single Loop Cascade Selector
CAS
SPC, DDC
BUA, BUM
EXT-MAN,EXT-AUT
EXT-PMV,EXT-TRK
SV TRK, PV TRKOPEN, CLOSE
Basic Control
CAS
SPC, DDC
BUA, BUM
CAS
SPC, DDC
BUA, BUM
None None
Cascade
Control
CAS
SPC, DDC
BUA, BUM
Selector Control
CAS
SPC, DDC
BUA, BUM
CAS
SPC, DDC
BUA, BUM
SV2-RMT, SV2-LCL
SEL1, SEL2
Dual-loop
CAS
SPC, DDC
BUA, BUM
None None None None
Control
SV2-RMT
Control substatus display 2 (Note 3)
None OPEN, CLOSE
SV2-LCL
SEL1, SEL2, SEL-
None
EXT
Note 1: Only when the operation mode is in cascade setting automatic control (C mode) is a control status displayed, while nothing is indicated in
automatic control (A mode) or manual control (M mode).
Note 2: When each control substatus is generated, one item is displayed. Nothing is displayed when a status is not generated.
Note 3: One of the control substatuses is always displayed.
Monitoring and Control of
Regular Operations
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Monitoring and Control of Regular Operations (Operation Display)
Remote operation being conducted in response to
external setpoint input
Remote operation being conducted in response to
SV from a high-level device
Remote operation being conducted in response to
MV from a high-level device
Transition to backup auto status
Transition to backup manual status
Transition to manual control in response to external
digital input
Transition to automatic control in response to
external digital input
Preset MV being output in response to external
digital input
Output being tracked in response to external digital
input
SV TRK
PV TRK
OPEN
CLOSE
SV2-RMT
SV2-LCL
SEL1
SEL2
SEL-EXT
Operating the METER Display
The following four operations can be conducted on the METER Display.
The operations can be conducted in the loop 1 when the display title shows METER 1, and in the loop 2 when it shows METER 2.
The operation methods are the same as those of the LOOP Display.
22
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Monitoring and Control of Regular Operations (Operation Display)
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Monitoring and Control of
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Monitoring and Control of Regular Operations (Operation Display)
(5) Trend data 1 to 4 pointers
(14) Key LOCK status display
(13) PF key function display
(8) 0% value of scale
Tag number (1)
Display title (2)
Time span scale (10)
Trend display time span (11)
MV display (12)
(6) Operation status display
(7) Engineering units
(8) 100% value of scale
(9) Scale marks
Trend data 1 to 4 trend display (4)
Trend data 1 to 4 digital display (3)
0503E.ai
Monitoring and Operating the TREND Display
The TREND Display provides trend displays of PV, SV, MV, etc. in addition to the LOOP Display functions.
The TREND 1 Display can provide trend displays of PV1, SV1, and MV1; the TREND 2 Display can provide those of PV2, SV2,
(2)Display title The title of the display being shown is indicated.
(3)Digital display
(4)Trend display
(5)Trend data pointers
(6)
(7)Engineering units Engineering units (UNIT) are displayed in a maximum of seven digits.
(8)
(9)Scale marks
Figure 5.3
Name Description
A tag number combining alphanumeric characters and symbols having a maximum of 12 digits
is displayed on a loop basis.
For TREND 3 Display, the tag number of the loop 1 is indicated.
PV, SV, and MV digital values are displayed.
For TREND 3 Display, data selections 1 to 4 are indicated.
The time span of the set trend display is divided into 60 partitions, and PV, SV and MV values
in the period of one time partition are displayed with the smallest and largest values of selected
data in the vertical line of one element. Trend display is clipped and displayed at 0% if a
relevant value is below 0% or at 100% if it exceeds 100%.
PV, SV, and MV values and selected data are indicated with triangular pointers. The pointer
display moves up and down with a resolution of 0.5%.
The controller operation status is displayed.
DisplayDescription
[POWER DOWN] Power down is being detected.(1)
Operation status
display
0% value of scale,
100% value of scale
[H.MAN]Hard manual selector switch has been activated. (2)
(No indication) The instrument is operating.
[STOP]Operation stopped (such as while setting a function
[TEST1]Test run mode 1 (only in the programmable mode)
[TEST2]
on the Engineering Display, etc.)
Test run mode 2 (only in the programmable mode)
Simulation program is being executed
The 0% value of scale (SCL) and the 100% value of scale (SCH) of PV and SV are displayed
on a loop basis in digital values of five significant digits (seven digits including a sign and
decimal point).
A scale divided into a maximum of 10 divisions (10% segments) is displayed. Moreover,
horizontal lines corresponding to the scale marks are indicated in dotted lines.
Display
Priority Order
(3)
24
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Page 28
Table 5.12
No. in
Figure
(10)
(11)
(12)
(13)
(14)
Monitoring and Control of Regular Operations (Operation Display)
Name Description
The time span scale (a vertical line) is displayed by a dotted line at the 60-line positions. If the
Time span scale
Trend display time
span
MV display
key function display
Key LOCK status display
scale marks are divided into 4 divisions or more, the time span scale is also displayed at the
30-line positions.
The trend display time span setpoint is displayed. The trend display span is 90 lines, but it
represents the time span for 60 lines. Trend display is provided such that the 0-line position
is the current time, while the 90-line position is the maximum past time. Changing the trend
display time span causes data that has been displayed up to that time to be cleared.
The MV bar, MV scale, MH pointer, ML pointer, MV underflow, MV overflow, and MV valve
direction are displayed. The display contents are the same as those of the LOOP Display.
The key function is displayed. The key function display is different in the multi-function
mode and the programmable mode.
1) Multi-function mode
The key function is set using the PF key function selection parameter [PFKEY].
When the STC mode selection is “not OFF” and the “ key has been set to STC”, the
function display becomes [STC]. In other cases, nothing is displayed.
2) Programmable mode
The key function can be defined in user programs.
The function display becomes [PF] in the programmable mode.
The key LOCK status is displayed.
DisplayDescription
[ALLK]
[MDLK]
[SVLK]
[MVLK]
, , and keys, SV increase and decrease (, ) keys, MV
increase and decrease (, ) keys, and key are disabled.
, , and keys are disabled.
SV increase and decrease (
MV increase and decrease (
, ) keys are disabled.
, ) keys are disabled.
Operating the TREND Displays
The following operations can be conducted on the TREND 1 and TREND 2 Displays:
(1) Operation mode switching of the loop displayed
(2) SV setting operation of the loop displayed
(3) MV operation of the loop displayed
(4) PF key operation
The following operations can be conducted on the TREND 3 Display:
(1) MV1 operation
(2) PF key operation
The operation methods are the same as those of the LOOP Display.
The following table shows the contents displayed in trend data 1 to 4.
TREND 1 Display TREND 2 Display TREND 3 Display
Trend data 1
Trend data 2
Trend data 3
Trend data 4 None None Set using the TRDS4 parameter
Note: When the controller mode is set to the cascade/selector mode, MV will be displayed.
PV1 PV2
SV1 SV2
MV1 (Note)MV2 (Note)
Set using the TRDS1 parameter
Set using the TRDS2 parameter
Set using the TRDS3 parameter
Monitoring and Control of
Regular Operations
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Monitoring and Control of Regular Operations (Operation Display)
0504E.ai
Monitoring and Operating the ALARM Display
The ALARM Display collectively indicates detailed information when alarm(s) occurs. It allows the user to acknowledge unacknowledged alarms and events.
Table 5.13
No. in
Figure
(1)
(2)
(3)
(4)
Tag number (1)
Display title (2)
Item title (3)
MV display (9)
Figure 5.4
(6) Operation status display
(7) Alarm lamp
(4) Alam item
(5) Unacknowledged alarm marks
(8) Software key function display
Name Description
Tag numberThe tag number of the loop 1 is displayed.
Display titleThe title of the display being shown is indicated.
Alarms and events that have occurred or been generated are displayed on a type basis. They
are classified into the following four types:
There are two types of display formats for alarm items as follows:
Red backlit display of items: An alarm(s) is currently being generated
Normal display of items: Indicates that an alarm(s) was generated in the past, but the situation
has now recovered
Output open (current output only) Register names Y1 and Y3 are displayed.
[CALC]Computation overflow (only in the YS1700 programmable mode)
[OVER]
Exceeding of control period (only in the YS1700 programmable mode)
[COMM]RS-485 communication error, DCS-LCS communication error, or
peer-to-peer communication error
[ETHER]Ethernet communication error
[PTOP]Peer-to-peer communication error
[PROG]User program error
[DATA]YSS1000 writing incomplete
[CALR]Adjustment inspection error
Event indication
DisplayDescription
[EVENT1] to
User-set events 1 to 5
[EVENT5]
For unacknowledged alarms, [*] is indicated in front of alarm items.
The controller operation status is displayed.
DisplayDescription
[POWER DOWN] Power down is being detected.(1)
[H.MAN]Hard manual selector switch has been activated. (2)
(No indication) The instrument is operating.
[STOP]Operation stopped (such as while setting a function
on the Engineering Display, etc.)
[TEST1]Test run mode 1 (only in the programmable mode)
[TEST2]
Test run mode 2 (only in the programmable mode)
Simulation program is being executed
Indicates that the [ALM CLR] software key is allocated to the key, the [EVT ON] software key to
the key,the[↓]softwarekeytothe key, and the [EVT CLR] software key to the key.
MV bar, MV scale, MH pointer, ML pointer, MV underflow, MV overflow, and MV valve direction
are displayed. The display contents are the same as those of the LOOP Display.
Display
Priority Order
(3)
Operating the ALARM Display
The following operations can be conducted on the ALARM Display:
(1) MV operation (the same as that of the LOOP Display)
(2) Acknowledgement of unacknowledged alarms/events
(3) Re-display of event indication
● Acknowledgingunacknowledgedalarms/events
The Alarm [ALM CLR] software key is used to acknowledge that an alarm has occurred. When this key is pressed, the “*” mark that indicates that the alarm concerned
has not yet been acknowledged, and that indicates currently not occurring alarms will be erased, implying that the alarm(s) has been acknowledged.
The Event [EVT CLR] software key is used to acknowledge an event. When this key is pressed, the “*” mark that indicates that the event concerned has not yet been
acknowledged, and that indicates events currently not generated will be erased, implying that the event(s) has been acknowledged.
● Re-displayingeventindication
Browsethroughtheeventlinesusingthe[↓]softwarekey( key) to select an event you wish to see and then press the [EVT
ON] software key ( key). This causes the event to be re-displayed.
Select a generated event using the [↓] software key ( key) then
Select an event.
*
C
IM 01B08B02-01EN
press the [EVT ON] software key ( key). This causes the
generated event status (*) to be displayed.
Press the [EVT CLR] software key ( key), and then clears the
selected generated event status (*).
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Figure 5.5
Monitoring and Control of
Regular Operations
27
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Monitoring and Control of Regular Operations (Operation Display)
0506E.ai
Monitoring and Operating the DUAL Display
The DUAL Display has two display titles: DUAL1 and DUAL2.
Information concerning PV, SV, and MV are displayed simultaneously for both loops. The loop 1 information is shown on the left,
and the loop 2 information is displayed on the right.
(12) Operation status display
(7) Engineering units
(8) 100% value of scale
(16) Key LOCK status display
(11) PV overflow
(10) SV pointer
(9) PV bar scale
(15) PF key function display
(8) 0% value of scale
Table 5.15
No. in
Figure
(1)Tag number
Tag number (1)
PV, SV, MV digital display
(Inverse display: Operable loop)
HH pointer, PH pointer (13)
LL pointer, PL pointer (13)
Display title (2)
(3)
Loop number (4)
Control substatus (5)
PV bar (6)
PV undreflow (11)
MV display (14)
Figure 5.6
Name Description
The tag number of the loop 1 appears for DUAL1 Display, while that of the loop 2 appears for
DUAL2 Display.
(2)Display titleThe title of the display being shown is indicated.
PV, SV, and MV
(3)
digital display
PV, SV, and MV digital values of the loop 1 are displayed at the left and those of the loop 2 at
the right. The loop that is inverse displayed can be operated.
(4)Loop number Loop numbers “1” (left) and “2” (right) are displayed.
Control substatus is inverse displayed in one character below the loop number. The substatus
(5)Control substatus
display shown in Table 5.17 is indicated depending on controller mode in the multi-function mode or
a control module in the programmable mode. Nothing is indicated in cases other than this.
(6)PV bar
(7)Engineering units
0% value of scale,
(8)
100% value of scale
PV1 (left) and PV2 (right) are displayed in bars. The bar display is in 200 dots at full scale
(100%) and increases or decreases on a dot (0.5%) basis.
Engineering unit 1 (left) and engineering unit 2 (right) are displayed in a maximum of seven digits.
SCL1, SCH1 (left), SCL2, and SCH2 (right) are displayed in engineering units in digital values
of five significant digits (seven digits including a sign and decimal point).
(9)PV bar scale The PV bar scale is displayed divided into a maximum of 10 divisions (10% segments).
(10)SV pointer
PV underflow,
(11)
PV overflow
SV1 (left) and SV2 (right) are indicated with triangular pointers. The pointer display moves up
and down with a resolution of 0.5%.
PV underflow (PV1 at the left, PV2 at the right) is displayed if a PV value is below 0%, while PV
overflow (PV1 at the left, PV2 at the right) is displayed if it exceeds 100%.
The controller operation status is displayed.
DisplayDescription
Priority Order
[POWER DOWN] Power down is being detected.(1)
[H.MAN]Hard manual selector switch has been activated. (2)
(No indication) The instrument is operating.
[STOP]Operation stopped (such as while setting a
(12)
Operation status
display
function on the Engineering Display, etc.)
PH, PL, HH, and LL
(13)
pointers
[TEST1]
[TEST2]
PH values (high limit alarm setpoints for PV) and PL values (low limit alarm setpoints for PV) are indicated
with triangular pointers, while HH values (high-high limit alarm setpoints for PV) and LL values (low-low
limit alarm setpoints for PV) are indicated with pointers which are overlapped pairs of triangles.
Test run mode 1 (only in the programmable mode)
Test run mode 2 (only in the programmable mode)
Simulation program is being executed
Display
(3)
28
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Monitoring and Control of Regular Operations (Operation Display)
Table 5.16
No. in
Figure
(14)MV display
Name Description
The MV bar, MV scale, MH pointer, ML pointer, MV underflow, MV overflow, and MV valve
direction are displayed. The display contents are the same as those of the LOOP Display.
The key function is displayed. The key function display is different in the multi-function
mode and the programmable mode.
1) Multi-function mode
(15)
key function
display
The key function is set using the PF key function selection parameter [PFKEY].
When the STC mode selection is “not OFF” and the “ key has been set to STC”, the
function display becomes [STC]. In other cases, nothing is displayed.
2) Programmable mode
The key function can be defined in user programs.
The function display becomes [PF] in the programmable mode.
The operation methods are the same as those of the LOOP Display.
When the display title is DUAL1, the loop 1 can be operated; when it is DUAL2, the loop 2 can be operated. To make the operable
loop easy to identify, the color of the backlit tag number, PV bar, and MV bar on the operable loop are displayed in the same color
(selected loop color).
Monitoring and Control of
Regular Operations
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Monitoring and Control of Regular Operations (Operation Display)
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displayed on the control status display section.
Switching of Operation Modes (Automatic Control (A), Manual Control (M), or Cascade Setting
Automatic Control (C))
Switching by Keystroke
The operation mode can be switched by pressing the relevant key in the table below. This causes the
light inside the key corresponding to the selected operation mode to light up. Note that on the ALARM
Display, the operation mode cannot be switched.
Key Name Function
Press this key to change to manual operation.
M mode key
A mode key Press this key to change to automatic control.
C mode key
It is not possible to change from manual control to cascade
setting automatic control. To change to cascade setting
automatic control, do so via automatic control.
Press this key to change to automatic control to set a value
from an external analog signal or communication as a
cascade setting.
(The C mode key is disabled when shipped from the
factory.)
Note
If the operation mode switching function is allocated to digital input, there may be
cases where the operation mode cannot be switched by keystrokes. In such cases,
check the allocation of the digital input function.
Operation mode transition in the figure below represents the single-loop mode with analog input-based cascade setting. If cascade setting is not used, it is only possible to switch between automatic control and manual control.
A: Automatic control
M: Manual control
C, CAS: Cascade setting automatic control
Manual control
When the operation mode is in cascade
setting automatic control, [CSV] is
A
(M)
C
M
Figure 5.7
A
: Press the A mode key.
: Press the M mode key.
M
C
: Press the C mode key.
30
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Monitoring and Control of Regular Operations (Operation Display)
Cascade mode (no cascade setting based on analog input) Selector mode (no cascade setting based on analog input)
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Switching in Response to Digital Input
No function is allocated to digital input when shipped from the factory. To switch the operation mode in response to digital input,
the operation mode switching function needs to be allocated to digital input.
* Pressing the C mode key in the loop 1 does not change the operation
mode.
* The heavy lines indicate that the open/closed status has changed.
An: Automatic control, Mn: Manual control,
A1-C2
(CLOSE)
Cn: (Internal) Cascade control (n: “1” stands for
loop 1 and “2” indicates loop 2.)
CLOSE/OPEN: Cascade closed/cascade open
This is displayed on the control status display section.
M
: Press the M mode key in the loop 1 (the number represents the relevant loop)
1
A
: Press the A mode key in the loop 2 (the number represents the relevant loop)
2
IM 01B08B02-01EN
A
A
1
2
(M)
(SV2-LCL)
SV2-LCL
* Pressing the C mode key in the loop 1 or loop 2 does not change
the operation mode.
An: Automatic control, Mn: Manual control
A1-A2
(SV2-LCL)
Figure 5.8
(n: “1” stands for loop 1 and “2” indicates
loop 2.)
SV2-LCL: Loop2 is in local.
This is displayed on the control
status display section.
M1-M2
M
1
M
2
Monitoring and Control of
Regular Operations
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Operating the Tuning Displays
0601E.ai
There are displays for setting and displaying control parameters such as PID, etc. and a display for monitoring input/output signals. To set tuning parameters proceed according to the setting examples below, and refer to “Overview of Display Switching and
(2) Press the [ ] or [ ] software key to change the setpoint. Holding it down
accelerates the value increase/decrease speed.
(3) Press the Page key to return to the Tuning Menu Display.
(4) Press the SHIFT + Page keys twice to return to the Operation Display.
SHIFT
+ keys (to the Tuning Menu Display) > [PID1] software key
This completes the setting procedure.
Setting Details
Parameters Names Setting Range Factory Default
PB1, PB2Proportional band 0.1 to 999.9 (%) 999.9
TI1, TI2Integral time 1 to 9999 (s) 1000
TD1, TD2Derivative time 0 to 9999 (0: no action) 0
Description
The PB2, TI2, and TD2 parameters are used in the loop 2 in the cascade mode, selector mode, and programmable mode.
(2) Press the [ ] or [ ] software key to change the setpoint. Holding it down
accelerates the value increase/decrease speed.
(3) Press the Page key to return to the Tuning Menu Display.
(4) Press the SHIFT + Page keys twice to return to the Operation Display.
This completes the setting procedure.
Setting Details
Parameters Names Setting Range Factory Default
PH1, PH2High limit alarm setpoint for PV
PL1, PL2Low limit alarm setpoint for PV
HH1, HH2High-high limit alarm setpoint for PV
LL1, LL2Low-low limit alarm setpoint for PV
DL1, DL2Deviation alarm setpoint
VL1, VL2PV velocity alarm setpoint
VT1, VT2PV velocity alarm time setpoint 1 to 9999 1
HYS1, HYS2Alarm hysteresis
*1 Engineering unit set using the engineering parameters SCH1, SCL1, and SCDP1 (or SCH2, SCL2, and SCDP2).
Engineeringunitsequivalentto−6.3to106.3%
(*1)
Engineeringunitsequivalentto−6.3to106.3%
(*1)
Engineeringunitsequivalentto−6.3to106.3%
(*1)
Engineeringunitsequivalentto−6.3to106.3%
(*1)
Engineering units equivalent to 0.0 to 106.3%
(*1)
Engineering units equivalent to 0.0 to 106.3%
(*1)
Engineering units equivalent to 0.0 to 20.0%
(*1)
106.3
-6.3
106.3
-6.3
0.0
0.0
2.0
Operating the Tuning
Displays
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Operating the Tuning Displays
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High-high limit alarm setpoint for PV
Time
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Deviation alarm output
Time
Description
The PH2, PL2, HH2, LL2, DL2, VL2, and VT2 parameters are used in the loop 2 in the cascade mode, selector mode, and programmable mode.
If the high limit alarm setpoint for PV and the high-high limit alarm setpoint for PV are set to the maximum values, no alarm is
generated.
If the low limit alarm setpoint for PV and the low-low limit alarm setpoint for PV are set to the minimum values, no alarm is generated.
Alarm hysteresis HYS1 acts on PH1, PL1, HH1, LL1, and DL1 collectively, while alarm hysteresis HYS2 acts on PH2, PL2, HH2,
LL2, and DL2 collectively.
The following figure shows an example of actions of the high limit alarm for PV, high-high limit alarm for PV, low limit alarm for PV,
low-low limit alarm for PV, and alarm hystereses.
High-high limit alarm output for PV
High limit alarm output for PV
ClosedOpen
OpenClosed
Closed
High limit alarm setpoint for PV
PV
Low limit alarm setpoint for PV
Low-low limit alarm setpoint for PV
Low limit alarm output for PV
Low-low limit alarm output for PV
Alarm hysteresis (HYS)
Alarm hysteresis (HYS)
ClosedOpen
ClosedOpen
For an example in the figure above, the contact type is such that the contact
opens if an event occurs (factory default).
The following figure shows an example of actions of deviation alarms and alarm hysteresis.
Alarm hysteresis (HYS)
Alarm hysteresis (HYS)
The value of alarm hysteresis is common to the high limit alarm for PV, high-high limit alarm for PV, low limit alarm for PV, low-low
limit alarm for PV, and the deviation alarm.
34
Setpoint (SV)
ClosedClosedOpenClosedOpen
Alarm hysteresis (HYS)
Deviation alarm setpoint
PV
Deviation alarm setpoint
Alarm hysteresis (HYS)
For an example in the figure above, the contact type is such that the contact opens
if an event occurs (factory default).
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The figure below shows an example of action of velocity alarm for PV.
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Velocity alarm
Operating the Tuning Displays
output for PV
Closed
Open
Closed
Open
Closed
PV
Exceeds the velocityExceeds the velocity
Time
Velocity alarm
time setpoint
Velocity alarm
setpoint
An alarm occurs if the velocity
exceeds this inclination.
Velocity alarm
setpoint
Velocity alarm
time setpoint
For an example in the figure above, the contact type is such that the contact opens
if an event occurs (factory default).
The following table shows the sections to refer to for descriptions of the main functions. Consult them as they also describe functions other than those noted below.
These references are located in the YS1500 Indicating Controller/YS1700 Programmable Indicating Controller User’s Manual.
Function Reference Location
Alarm function 3.1.5, Changing Digital Output Functions
Output limiter 1.2.3, Stopping Integral Action to Conduct Control with Less Overshoot (Output Limiter)
Preset MV2.4, Using Preset MV
Adjustable setpoint filter
function
1.2.6, Performing Stable Control for the Step Response of Setpoints (Adjustable Setpoint
Filter)
Input filter 2.1.1, Input Filter (First-order Lag Computation)
Line segment 2.1.3, 10-segment Linearizer Function
Ratio 2.1.4, Ratio Operation
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Operating the Tuning
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Operating the Engineering Displays
There is a display for setting up functions as a controller, a display for setting and displaying various registers and tables, the Input
Specification Setting Display, and the Password Setting Display. To set engineering parameter settings, proceed according to the
setting examples below, and refer to the “Overview of Display Switching and Operation Keys” and “List of Parameters.”
There is a SET parameter in the engineering parameters to prevent accidental changes to settings. Unless this parameter
setting is changed from INHB (setting inhibited) to ENBL (setting enabled), parameters on the same display cannot be
changed. Be aware that changing the setting to ENBL causes YS1000’s control action and input/output to be changed.
The YS1000 enters manual operation and control stopped status, causing [STOP] to appear at the upper right of the
display. The setpoints, manipulated output variables, analog output values, analog output registers, PF status, PF status
registers, temporary storage registers, output registers, and digital output registers retain the values they had immediately
prior to STOP. Dynamic computation (computation with a device number), such as first-order lag and dead time, will be
initialized. For user program data, see the YSS1000 Setting Software/YS1700 Programmable Indicating Controller User’s
Manual.
Note
YS1000 has a password function as a security function. If the password has been set up, enter it and then change
parameters.
In the programmable mode, there are three displays for the engineering menu. The menu display is switched each time the
Page key is pressed.
Setting the Controller Mode
Note
Changing the controller mode causes various parameters to be initialized. For more information, see List of Parameters (p.64). To
change the controller mode, press and hold the [ ] or [ ] software key for more than 5 seconds.
Engineering Display
Operation Display >
the Engineering Menu Display) > [CONFIG1] software key (Configuration Display 1)
(4) Press the [ ] or [ ] software key to change the setpoint.
(5) Press the Page key to return to the Engineering Menu Display.
(6) Press the SHIFT + Page keys to return to the Operation Display.
A control operation formula can also be changed in the same way as above.
This completes the setting procedure.
SHIFT
+ keys (to the Tuning Menu Display) >
SHIFT
+ keys (to
Displays
0702E.ai
Setting Details
Parameters Names Setting Range Factory Default
PID: Standard PID control
CNT1, CNT2Control type
S-PI: Sample-and-hold PI control
BATCH: Batch PID control (*1)
PID
PD: Proportional (PD) control
I-PD: PV proportional type PID
ALG1, ALG2Control operation formula
PI-D: PV derivative type PID
I-PD
SVF: Adjustable setpoint filter
*1: Only selectable for YS1700
Description
The CNT2 and ALG2 parameters are used in the loop 2 in the cascade mode, selector mode, and programmable mode.
(8) Press the [ ] or [ ] software key to change the setpoint.
(9) Press the Page key to return to the Engineering Menu Display.
(10) Press the SHIFT + Page keys to return to the Operation Display.
Change the loop 2 in the same way as above as necessary.
This completes the setting procedure.
The SCH2, SCL2, and SCDP2 parameters are used in the loop 2 in the cascade mode, selector mode, and programmable mode.
The figure below shows an example of setting the 100% value of scale to 1000, the 0% value of scale to 0, and the decimal point
position to one decimal place (####.#). Process variables and setpoints are displayed on the scale that is set here.
Note: If a wide scale span (100% to 0% value of
scale) is specified, the value less than 0.1%
of PV may fluctuate.
100% value of scale
0% value of scale
38
Figure 7.1
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Registering a Tag and Units
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Operating the Engineering Displays
Operating the Engineering
Setting Display
Engineering Display
Setting Details
Operation Display >
SHIFT
+ keys (to the Tuning Menu Display) >
SHIFT
+ keys (to
the Engineering Menu Display) > [CONFIG2] software key (Configuration Display 2)
Setpoint changing procedure (example of setting a tag):
registered.
(5) Press the [ ] or [ ] software key to change the character (setting is made on a
character basis).
(6) Repeat steps (4) and (5) to register the tag.
(To erase a character, enter a space.)
(7) Press the Page key to return to the Engineering Menu Display.
(8) Press the SHIFT + Page keys to return to the Operation Display.
This completes the setting procedure.
Displays
Parameters Names Setting Range Factory Default
TAG1, TAG2Tag number 12 digits of alphanumeric characters
For YS1700: ---YS1700--For YS1500: ---YS1500---
UNIT1, UNIT2Engineering units 7 digits of alphanumeric characters %
Description
The TAG2 and UNIT2 parameters are used in the loop 2 in the cascade mode, selector mode, and programmable mode.
The tag is displayed in the top line of the LCD.
The settable ASCII codes are as shown below:
This chapter describes how to activate the control functions and perform tuning for novice users.
Starting Operations by Manual Operation
The following describes how to start operations, using an example of simple PID control.
(1) Manual operation using the MV operation keys
1. Press the mode key to switch the operation mode to the M mode. This causes the LED indicator inside the mode
key to light up.
2. Press the
3. Press the
Pressing an MV operation key with the
decrease speed.
While confirming that a smooth response is obtained by manual operation, balance the PV value with the SV value or a point in its
vicinity.
or key of an SV setting key, to set the SV value.
or key of an MV operation key, to adjust the output signal.
SHIFT
(fast-change key/SHIFT key) held down accelerates the MV-value increase/
SV setting keys
MV operation keys
Figure 8.1 Switching the Operation Mode
Figure 8.2 Manual Output Operation
(2) Switching from manual operation to automatic operation
Press the mode key in condition 3. in item (1) to switch the operation mode to automatic control (A). This causes the LED
indicator inside the mode key to light up, activating automatic operation. Operation changes to automatic operation in a
bumpless(*) manner, not requiring balance operation at switching.
* Bumpless: This feature has the effect of preventing rapid output changes when automatic operation is started from an
output value obtained during manual operation.
(3) Alarm check
If the ALM lamp on the front panel is lit, there is some kind of signal abnormality. In this case, check for an alarm item on the
ALARM Display to determine the cause of the abnormality and take appropriate actions.
If the FAIL lamp is lit, an abnormality has occurred in the instrument.
* If the proportional band is small, the PV becomes vibrational.
Offset
Time
For a larger proportional band
For an intermediate proportional band
Temperature
0805E.ai
Target
setpoint
* If the integral time is too short,
long cyclic vibration occurs in the PV.
Time
Temperature
PID Parameter Tuning Guide and Automatic Adjustment
If the indicating controller is used for an unknown process, it is important to examine the conditions carefully in which the controller is
operated by manual adjustment because they are useful in determining the proportional band (PBn), integral time (Tn), and derivative
time (TDn) when entering automatic adjustment. (n = 1, 2)
For example, if the process variable (PV) changes significantly when the controller’s manipulated output variable (MV) is simply
changed slightly, the proportional band (PBn) needs to be widened as a safety provision. In a case where the opposite conditions
prevail, the proportional band needs to be narrowed.
Moreover, for processes wherein the time required to follow a change in the controller’s output is short, the integral time and
derivative time must also be made short. For processes in which recovery time is long, these times need to be made longer.
(1) “Proportional + integral” controllers
1. Set the operation mode to manual control (M mode) and
match the process variable with the setpoint by manual operation. Set the integral time to 9999 seconds, the proportional
band to a sufficiently large value, and the derivative time to 0
seconds.
2. Change the operation mode to automatic control (A mode).
3. Conduct the following operations to obtain the optimum value
for the proportional band.
• Lower the proportional band from a sufficiently large value
to a smaller value (for example, from 100% to 50% to
20%). In this case, provide sufficient time to observe the
control conditions at each stage. Continue this process until the control loop’s continuation vibration (cycling) starts.
Then measure the proportional band value (PBu) and cycling interval (Pu) at this point.
(Cycling is a phenomenon caused because the proportional band has been made narrower than the process’s maxi-
mum value. It can be identified by the fact that the process variable indication regularly vibrates centering around the
point set.) A value approximately 2.2 times the proportional band at which cycling occurs is the maximum proportional
band (2.2 PBu).
Tuning Guide
• Next, the cycling period is measured. A value about 0.83
times the vibration cycle is the integral time to be obtained
(0.83 Pu). In general, even if the integral time is significantly
reduced, the time taken to balance to the setpoint merely
becomes shorter, not changing the operation conditions
significantly. However, if it is lowered below a certain critical
value determined by the process’s delay characteristics,
cycling occurs after all. This is due to the integral time having been lowered too excessively. In this case, increase the
integral time gradually until cycling stops.
(2) “Proportional + integral + derivative” controllers
1. Set the operation mode to manual control (M mode) and match a process variable with the setpoint by manual operation.
Set the integral time to 9999 seconds, the proportional band to a sufficiently large value, and the derivative time to 0 seconds.
2. Change the operation mode to automatic control (A mode).
3. Change the proportional band as outlined in the case of the “proportional + integral” controllers in item (1) to look for the
point at which cycling just starts to occur. Measure the proportional band (PBu) value and the cycling period (Pu) at this
point.
4. The optimum setpoints are determined as follows:
Proportional band = 1.7 PBu
Integral time: 0.5 Pu
Derivative time: 0.125 Pu
The method described above is known as the Ziegler Nichols limitation sensitivity method, which allows response characteristics
to be obtained in which vibration attenuation is about 25%. Apart from this, various adjustment methods have been proposed,
including the step response method shown below. Refer to the technical books of automatic control as necessary.
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Installation and Wiring
For the following, see the YS1000 Series Replacement Manual.
• Installation and wiring for YS1500/YS1700-2, -3, -4, and -5
• Connection of the RJC sensor provided with the product with optional code /A02
Installation Location
WARNING
For products with optional code /FM or /CSA:
1) Devices must be installed by professionally trained personnel.
2) In case of option code /FM, install devices according to NEC (National Electrical Code: ANSI/NFPA-70).
In case of option code /CSA, all wiring shall comply with Canadian Electrical Code Part I and local electrical codes.
The instrument should be installed in indoor locations meeting the following conditions:
• Instrumented panel
This instrument is designed to be mounted in an instrumented panel. Mount the instrument in a location where its terminals will not
inadvertently be touched.
• Well ventilated locations
Mount the instrument in well ventilated locations to prevent the instrument’s internal temperature from rising. To mount multiple
indicating controllers, see the external dimensions/panel cutout dimensions which follow. If mounting other instruments adjacent
to the instrument, comply with these panel cutout dimensions to provide sufficient clearance between the instruments.
• Locations with little mechanical vibration
Install the instrument in a location subject to little mechanical vibration.
• Horizontallocation
Mount the instrument horizontally and ensure that it is level, with no inclination to the right or left.
Note
If the instrument is moved from a location with low temperature and low humidity to a place with high temperature and high
humidity, or if the temperature changes rapidly, condensation will result. Moreover, in the case of thermocouple inputs,
measurement errors will result. To avoid such a situation, leave the instrument in the new environment under ambient conditions
for more than 1 hour prior to using it.
Do not mount the instrument in the following locations:
• Outdoors
• Locations subject to direct sunlight or close to a heater
Install the instrument in a location with stable temperatures that remain close to an average temperature of 23°C. Do not mount it
in locations subject to direct sunlight or close to a heater. Doing so adversely affects the internal unit.
• Locations with substantial amounts of oily fumes, steam, dust, or corrosive gases
The presence of oily fumes, steam, dust, or corrosive gases adversely affects the instrument. Do not mount the instrument in
locations subject to any of these substances.
• Areas near electromagnetic field generating sources
Do not place magnets or tools that generate magnetism near the instrument. If the instrument is used in locations close to a strong
electromagnetic field generating source, the magnetic field may cause measurement errors.
• Locations where the display is difficult to see
The instrument uses an LCD for the display unit, and this can be difficult to see from extremely oblique angles. Mount the instrument
in a location where it can be seen as much as possible from the front.
• Areas close to flammable articles
Absolutely do not place the instrument directly on flammable surfaces. If such a circumstance is unavoidable and the instrument
must be placed close to a flammable item, provide a shield for it made of 1.43 mm thick plated steel or 1.6 mm thick unplated steel
with a space of at least 150 mm between it and the instrument on the top, bottom and sides.
• Areas subject to being splashed with water
42
42
IM 01B08B02-01EN
Page 46
Installation and Wiring
0903E.ai
0904E.ai
0905E.ai
Loosen the screw
0906E.ai
Mounting Method
Mounting the Instrument Main Unit
Provide an instrumented panel steel sheet of 2.3 to 25 mm thickness.
(1) For mounting single unit
1. Using a screwdriver, loosen the screws of the two provided metal clamps in advance.
2. Insert the main unit of the instrument from the front side of the instrumented panel.
3. Install one of the metal clamps on top of the main unit and tighten the screw into the rear face of the panel. Repeat the
procedure with the second clamp at the bottom of the unit.
Metal clamps
Figure 9.1
Figure 9.2
To remove the instrument from the panel, reverse the above procedure.
1. According to the arrangement order, mount the other main units side by side in the panel, keeping them in close contact
with each other.
2. Mount the individual controllers as above in item (1).
Installation and Wiring
IM 01B08B02-01EN
Figure 9.4
43
Page 47
Installation and Wiring
InstallinganExpandableI/OTerminal
The expandable I/O terminal is of the wall-mounted or DIN rail mounted type.
Expandable I/O terminal
1
2 3 4 5 6 7 8 9 10 11 12
13 14 15 16 17 18 19 20 21 22 23 24
(1) Remove the tape.
(2) Insert the expandable I/O cable
in an appropriate position.
(3) Insert the connector.
to expandable
I/O terminal
(4) Fix the expandable
I/O cable with the two
screws.
(5) Connect the Ground terminal.
0907E.ai
Figure 9.5
44
IM 01B08B02-01EN
Page 48
ExternalDimensions/PanelCutoutDimensions
Trigonometry
Unit: mm
General tolerance = ±(value of tolerance class IT18 based on JIS B 0401-1998) / 2
Note 1: If a nameplate, etc. is installed within 60 mm above the instrument, the thickness of the nameplate,
Note 2: When installing the expandable I/O cable, secure the wiring space of at least 60 mm for a minimum curvature radius
Note 3: To ensure good air ventilation, allow space of 100 mm or more at the top and bottom of the panel.
0908E.ai
YS1500/YS1700 main unit
56
When swung up
72
60
144
Note 1
Instrument panel thickness: 2.3 to 25 mm
Metal clamp
67
69.8
Expandable I/O cable
(YS1700 with Expandable I/O)
13
R60 MIN
136.4
Installation and Wiring
60
162.4
For single mounting:
+0.7
68
0
220 or more
24.6
Panel Cutout Dimensions
0
+2
137
250
For side-by-side mounting:
220 or more
Metal clamp
+1
L
0
13
6
72
132 MIN
Note 2
Weight: 1.6 kg (Basic type)
2.2 kg (Basic type with Expandable I/O)
Panel Cutout Width for
Side-by-side Mounting
Number of
+2
0
137
instruments
to be mounted
2
3
4
5
6
7
8
9
10
11
12
13
14
L(mm)
140
212
284
356
428
500
572
644
716
788
860
932
1004
Installation and Wiring
etc. must be 30 mm or less from the panel surface.
of the cable in addition to the mountiing bracket space of 72 mm from the terminal cover face of the main unit.
Figure 9.6
IM 01B08B02-01EN
45
Page 49
Installation and Wiring
176
0909E.ai
Unit:mm
0910E.ai
(70)
Weight: 320g
ExpandableI/OTerminal(YS010)
9
167
50
60
29.75
5
11
M4xL8
2-ø4.5
4
33.5
(When the DIN rail
mounting)
31.2
7
Weight: 260g
ExpandableI/OCable(YS011-03)
(95)
Figure 9.7
R1.25-4
Figure 9.8
Ground wiring: 1.25mm2, green
Length:500±50mm
3000±50mm
(40)
46
IM 01B08B02-01EN
Page 50
Installation and Wiring
Wiring
Wiring Precautions
WARNING
1) Be sure to turn OFF the power supply before wiring to avoid an electric shock. Use a tester or similar device to ensure
that no power is being supplied to a cable to be connected.
2) As a safety measure, always install a circuit breaker (an IEC 60947-compatible product, 5 A, 100 V or 220 V AC) in an
easily accessible location near the instrument. Moreover, provide indication that the switch is a device for turning off the
power to the instrument.
3) Wiring work must be carried out by a person with basic electrical knowledge and practical experience.
4) For the wiring cable, the temperature rating is 60 °C or more.
WARNING
For products with optional code /FM or /CSA:
1) Devices must be wired by professionally trained personnel.
2) For the field wiring parameters for YS1000 non-incendive instruments, see Hazardous location usage conditions of
Safety Standards in 9.1 General Specifications, in the YS1500 Indicating Controller/YS1700 Programmable Indicating
Controller User’s Manual.
3) In case of option code /FM, install devices according to NEC (National Electrical Code: ANSI/NFPA-70).
In case of option code /CSA, all wiring shall comply with Canadian Electrical Code Part I and local electrical codes.
Installation and Wiring
CAUTION
1) Provide electricity from a single-phase power supply. If the power is noisy, install an isolation transformer on the primary
side, and use a line filter (recommended product: ZAC2205-00U, TDK) on the secondary side. When measures against
noise are taken, do not install the primary and secondary power cables close to each other.
2) For thermocouple inputs, wire the thermocouple using shielded compensating lead wire. Moreover, for RTD input, use
shielded wires with low conducting resistance and no resistance difference between the three wires.
3) If there is a risk of external lightning surges, use a lightning arrester, etc.
Note
Please wire from the central terminals.
IM 01B08B02-01EN
47
Page 51
Installation and Wiring
For use as digital input 4
For use as digital output 3
Measurement
Connection of Transmitter Supply Power
DI4
DO3
+
32
(Optional code /A34)
input
Voltage
(1-5 V DC)
+
-
1
2
X1
input
Voltage
(1-5 V DC)
+
-
1
2
Measurement input 1Measurement input 1
X1
input
Voltage
X1
+
1
(1-5 V DC)
-
2
Note: Do not use unassigned terminals as relay terminals.
Note: *Do not use unassigned terminals as relay terminals.
The digital input functions are not set
when shipped from the factory.
Analog Inputs
Analog input 6
X6
+
1
-
2
(1-5 V DC)
Analog input 7
X7
+
3
-
4
(1-5 V DC)
Analog input 8
X8
+
13
-
14
(1-5 V DC)
1
2345678910 11 12
Voltage
input
Voltage
input
Voltage
input
Digital Inputs
Digital input 7
DI7
With
voltage
+
Digital input 8
DI8
With
voltage
+
-
-
The functions can be set using the DI7F
to DI10F engineering parameters.
5
6
7
8
Digital input 9
DI9
With
voltage
Digital input 10
DI10
With
voltage
When voltage is present
ON: −0.5 to 1 V DC
+
9
-
10
+
11
-
12
OFF: 4.5 to 30 V DC
For no voltage
ON: resistance of
200 Ω or less
OFF: resistance of
100 kΩ or more
Input contact rating:
5 V DC,
20 mA or more
To the rear terminals of the
YS1700 main unit
YS1700-01 only
13 14 15 16 17 18 19 20 21 22 23 24
Analog Outputs
Analog output 4
Y4
Voltage
output
(1-5 V DC)
Measurement input 1 is output in the
cascade/selector mode.
The analog output type can be
changed in the Y4S Engineering
parameter.
► For digital output wiring: see
+
15
-
16
If the terminals concerned are
used as digital output, an external
power supply is required.
“Wiring for Digital Input/Output
and FAIL Output” described later.
Digital Outputs
Digital output 7
DO7
+
17
-
18
Digital output 8
DO8
+
19
-
20
Figure 9.11
The digital output functions are not set
when shipped from the factory.
The functions can be set using the DO7F
to DO10F engineering parameters.
Digital output 9
DO9
+
21
-
22
Digital output 10
DO10
+
23
-
24
specifications:
Rating 30V DC
200 mA or less
(resistive load)
Transmitter Supply Power Wiring
If the YS1000 is connected to a two-wire transmitter, it is recommended that the field signal be isolated to limit the effects of short
circuiting or ground fault incidents within a narrow range. (Use an external distributor.)
However, for economical connection to a two-wire transmitter, the YS1000 is equipped with non-isolated power terminals for
transmitters (25 to 25.5 V DC).
1
13
250Ω
3W
5
250Ω
3W
−
+
−
+
2
6
24 V DC
supply power
52
Figure 9.12
Supply current
When optional specification direct input (/A0) is provided: 25 to 25.5 V DC, 30 mA
When no optional specification direct input (/A0) is provided: 25 to 25.5 V DC, 60 mA (two two-wire transmitters can be con-
nected)
IM 01B08B02-01EN
Page 56
Installation and Wiring
YS1000
Rated value
ON: 200 Ω or less
OFF: 100 kΩ or more
0915E.ai
YS1000
0916E.ai
YS1000
Rated value
30 V DC or less
200 mA or less (resistive load)
0917E.ai
Protective diode
power supply
YS1000
0918E.ai
Load
Wiring for Digital Input/Output and FAIL Output
WARNING
For products with optional code /FM or /CSA:
Install explosion-proof wiring defined in the relevant country for the following signal wiring.
• The digital output cable must be wired from the non-hazardous area by using Class I, Division 2 wiring dedicated in
potentially explosive atmospheres such as a threaded metal conduit. In addition, it is necessary to be wired not to apply
stress at the end of the cable.
External no-voltage and voltage contacts for digital inputs should be provided so that the rated value is obtained. Attention must
be paid to excessive conductor resistance and in-conductor voltage drop.
Load
V
Rated value
ON: V = −0.5 to +1 V
OFF: V = 4.5 to 30 V
Figure 9.13 Connection of Digital Input (No-voltage Contact)
Figure 9.14 Connection of Digital Input (Voltage Contact)
When driving an external device using contact outputs such as alarm output, status output, and FAIL output, install wiring paying
attention to the following:
CAUTION
• Do not connect loads exceeding the contact rating.
• To drive equipment incorporating inductance components such as relays, always connect a protective diode (surge
absorber) in parallel with the load.
• To connect a power supply for driving a load, the power supply’s polarity must be matched with that of the contact
output. Connecting it in reverse may result in failure.
• An AC load cannot be directly opened or closed using contact output. In this case, provide a repeating relay, etc.
+
Load
−
+
Relay
–
External
(24 V DC)
This connection
cannot be made.
Figure 9.15 Connection Using Digital Output
External
power supply
(24 V DC)
Figure 9.16 Connection of Digital Output to Drive a Load Including AC
Power Supply
AC power
supply
Installation and Wiring
IM 01B08B02-01EN
53
Page 57
Installation and Wiring
0919E.ai
For YS1700
*1: If the signal conversion circuit is not used, these
0920E.ai
For YS1500
Direct Input Wiring (Optional Code /A0)
Direct input terminals allow the connection of one of the following: mV voltage, thermocouple, RTD, potentiometer, isolator, twowire transmitter, or a pulse signal.
For YS1700, a sensor signal is connected to the direct input terminals, converted into a 1–5 V signal by a signal converter circuit,
For YS1500, a sensor signal is connected to the direct input terminals, converted into a 1–5 V signal by a signal converter circuit,
and then output to the direct input signal output terminals. Connect this signal to the terminals you wish to input to using external
a control and display circuit failure.
A ferrite core is included when the optional code /A0 is specified. Be sure to use the ferrite core when connecting to the wire to
the direct input terminals.
0918-01E.ai
CAUTION
If there is any risk of a surge due to lightning discharge, an arrester should be connected to the direct input signal line.
YOKOGAWA AR series is recommended for the arrester.
X5 analog
data
Direct input signal
9
X5
output terminals (*1)
10
Signal
conversion
circuit
20
19
Sensor
21
terminals become analog input 5 (X5) terminals.
Figure 9.17
PV1
•
•
•
Direct input signal
output terminal
Signal
conversion
circuit
Figure 9.18
10
20
1
2
External wiring
9
19
Sensor
21
54
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Installation and Wiring
YS1000ML2-YS1000
0921E.ai
Terminating
Terminating
YS1000ML2-YS1000
0922E.ai
Terminating
Wiring for the Serial Communication Interface (Optional Code /A31)
To perform Modbus communication, PC-link communication, or YS protocol communication connect the wires as shown below.
To perform YS protocol communication with DCS, connect the wires as a four-wire type shown below.
If the instrument is located at the end of the wiring, turn ON the terminating resistor. The terminating resistance (internal) can be
set using the RS-485 communication terminating resistor ON/OFF (TRMR) engineering parameter.
Note
Even if the terminating resistor is being ON, it will be OFF when the power supply of the instrument is turned off.
► For details of communication parameter setting and communication functions: see YS1000 Series Communication Interface User’s Manual
Four-wireconnection
PC
RS-232C
straight cable
Two-wireconnection
PC
RS-232C
straight cable
Terminating
resistor
(external),
120 Ω
GroundGroundGround
Terminating
resistor
(external),
120 Ω
SDB (+)
2
SDA (−)
1
RDB (+)
4
RDA (−)
3
SG
5
6
Communication cable
Figure 9.19
B (+)
4
A (−)
3
SG
5
6
Communication cable
18
17
16
15
14
16
15
18
17
14
Communication cable
GroundGroundGround
Communication cable
RDB (+)
RDA (−)
SDB (+)
SDA (−)
SG
SDB (+)
SDA (−)
RDB (+)
RDA (−)
SG
18
17
16
15
14
resistor
(internal),
120 Ω
resistor
(external),
120 Ω
Installation and Wiring
16
15
18
17
14
resistor
(internal),
120 Ω
Note
ML2- is a YOKOGAWA converter. RS-232C/RS-485 converters other than these devices can also be used. In such a case,
check the electric specifications of each converter, etc. before using them.
The following shows a diagram of the wiring between YS1000 and an SCIU communication interface unit.
For the wiring between the DCS and an SCIU, and for the number of units to be connected, see the respective user’s manuals.
Peer-to-peer communication can be used by user programs in the YS1700 programmable mode. To achieve peer-to-peer communication, the wiring is the same as for “two-wire connection” in Wiring for the Serial Communication Interface (Optional Code
/A31) (p. 55). Communication cannot be accomplished with four-wire connections.
► For communication parameter setting: see YS1000 Series Communication Interface User’s Manual.
► Fordetails of peer-to-peer communication: see Chapter 8, Using Peer-to-peer Communication, in the YSS1000 Setting Software/YS1700 Pro-
grammable Function User’s Manual.
Wiring for the Ethernet Communication Interface (Optional Code /A34)
Be sure to turn OFF the power supply before wiring. Use a tester or similar device to ensure that no power is being
supplied to a cable to be connected.
Install the power cable keeping a distance of more than 1 cm from other signal wires.
The power cable is required to meet the IEC standards concerned or the requirements of the area in which the instrument
is being installed.
For the power cable, the temperature rating is 60 °C or more.
For products with optional code /FM or /CSA:
• When devices are installed in a hazardous area in Class I, Division 2, wire a power supply cable from a non-hazardous
area by explosion-proof wiring (including metal conduit wiring).
• In case of option code /FM, install devices according to NEC (National Electrical Code: ANSI/NFPA-70).
In case of option code /CSA, all wiring shall comply with Canadian Electrical Code Part I and local electrical codes.
Ground wiring
WARNING
The YS1000 should always be grounded to protect the operator and maintenance personnel from electric shock and to
prevent the effects of external noise. Ground wiring should be grounded to Ground (minimum resistance).
For the ground cable, the temperature rating is 60 °C or more.
Installation and Wiring
WARNING
After completion of power cable wiring and ground wiring, always install the terminal cover to the instrument.
Note
If there are multiple YS1000s on the same panel and individual grounding cannot be provided, determine the location of a
grounding bus lead-in at one location and use and connect grounding cables of 2 mm2 or more from each YS1000 to the
After completing the wiring, be sure to install the terminal cover to the instrument for safety and dust proofing.
IM 01B08B02-01EN
Terminal cover
Figure 9.22
57
Page 61
Troubleshooting
How to Take Actions if the ALM Lamp or FAIL Lamp Lights up
In detecting an abnormality, YS1000 lights up the lamps (FAIL, ALM) at the upper part of the instrument’s front panel.
• FAIL lamp (red): Lights up if a major failure occurs in which the controller cannot operate.
• ALM lamp (yellow): Lights up if a minor abnormality occurs in which the controller can still continue to operate.
Actions to be Taken if the ALM Lamp Lights Up
• If the ALM lamp lights up, the alarm item can be checked on the ALARM Display.
• Alarm types include STC alarms, process alarms, and system alarms.
• An STC alarm or process alarm that has occurred prior to a power failure will be stored in the memory and will be re-displayed
upon a HOT start. (Even if the power supply is turned off while in the condition that an alarm occurred in and the instrument is
reused without a control module function, the ALM lamp lights up again at HOT start. In this case, set the instrument once to
COLD start and turn ON the power supply. This will clear the alarm indication.)
Table 10.1 List of Causes of Alarm Occurrence
Type
System
alarm
Alarm
Display
X1,X2,X3,
X4,X5,X6,
X7,X8
Y1,Y3
CALC
OVER
PROGUser program error
DATA
COMM
ETHER
PTOP
CALRAdjustment inspection error
* An output read-back error is when SCOCD is set to ALARM (1). (Please see P.62)
Description Cause of Alarm Occurrence and Diagnosis Actions and Others
Input overrange
Current output wire open
or output read-back error*.
Computation
overflow
Exceeding of control
period
Writing from
YSS1000 incomplete
RS-485
communication error
DCS-LCS
communication error
Peer-to-peer
communication error
Ethernet
communication error
Peer-to-peer
communication error
Inputvalueislessthan−6.3%orgreaterthan
+106.3%.
Output 1 (Y1) or output 3 (Y3) output wire is
open or output read-back value error*.
The results become infinite or non-numerical
in the midst of the execution of computation by
user programs in the YS1700 programmable
mode.
Control computation by user programs
exceeds the control period in the YS1700
programmable mode.
No END instruction
Out of a device number range
RTN instruction error
Framing parity error
Buffer overflow
Header receiving data error
Framing parity error
Error detection (BCC)
Communication undetected
Communication time exceeded
Communication status error
Peer-to-peer communication registers used by
the user programs have not been updated.
The operation mode (C, A, M) does
not change in the event of alarm
occurrence.
Check wiring and instruments
connected.
Check wiring and instruments connected
or Remove the noise of wiring.
Computation based on a limit value
(positive or negative maximum value)
Correct user programs and then
perform download again.
During normal run: Computation stops
at 2nd exceeding of the control period.
During test run: Computation stops.
Correct user programs and then redownload them.
User programs are suspended.
Correct user programs and then redownload them.
Re-download data from YSS1000.
Check communication connection
(wiring and communication
conditions).
Check communication connection
(wiring and communication
conditions).
Check connection destination.
Check communication connection.
Press the [ALM CLR] software key
to confirm the ETHER alarm. If the
above operation is repeated many
times, it is judged as a failure.
Check communication connection.
Check connection destination.
Contact YOKOGAWA’s sales office
or sales representative.
58
58
IM 01B08B02-01EN
Page 62
Table 10.2 List of Causes of Alarm Occurrence (Continued)
Type
Alarm
Display
PH1, PH2
PL1, PL2
HH1, HH2
Description Cause of Alarm Occurrence and Diagnosis Actions and Others
High limit alarm for
PV
Low limit alarm for
PV
High-high limit alarm
for PV
Process
alarm
LL1, LL2
Low-low limit alarm
for PV
DL1, DL2Deviation alarm
VL1, VL2PV velocity alarm
Table 10.3 List of Causes of Alarm Occurrence (Continued)
Type
Alarm
Display
Description Cause of Alarm Occurrence and Diagnosis
Prohibited combination control element was
SYS-ALM
System
abnormality
executed.
Control function is not properly activated.
Current output is open.
MV value is at the output limiter.
MV application signal span is inappropriate
STC
alarm
MVLMTMV alarm
OPERR
IDERR
Operation
abnormality
Identification
impossible
PBLMTPB alarm
before starting auto startup.
MV value was changed or limited after starting
auto startup.
Operation error during auto startup
PV change was too small at auto startup.
The proportional band has exceeded the
high/low limit.
TILMTTI alarm Integral time has exceeded the high/low limit.
TDLMTTD alarm Derivative time has exceeded the high/low limit.
RTALMRT alarm Signal distribution ratio (RT) > 2 or RT < 0.5
Process abnormality
PV1 or PV2 is at or above the high limit alarm
setpoint.
Process abnormality
PV1 or PV2 is at or below the low limit alarm
setpoint.
Process abnormality
PV1 or PV2 is at or above the high-high limit
alarm setpoint.
Process abnormality
PV1 or PV2 is at or below the low-low limit
alarm setpoint.
Abnormal process deviation
|PV1 – SV1| or |PV2 – SV2| is at or above the
deviation alarm setpoint.
Abrupt change in process
PV1 or PV2 velocity is at or above the velocity
alarm change setpoint or velocity alarm setting
time setpoint.
STC stop (auto
startup is impossible
or stopped)
STC continues (auto
startup is impossible
or stopped)
STC continues (No
alarm is generated
during execution of
auto startup)
Troubleshooting
Recover the process to normal
conditions.
Actions and
Others
How to Clear
Continue STC
(auto startup is
impossible or
stopped)
Eliminate the
cause of alarm.
STC = OFF
Run auto startup.
Troubleshooting
IM 01B08B02-01EN
59
Page 63
Troubleshooting
X1 input signal
Y1 current output
1001E.ai
Actions to be Taken in the Event of the FAIL Lamp Lighting Up
If the FAIL lamp lights up, the FAIL Display appears. (If both the main processor (MCU) and display processor (DCU) fail or if the
gate array (GA) is faulty, the FAIL lamp does not light up.)
Table 10.4 List of Causes of Failure
FAIL
Display
Main clock stopped or both the main
None
processor and display processor are
defective.
SCLKSub-clock stopped
MCUMain processor (MCU) faulty
DCUDisplay processor (DCU) faulty
A/DA/D converter faulty
D/AD/A converter faulty
RAMMCU-RAM faulty
ROMMCU-ROM faulty
FRAMFRAM faulty
FLASHFlash memory faulty
OPTCommunication/expandable I/O abnormal
SYSSystem data abnormal
EMPFRFRAM data non-initialized, FRAM data lost
EMPFLFlash data non-initialized, Flash data lost
Description Processing (Action to be Taken in the Event of Abnormality)
• FAIL contact open
• M lamp lit
• Output HOLD (Y1 to Y4, DO1 to DO10)
Control
computation
stopped
• Y1 output can be operated using an MV
operation key (<, SHIFT, >).
• Y1 output can be operated using the hard
manual unit.
• Communication (RS-485, DCS-LCS, or
Ethernet) stopped
Displays and Operation in the Event of FAIL
YS1000 has an independent control computation circuit (main processor, MCU), a display operation circuit (display processor,
DCU), and is also equipped with a current output backup circuit.
If the control computation circuit fails, control computation stops, and outputs (Y1 to Y4 and DO1 to DO10) are changed to held
status. The communication function also stops. In this case, the FAIL Display is shown by the display operation circuit. This circuit
If the display operation circuit fails, both normal display and operation are disabled, thereby causing control computation to be
stopped and outputs (Y1 to Y4 and DO1 to DO10) to change to held status. The communication function also stops. In this case,
current output signal (Y1) to be manipulated using MV operation keys. The display cannot be switched.
Regardless of the occurrence of a failure, the front panel of the instrument can be swung up to operate a current output signal (Y1)
using the hard manual operation wheel (when the instrument is equipped with the hard manual unit (i.e. with the designation of
suffix code -1).
Moreover, use of the YS110 standby manual station facilitates the replacement of the controller’s internal unit without interrupting
outputs.
Hard manual
operation circuit
Output
holding circuit
Abnormal
Normal
ON
(MV output)
OFF
(PV input)
Display operation circuit
(Display processor:
At MCU
failure
At DCU
Control computation circuit
(main processor: MCU)
DCU)
Normal
failure
At DCU failure
MV operation
Display
control section
60
Figure 10.1 Output Backup System
IM 01B08B02-01EN
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Troubleshooting
1002E.ai
Display Provided in the Event of FAIL
If both the main processor (MCU) and display processor (DCU) fail or if the gate array (GA) is faulty, no display is provided.
WARNING
If the FAIL lamp lights up and the LCD display does not function, the MV operation keys are available even if both the main
processor (MCU) and display processor (DCU) are faulty. However, do not manipulate MV because MV display is invisible.
Y1 output value is displayed (if FAIL lights up, the value displayed is the manipulated output
variable 1 produced immediately before the occurrence of the failure)
Displayed being linked with the hard manual output value (this pointer is not displayed if suffix
code -2 was specified.)
Displayed if the hard manual unit has been selected (this indication is not displayed if suffix
code -2 was specified.)
The cause of failure is displayed. If there are multiple failures, multiple causes of failures are
displayed. No indication is displayed if the cause of failure is unknown.
FAIL and ALM lamps FAIL lamp lights up and the ALM lamp is off
SV pointer Undefined
Tag number The tag number shown immediately before FAIL was displayed.
MV value directionC-O or O-C indicated immediately before FAIL was displayed.
Scale
0 to 100% unconditionally. Divisions are used that were indicated immediately before FAIL was
displayed.
C, A, M lamps M lamp lights up.
MH and ML pointers Not displayed
PH, PL, HH, and LL pointers Not displayed
PV, SV, and MV digital display Not displayed
Key entry All invalid with the exception of the MV operation keys (<, SHIFT, >)
Troubleshooting
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Troubleshooting
Selecting the action to take in the event of an error in the circuit diagnosis of current output.
Description
The SCOCD parameter is enabled when using Y1 terminal or Y3 terminal (Y3TP (analog output 3 current/voltage switching) is
4-20 mA (0)).
This parameter can be used to select D/A FAIL or OOP ALARM for displaying the diagnostic result in the event of an error with the
D/A conversion section and read-back value. Note that selecting OFF (2) does not perform diagnosis.
When Y terminal is voltage output (Y2 terminal, Y4 terminal, or Y3 terminal (Y3TP (analog output 3 current/voltage switching) is
1-5V (1)), D/A FALL is displayed if an error occurs with the D/A conversion section, regardless of the setting of SCOCD.
Current output wire open is detected, regardless of the setting of SCOCD.
Setting Display
Parameters Names Setting Range
FAIL: D/A FALL in the event of an error
ALARM: OOP ALARM in the event of an error
OFF: No diagnosis
SCOCD
Selection of Current
Output Circuit Diagnosis
Factory
Default
ALARM
Display
Engineering
Menu Display
1 > [CONFIG1]
(Configuration
Display 1)
Note
• How to use the Selection of Current Output Circuit Diagnosis (SCOCD)
When SCOCD is in ALARM (1) (default value):
If an error is detected in the current output read-back value, OOP ALARM is issued and control is continued. In the event
of a breakdown of the current output circuit, control is also continued. In this case, a breakdown of the current output
circuit should be judged based on the fact that proper control can no longer be performed or another system alarm or
process alarm has been issued.
When SCOCD is in FAIL (0):
If a breakdown of the current output circuit or an error in the current output read-back value is detected, D/A FAIL is set
and control is stopped.
When SCOCD is in OFF (2):
Control continues, even if an output read-back value error occurs or the current output circuit breaks down. In this
case, a breakdown of the current output circuit should be judged based on the fact that proper control can no longer be
performed or another system alarm or process alarm is issued.
• Diagnosis of the current output circuit
In current output circuit diagnosis, the current output value of the Y1 or Y3 terminal is read back to within the YS1000 to detect
an error from a difference between the output value and read-back value.
There are cases where the read-back value does not agree with the output value temporarily due to the characteristics of
a positioner, etc. connected to the Y1 or Y3 terminal or noise superimposed by the wiring condition, which results in the
judgment that there is an error in the D/A conversion section.
However, temporary noise of this kind or low-level noise may not affect control and control may be continued normally.
If an error occurs in the D/A conversion section, the cause may be one of the following three. Take action according to each
cause.
Possible CauseActions
(1) Breakdown of the current
output circuit
(2) A break in wire of Y1 or Y3
terminal
(3) Noise on Y1 or Y3 terminalIfcontrolisaected,eliminatenoise.
In this case, control is disabled from being continued.
The current output circuit has failed; contact us for repair.
A wire of the Y1 or Y3 terminal has broken; check the wiring.
This error may also occur if a terminal wire is disconnected during maintenance,
transient work, etc.
If control is normal, control can be continued as is. This presents no problem.
Backup Operation in the Event of Instrument Failure
Hardmanualunitoperation(exceptincaseswhensuffixcode-2 was specified)
Swinging up the front panel allows you to see the control section of the hard manual unit for backup (a manual operation output
section consisting of analog circuits) on the internal panel.
If YS1000 is in FAIL status and there is an urgent demand situation, set the manipulated output variable (Y1 output) to the safe
side using hard manual unit operation.
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Troubleshooting
Note: Before you connect the cable to the YS110 connector,
touch the metal lever to discharge static electricity.
(1) Metal lever
(2) YS110 standby manual station connection connector
(MANUAL STA)
(3) Hard manual operation wheel (HARD MANUAL)
(2)
(4)
(1)
(2)
(5)
(3)
(4) MV balance lamp (BAL)
1003E.ai
(5) Hard manual selector switch (ON/OFF)
Hard Manual Operation Section
Figure 10.3
• Adjust the value output by the hard manual circuit using the hard manual operation wheel to match it to the Y1 output value (the
control computation circuit’s manipulated output variable) produced immediately before FAIL was displayed. The output value
increases when the operation wheel is turned clockwise, while it decreases when turned counterclockwise.
• When the hard manual circuit output value agrees with the Y1 output value, the MV balance lamp (BAL: green) lights up.
• When the hard manual selector switch is turned ON, the Y1 output value is shifted from the control computation circuit to the
hard manual circuit while the Y1 output value continues to be generated. After that, output operation is available using the hard
manual operation wheel.
Note
The hard manual unit is only available for Y1 output operation.
Online Controller Replacement
WARNING
Do not remove the internal unit from the instrument case. Contact YOKOGAWA’s sales office or sales representative when
replacing the internal unit, as safety standard inspection is required.
WARNING
Explosionhazard.
Do not remove or insert the internal unit or do not connect the YS110 in explosive atmospheres.
CAUTION
Products with optional code /FM or /CSA cannot satisfy the explosion protection standards if the internal unit is removed.
Use of the standby manual station allows the controller to be replaced without interrupting Y1 output in the event of internal unit
failure, etc.
If a power failure occurs that exceeds the power holdup time, the instrument enters power failure status. Operation after a power
failure differs depending on the power failure time and on the start mode (START) engineering parameters that have been set.
The following action occurs with the factory default values.
If the self-tuning function is used, the PA1, IA1, and DA1 parameter values are initialized to the PB1, TI1, and TD1 values regardless of the start mode. This also holds true for the PA2, IA2, and DA2 parameters. Moreover, the parameters are initialized, so
that CR1 and CR2 = 0, RT1 and RT2 = 1.0, LM1 and LM2 = 0, TM1 and TM2 = 0, and GM1 and GM2 = 0.
Troubleshooting
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List of Parameters
Understanding the List of Parameters
Parameter: Symbol displayed on YS1000’s LCD
Name: Parameter name
Setting and Display Range: Range settable on YS1000
Unit: Parameter unit. An oblique line represents that there is no unit.
Factory Default Value: Factory default values for YS1500 (single-loop mode) and YS1700 (programmable mode)
Values in parentheses indicate the initial value applied when the controller mode is changed.
Display and Setting Conditions for Controller Mode: R: Display only, R/W: Display and setting available, N/A: No display
Description of symbols:
SINGLE: Single-loop mode
CAS: Cascade mode
SELECT: Selector mode
PROG: Programmable mode (YS1700 only)
For more information about each parameter, see the YS1500 Indicating Controller/ YS1700 Programmable Indicating Controller
User’s Manual.
Note
Parameters are initialized if the controller mode selection (CTL) parameter is changed:
All parameters will be initialized with the exception of setpoint 1 (SV1), setpoint 2 (SV2), user program name (PROG), system
Rev. No. (REV), password, all parameters on the LCD Setting Display, and all parameters on the Communication Setting
Display.
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Set-
User
tings
PROG
SELECT
CAS
for Controller Mode
Display and Setting Conditions
SINGLE
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
List of Parameters
OFFRRRR
OFF: STC is not operating DISP: STC values displayed only
ON: STC is operating ATSTUP: STC automatic start-up
ParameterNameSetting and Display RangeUnit
STCSTC mode
<Tuning Parameters>
PID Setting Display 1 (PID1)
IM 01B08B02-01EN
PV1Process variable 1Equivalent to -6.3 to 106.3% in the engineering unit (Note 1)Engineering unitUndefinedRRRR
SV1Setpoint value 1Equivalent to -6.3 to 106.3% in the engineering unit (Note 1)Engineering unit0.0R/WR/WR/WR/W
List of Parameters
Note 1: The engineering units set with the Engineering parameters, SCH1, SCL1, and SCDP1.
Note 2: MV (Manipulated output variable) can be set only with the MV operation key at the bottom of the front panel. MV will be displayed when the controller mode is set to cascade or selector.
Note 3: Alarm will not occur if set at a maximum value.
Note 4: Alarm will not occur if set at a minimum value.
Note 5: Be sure to set to MH1>ML1. In the cascade mode, MH1 and ML1 will be used as the setpoint for the loop 2. In the selector mode, MH1 and ML1 will be the same as MH2 and ML2.
Note 6: The HYS1 setting is effective on all alarms of PH1, PL1, HH1, LL1, and DL1.
Note 7: When the controller mode is set to the cascade/selector mode, PMV will be displayed.
MV1Manipulated output variable 1 (Note 2)-6.3 to 106.3%-6.3RRRR
CSV2Cascade setting value 2Equivalent to -6.3 to 106.3% in the engineering unit (Note 1)Engineering unitUndefinedN/AN/ARN/A
SSWSelector control switch
1: Loop 1 output, 2: Loop 2 output
Note 1: The engineering units set with the Engineering parameters, SCH2, SCL2, and SCDP2.
Note 2: MV (Manipulated output variable) can be set only with the MV operation key at the bottom of the front panel. MV will be displayed when the controller mode is set to cascade or selector.
Note 3: Alarm will not occur if set at a maximum value.
Note 4: Alarm will not occur if set at a minimum value.
Note 5: Be sure to set to MH2>ML2. In the selector mode, MH2 and ML2 will be the same as MH1 and ML1.
Note 6: The HYS2 setting is effective on all alarms of PH2, PL2, HH2, LL2, and DL2.
*The values in () of YS1500/1700 factory default values mean the initial values when the controller mode is changed to the selector mode.
PB2Proportional band 20.1 to 999.9%999.9N/AR/WR/WR/W
TI2Integral time 21 to 9999s (second)1000N/AR/WR/WR/W
TD2Derivative time 20 to 9999(0: OFF)s (second)0N/AR/WR/WR/W
SFA2Adjustablesetpointfilterα20.000 to 1.0000.000N/AR/WR/WR/W
SFB2Adjustablesetpointfilterβ20.000 to 1.0000.000N/AR/WR/WR/W
GW2Non-linear control gap width 20.0 to 100.0%0.0N/AR/WR/WR/W
GG2Non-linear control gain 20.000 to 1.0001.000N/AR/WR/WR/W
PH2High limit alarm setpoint for PV2Equivalent to -6.3 to 106.3% in the engineering unit (Note 1) (Note 3)Engineering unit106.3N/AR/WR/WR/W
PL2Low limit alarm setpoint for PV2Equivalent to -6.3 to 106.3% in the engineering unit (Note 1) (Note 4)Engineering unit-6.3N/AR/WR/WR/W
HH2High-high limit alarm setpoint for PV2Equivalent to -6.3 to 106.3% in the engineering unit (Note 1) (Note 3)Engineering unit106.3N/AR/WR/WR/W
LL2Low-low limit alarm setpoint for PV2Equivalent to -6.3 to 106.3% in the engineering unit (Note 1) (Note 4)Engineering unit-6.3N/AR/WR/WR/W
DL2Alarm setpoint for deviation variable 2Equivalent to 0.0 to 106.3% in the engineering unit (Note 1) (Note 4)Engineering unit0.0N/AR/WR/WR/W
VL2Velocity alarm setpoint for PV2Equivalent to 0.0 to 106.3% in the engineering unit (Note 1) (Note 4)Engineering unit0.0N/AR/WR/WR/W
VT2Velocity alarm time setpoint for PV21 to 9999s (second)1N/AR/WR/WR/W
HYS2Alarm hysteresis 2Equivalent to 0.0 to 20.0% in the engineering unit (Note 1) (Note 6)Engineering unit2.0N/AR/WR/WR/W
MH2High limit setpoint of MV2-6.3 to 106.3 (Note 5)%106.3N/AR/WRR/W
ML2Low limit setpoint of MV2-6.3 to 106.3 (Note 5)%-6.3N/AR/WRR/W
MR2Manual reset 2-6.3 to 106.3%-6.3N/AN/AN/AR/W
RB2Reset bias 20.0 to 106.3%0.0N/AR/WR/WR/W
PMV2Preset output 2-6.3 to 106.3%-6.3N/AN/AN/AR/W
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Set-
User
tings
PROG
SELECT
CAS
for Controller Mode
Display and Setting Conditions
SINGLE
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
OFFR/WR/WR/WR/W
STATICR/WR/WR/WR/W
List of Parameters
MEDR/WR/WR/WR/W
OFF: STC is not operating DISP: STC values displayed only
ON: STC is operating ATSTUP: STC automatic start-up (Note 3)
ParameterNameSetting and Display RangeUnit
PV1Process variable 1Equivalent to -6.3 to 106.3% in the engineering unit (Note 1)Engineering UnitUndefinedRRRR
SV1Setpoint value 1Equivalent to -6.3 to 106.3% in the engineering unit (Note 1)Engineering Unit0.0R/WR/WR/WR/W
MV1Manipulated output variable 1 (Note 2)-6.3 to 106.3%-6.3RRRR
STC Setting Display 1 (STC1)
IM 01B08B02-01EN
STCSTC mode selection
ODOn-demand tuning startOFF, ONOFFR/WR/WR/WR/W
PB1Proportional band 10.1 to 999.9%999.9R/WR/WR/WR/W
STATIC: Static process
DYNAM: Astatic process (with integral characteristics)
TI1Integral time 11 to 9999s (second)1000R/WR/WR/WR/W
TD1Derivative time 10 to 9999(0: OFF)s (second)0R/WR/WR/WR/W
IP1Process type 1
ZERO: Overshoot zero
MIN: Overshoot: Small (About 5%) Settling time: Short
TR1Process response time 14 to 9999s (second)300R/WR/WR/WR/W
NB1Noise band 1Equivalent to 0.0 to 20.0% in the engineering unit (Note 1)Engineering Unit0.0R/WR/WR/WR/W
OS1Control target type 1
MAX: Overshoot: (About 15%) Rise time: Fast
MI1MV applied signal span 10.0 to 20.0%5.0R/WR/WR/WR/W
PMX1High limit setpoint of proportional band 12.0 to 999.9%999.9R/WR/WR/WR/W
PMN1Low limit setpoint of proportional band 12.0 to 999.9%2.0R/WR/WR/WR/W
IMX1High limit setpoint of integral time 11 to 9999s (second)9999R/WR/WR/WR/W
IMN1Low limit setpoint of integral time1 to 9999s (second)1R/WR/WR/WR/W
DMX1High limit setpoint of derivative time 10 to 9999s (second)2000R/WR/WR/WR/W
PA1Calculated proportional band 12.0 to 999.9%999.9RRRR
IA1Calculated integral time 11 to 9999s (second)1000RRRR
List of Parameters
Note 1: The engineering units set with the Engineering parameters, SCH1, SCL1, and SCDP1.
Note 2: MV (Manipulated output variable) can be set only with the MV operation key at the bottom of the front panel. MV will be displayed when the controller mode is set to cascade or selector.
Note 3: ATSTUP can not be set if the controller mode is set to the selector or the selector control module is being used in the programmable mode.
DA1Calculated derivative time 10 to 9999s (second)0RRRR
CR1Presumed accuracy error 10.00 to 99.99%0.00RRRR
RT1Signal distribution ratio 10.000 to 9.9991.000RRRR
LM1Equivalent dead time 10 to 9999s (second)0RRRR
TM1Equivalent lag time 10 to 9999s (second)0RRRR
GM1Equivalent process gain 10.000 to 9.9990.000RRRR
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List of Parameters
Set-
User
tings
PROG
SELECT
CAS
for Controller Mode
Display and Setting Conditions
SINGLE
Factory Default Value
YS1700
(PROG)
YS1500
(SINGLE)
OFFN/AR/WR/WR/W
STATICN/AR/WR/WR/W
MEDN/AR/WR/WR/W
OFF: STC is not operating DISP: STC values displayed only
ON: STC is operating ATSTUP: STC automatic start-up (Note 3)
ParameterNameSetting and Display RangeUnit
PV2Process variable 2Equivalent to -6.3 to 106.3% in the engineering unit (Note 1)Engineering UnitUndefinedN/ARRR
SV2Setpoint value 2Equivalent to -6.3 to 106.3% in the engineering unit (Note 1)Engineering Unit0.0N/AR/WR/WR/W
MV2Manipulated output variable 2 (Note 2)-6.3 to 106.3%-6.3N/ARRR
STC Setting Display 2 (STC2)
STCSTC mode selection
68
ODOn-demand tuning startOFF, ONOFFN/AR/WR/WR/W
PB2Proportional band 20.1 to 999.9%999.9N/AR/WR/WR/W
STATIC: Static process
DYNAM: Astatic process (with integral characteristics)
TI2Integral time 21 to 9999s (second)1000N/AR/WR/WR/W
TD2Derivative time 20 to 9999 (0: OFF)s (second)0N/AR/WR/WR/W
IP2Process type 2
ZERO: Overshoot zero
MIN: Overshoot: Small (About 5%) Settling time: Short
TR2Process response time 24 to 9999s (second)300N/AR/WR/WR/W
NB2Noise band 2Equivalent to 0.0 to 20.0% in the engineering unit (Note 1)Engineering Unit0.0N/AR/WR/WR/W
OS2Control target type 2
MAX: Overshoot: (About 15%) Rise time: Fast
MI2MV applied signal span 20.0 to 20.0%5.0N/AR/WR/WR/W
PMX2High limit setpoint of proportional band 22.0 to 999.9%999.9N/AR/WR/WR/W
PMN2Low limit setpoint of proportional band 22.0 to 999.9%2.0N/AR/WR/WR/W
IMX2High limit setpoint of integral time 21 to 9999s (second)9999N/AR/WR/WR/W
IMN2Low limit setpoint of integral time 21 to 9999s (second)1N/AR/WR/WR/W
DMX2High limit setpoint of derivative time 20 to 9999s (second)2000N/AR/WR/WR/W
PA2Calculated proportional band 22.0 to 999.9%999.9N/ARRR
IA2Calculated integral time 21 to 9999s (second)1000N/ARRR
Note 1: The engineering units set with the Engineering parameters, SCH2, SCL2, and SCDP2.
Note 2: MV (Manipulated output variable) can be set only with the MV operation key at the bottom of the front panel. MV will be displayed when the controller mode is set to cascade or selector.
Note 3: ATSTUP can not be set if the controller mode is set to the selector mode or the selector control module is being used in the programmable mode.
DA2Calculated derivative time 20 to 9999s (second)0N/ARRR
CR2Presumed accuracy error 20.00 to 99.99%0.00N/ARRR
RT2Signal distribution ratio 20.000 to 9.9991.000N/ARRR
LM2Equivalent dead time 20 to 9999s (second)0N/ARRR
TM2Equivalent lag time 20 to 9999s (second)0N/ARRR
GM2Equivalent process gain 20.000 to 9.9990.000N/ARRR
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Page 72
Set-
User
tings
PROG
SELECT
CAS
for Controller Mode
Display and Setting Conditions
SINGLE
0.0N/AN/AN/AR/W
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
List of Parameters
ParameterNameSetting and Display RangeUnit
P&T Register Display (P&T REG 1/3)
IM 01B08B02-01EN
P01Variable parameter 1
P02Variable parameter 20.0N/AN/AN/AR/W
P03Variable parameter 30.0N/AN/AN/AR/W
P04Variable parameter 40.0N/AN/AN/AR/W
P05Variable parameter 50.0N/AN/AN/AR/W
P06Variable parameter 60.0N/AN/AN/AR/W
P07Variable parameter 70.0N/AN/AN/AR/W
P08Variable parameter 80.0N/AN/AN/AR/W
P09Variable parameter 90.0N/AN/AN/AR/W
P10Variable parameter 100.0N/AN/AN/AR/W
P11Variable parameter 110.0N/AN/AN/AR/W
Internal value (User program) = Maximum and Minimum value which can be
expressed by floating point numbers.
Setting and display range = -99999 to 99999
When this range is exceeded, ´*´ is displayed.
The scale and decimal point position for each P register are set by YSS1000.
Factory default settings for scale and decimal point position
Scale high limit: 1000 (100.0 on the display)
Scale low limit: 00 (0.0 on the display)
Decimal point position: 1
P12Variable parameter 120.0N/AN/AN/AR/W
P13Variable parameter 130.0N/AN/AN/AR/W
P14Variable parameter 140.0N/AN/AN/AR/W
P15Variable parameter 150.0N/AN/AN/AR/W
P16Variable parameter 160.0N/AN/AN/AR/W
P17Variable parameter 170.0N/AN/AN/AR/W
P18Variable parameter 180.0N/AN/AN/AR/W
P19Variable parameter 190.0N/AN/AN/AR/W
P20Variable parameter 200.0N/AN/AN/AR/W
P21Variable parameter 210.0N/AN/AN/AR/W
P22Variable parameter 220.0N/AN/AN/AR/W
P23Variable parameter 230.0N/AN/AN/AR/W
P24Variable parameter 240.0N/AN/AN/AR/W
P25Variable parameter 250.0N/AN/AN/AR/W
P26Variable parameter 260.0N/AN/AN/AR/W
P27Variable parameter 270.0N/AN/AN/AR/W
P28Variable parameter 280.0N/AN/AN/AR/W
P29Variable parameter 290.0N/AN/AN/AR/W
List of Parameters
P30Variable parameter 300.0N/AN/AN/AR/W
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List of Parameters
Set-
User
tings
PROG
SELECT
CAS
for Controller Mode
Display and Setting Conditions
SINGLE
0.0000N/AN/AN/AR
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
ParameterNameSetting and Display RangeUnit
T01Temporary memory register 1
T02Temporary memory register 20.0000N/AN/AN/AR
T03Temporary memory register 30.0000N/AN/AN/AR
T04Temporary memory register 40.0000N/AN/AN/AR
T05Temporary memory register 50.0000N/AN/AN/AR
T06Temporary memory register 60.0000N/AN/AN/AR
T07Temporary memory register 70.0000N/AN/AN/AR
P&T Register Display (P&T REG 2/3)
T08Temporary memory register 80.0000N/AN/AN/AR
70
Internal value (User program) = Maximum and Minimum value which can be
expressed by floating point numbers.
Setting and display range = -99999 to 99999
When this range is exceeded, ´*´ is displayed.
Each T register is set by user program
T09Temporary memory register 90.0000N/AN/AN/AR
T10Temporary memory register 100.0000N/AN/AN/AR
T11Temporary memory register 110.0000N/AN/AN/AR
T12Temporary memory register 120.0000N/AN/AN/AR
T13Temporary memory register 130.0000N/AN/AN/AR
T14Temporary memory register 140.0000N/AN/AN/AR
T15Temporary memory register 150.0000N/AN/AN/AR
T16Temporary memory register 160.0000N/AN/AN/AR
T17Temporary memory register 170.0000N/AN/AN/AR
T18Temporary memory register 180.0000N/AN/AN/AR
T19Temporary memory register 190.0000N/AN/AN/AR
T20Temporary memory register 200.0000N/AN/AN/AR
T21Temporary memory register 210.0000N/AN/AN/AR
T22Temporary memory register 220.0000N/AN/AN/AR
T23Temporary memory register 230.0000N/AN/AN/AR
T24Temporary memory register 240.0000N/AN/AN/AR
T25Temporary memory register 250.0000N/AN/AN/AR
T26Temporary memory register 260.0000N/AN/AN/AR
T27Temporary memory register 270.0000N/AN/AN/AR
T28Temporary memory register 280.0000N/AN/AN/AR
T29Temporary memory register 290.0000N/AN/AN/AR
T30Temporary memory register 300.0000N/AN/AN/AR
IM 01B08B02-01EN
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Set-
User
tings
PROG
SELECT
CAS
for Controller Mode
Display and Setting Conditions
SINGLE
0.0000N/AN/AN/AR
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
List of Parameters
ParameterNameSetting and Display RangeUnit
T31Temporary memory register 31
T32Temporary memory register 320.0000N/AN/AN/AR
T33Temporary memory register 330.0000N/AN/AN/AR
T34Temporary memory register 340.0000N/AN/AN/AR
T35Temporary memory register 350.0000N/AN/AN/AR
T36Temporary memory register 360.0000N/AN/AN/AR
P&T Register Display (P&T REG 3/3)
IM 01B08B02-01EN
T37Temporary memory register 370.0000N/AN/AN/AR
Internal value (User program) = Maximum and Minimum value which can be
expressed by floating point numbers.
Setting and display range = -99999 to 99999
When this range is exceeded, ´*´ is displayed.
Each T register is set by user program
T38Temporary memory register 380.0000N/AN/AN/AR
T39Temporary memory register 390.0000N/AN/AN/AR
T40Temporary memory register 400.0000N/AN/AN/AR
T41Temporary memory register 410.0000N/AN/AN/AR
T42Temporary memory register 420.0000N/AN/AN/AR
T43Temporary memory register 430.0000N/AN/AN/AR
T44Temporary memory register 440.0000N/AN/AN/AR
T45Temporary memory register 450.0000N/AN/AN/AR
T46Temporary memory register 460.0000N/AN/AN/AR
T47Temporary memory register 470.0000N/AN/AN/AR
T48Temporary memory register 480.0000N/AN/AN/AR
T49Temporary memory register 490.0000N/AN/AN/AR
T50Temporary memory register 500.0000N/AN/AN/AR
T51Temporary memory register 510.0000N/AN/AN/AR
T52Temporary memory register 520.0000N/AN/AN/AR
T53Temporary memory register 530.0000N/AN/AN/AR
T54Temporary memory register 540.0000N/AN/AN/AR
T55Temporary memory register 550.0000N/AN/AN/AR
T56Temporary memory register 560.0000N/AN/AN/AR
T57Temporary memory register 570.0000N/AN/AN/AR
T58Temporary memory register 580.0000N/AN/AN/AR
T59Temporary memory register 590.0000N/AN/AN/AR
T60Temporary memory register 600.0000N/AN/AN/AR
List of Parameters
71
Page 75
List of Parameters
Set-
User
tings
PROG
SELECT
CAS
for Controller Mode
Display and Setting Conditions
SINGLE
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
ParameterNameSetting and Display RangeUnit
Parameter Setting Display (PARAMETER)
72
PLC1Square root extraction low cutoff setpoint for PV10.0 to 100.0%1.0R/WR/WR/WN/A
PLG1First order lag time constant for PV10.0 to 800.0s (second)0.0R/WR/WR/WN/A
CLC1Square root extraction low cutoff setpoint for CSV10.0 to 100.0%1.0R/WR/WR/WN/A
CLG1First order lag time constant for CSV10.0 to 800.0s (second)0.0R/WR/WR/WN/A
CGN1Ratio gain for CSV1-8.000 to 8.0001.000R/WR/WR/WN/A
CBI1Ratio input bias for CSV1-106.3 to 106.3%0.0R/WR/WR/WN/A
CBO1Ratio output bias for CSV1-800.0 to 800.0%0.0R/WR/WR/WN/A
FLGFeedforward lag time constant0.0 to 800.0s (second)0.0R/WR/WN/AN/A
FGNFeedforward gain-8.000 to 8.0000.000R/WR/WN/AN/A
FBIFeedforward input bias-106.3 to 106.3%0.0R/WR/WN/AN/A
FBOFeedforward output bias-800.0 to 800.0%0.0R/WR/WN/AN/A
TLGTracking input lag time constant0.0 to 800.0s (second)0.0R/WR/WR/WN/A
PLC2Square root extraction low cutoff setpoint for PV20.0 to 100.0%(1.0)N/AR/WR/WN/A
PLG2First order lag time constant of PV20.0 to 800.0s (second)(0.0)N/AR/WR/WN/A
CLC2Square root extraction low cutoff setpoint for CSV20.0 to 100.0%(1.0)N/AN/AR/WN/A
CLG2First order lag time constant for CSV20.0 to 800.0s (second)(0.0)N/AN/AR/WN/A
CGN2Ratio gain for CSV2-8.000 to 8.000(1.000)N/AN/AR/WN/A
*The values in () of YS1500 factory default values mean the initial values when the Controller mode is changed to the Selector/Cascade mode.
CBI2Ratio input bias for CSV2-106.3 to 106.3%(0.0)N/AN/AR/WN/A
CBO2Ratio output bias for CSV2-800.0 to 800.0%(0.0)N/AN/AR/WN/A
IM 01B08B02-01EN
Page 76
Set-
User
tings
PROG
SELECT
CAS
for Controller Mode
Display and Setting Conditions
SINGLE
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
List of Parameters
0RRRR
%-25.0RRRR
-25.0 to 125.0
%-6.3RRRR
-6.3 to 106.3
0, 1
List of Parameters
ParameterNameSetting and Display RangeUnit
X1Analog input 1
X2Analog input 2%-25.0RRRR
X3Analog input 3%-25.0RRRR
X4Analog input 4%-25.0RRRR
X5Analog input 5/Direct input signal output%-25.0RRRR
X6Analog input 6 (Note 1)%-25.0RRRR
X7Analog input 7 (Note 1)%-25.0RRRR
X8Analog input 8 (Note 1)%-25.0RRRR
Input and Output Data Display (I/O Data)
IM 01B08B02-01EN
Y1Analog output 1-20.0 to 106.3%-20.0RRRR
Y2Analog output 2
Y3Analog output 3%-6.3RRRR
Y4Analog output 4 (Note 1)%-6.3RRRR
Y5Analog output 5 (Note 2)%-6.3N/AN/AN/AR
Y6Analog output 6 (Note 2)%-6.3N/AN/AN/AR
DI01 DO01Digital input 1/Digital output 1
DI02 DO02Digital input 2/Digital output 20RRRR
DI03 DO03Digital input 3/Digital output 30RRRR
DI04 DO04Digital input 4/Digital output 40RRRR
DI05 DO05Digital input 5/Digital output 50RRRR
Note 1: This value is displayed only on YS1700 Basic type with expandable I/O, and it is always displayed in the programmable mode.
Note 2: Y5 and Y6 are not actual terminals. They are used as the inside registers.
Analog input 3, X4: Analog input4,X5:Analog input 5,X6: Analog input 6 (Note 4), X7:Analog
input7 (Note 4), X8: Analog input 8 (Note 4)
Y4SAnalog output 4 selection (Note 4)R/WR/WR/WN/A
MCUMain CPU version numberMain CPU version numberRx.xx.xxRRRR
PROGUser program nameAlphanumeric character 8 digits (set by YSS1000)DEFAULTN/AN/AN/AR
REVSystem revision numberStyle number and Revision number of the product
IM 01B08B02-01EN
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
Note 2: “PROG” (User program name) is displayed only on YS1700.
Note 3: Loop1 is always displayed even if you set “OFF” for all lines. When you do not use TRND3, set it to “OFF”.
Note 4: This value is displayed only on YS1700 Basic type with expandable I/O.
*The values in () of YS1500/1700 factory default values mean the initial values when the controller mode is changed to the selector/cascade mode
DCUDisplay CPU version numberDisplay CPU version numberRx.xx.xxRRRR
PARAMCU parameter version numberMCU parameter version numberRx.xx.xxRRRR
COMPCompile version numberCompile version numberRx.xx.xxN/AN/AN/AR
Page 78
Set-
User
tings
PROG
SELECT
for Controller Mode
List of Parameters
Display and Setting Conditions
SINGLECAS
YS1700
(PROG)
PIDR/WR/WR/WR/W
YS1500
Factory Default Value
(SINGLE)
R/WR/WR/WR/W
PIDN/AR/WR/WR/W
---YS1500--- ---YS1700---
N/AR/WR/WR/W
---YS1700---
PID: Standard PID (Note 2), S-PI: Sample-and-hold PI control (Note 2),
BATCH: Batch PID control (Note 2), PD: Proportional (PD) control (Note 2)
ParameterNameSetting and Display RangeUnit
SETEnable/Disable settingINHB: Setting impossible ENBL: Setting possible (Note1)INHBR/WR/WR/WR/W
BATCH: Batch PID control (Note 2), PD: Proportional (PD) control (Note 2)
CNT2Control type 2
ALG2Control operation formula 2I-PD: PV proportional type PID, PI-D: PV derivative type PID, SVF: Adjustable setpoint filterI-PDN/AR/WR/WR/W
ACT2Control operation direction 2RVS: Reverse action DIR: Direct actionRVSN/AR/WR/WR/W
VDIR2Valve direction 2C-O: MV 0%=Close, 100%=Open, O-C: MV 0%=Open, 100%=CloseC-ON/AN/AN/AR/W
SCH2100% value of scale 2-80000 to 800001000N/AR/WR/WR/W
SCL20% value of scale 2-80000 to 800000N/AR/WR/WR/W
SCDP2Decimal point position 2#####, ####.#, ###.##, ##.###, #.########.#N/AR/WR/WR/W
mode.
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
Note 2: In the single-loop mode, “PID”, “S-PI” or “PD” is available for setting. In the cascade mode, “PID” or “S-PI” is available for setting. In the selector mode, “PID” is available for setting. “BATCH” is for programmable
UNIT2Engineering unit 2Alphanumeric character 7 digits%N/AR/WR/WR/W
TAG2Tag number 2Alphanumeric character 12 digits
List of Parameters
Be sure to set the ALG1 and ALG2 (Control operation formula 1, 2) to “PI-D”. The same settings should be done to each control module (basic/cascade/selector control) used in the programmable mode.
75
Page 79
List of Parameters
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
R/WR/WR/WN/A
OFFR/WR/WR/WN/A
OFFR/WR/WN/AN/A
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
OFF, ON
ParameterNameSetting and Display RangeUnit
SETEnable/Disable settingINHB: Setting impossible ENBL: Setting possible (Note1)INHBR/WR/WR/WN/A
PFKEYSelection of PF key function-: None, STC: Self tuning
FX110-segment linearizer function for PV1OFFR/WR/WR/WN/A
CSR1Square root extraction for CSVOFFR/WR/WR/WN/A
Configuration Display 3 (CONFIG3)
CSW1Ratio operation for CSV1OFFR/WR/WR/WN/A
76
OFF, ON
FSWFeedforward gain operation
FONAddition of feedforward outputOFFR/WR/WN/AN/A
PSR2Square root extraction for PV2(OFF)N/AR/WR/WN/A
FX210-segment linearizer function for PV2(OFF)N/AR/WR/WN/A
CSR2Square root extraction for CSV2(OFF)N/AN/AR/WN/A
CSW2Ratio operation for CSV2(OFF)N/AN/AR/WN/A
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
*The values in () of YS1500 factory default values mean the initial values when the controller mode is changed to the selector/cascade mode
See Chapter 5, Adjustment of Direct Inputs (Temperature/Resistance/Frequency), in the YS1500 Indicating Controller/YS1700 Programmable Indicating Controller User’s Manual.
Input Specification Setting Display (SC MAINT)
See 4.2.2, Inhibiting/Enabling Parameter Change, in the YS1500 Indicating Controller/ YS1700 Programmable Indicating Controller User’s Manual.
Password Setting Display (PASSWORD)
ParameterNameSetting and Display RangeUnit
STM1Sample PI sampled time 10 to 9999s (second)00R/WR/WN/AR/W
SWD1Sample-and-hold PI control time span 10 to 9999s (second)00R/WR/WN/AR/W
BD1Batch PID deviation setting value 10.0 to 100.0%0.0N/AN/AN/AR/W
BB1Batch PID bias 10.0 to 100.0%0.0N/AN/AN/AR/W
BL1Batch PID lock-up width 10.0 to 100.0%0.0N/AN/AN/AR/W
STM2Sample PI sampled time 20 to 9999s (second)0N/AR/WN/AR/W
SWD2Sample-and-hold PI control time span 20 to 9999s (second)0N/AR/WN/AR/W
BD2Batch PID deviation setting value 20.0 to 100.0%0.0N/AN/AN/AR/W
OFF: None, PH1: High limit alarm for PV1 PL1: Low limit alarm for PV1, HH1: High-high limit
alarm for PV1, LL1: Low-low limit alarm for PV1, DL1: Alarm for deviation variable 1,
VL1: Velocity alarm for PV1, DL1 VL1: Alarm for deviation variable 1/ Velocity alarm for PV1,
1-ALM: OR for all alarms of the loop 1
OFF: None, PH2: High limit alarm for PV2 PL2: Low limit alarm for PV2, HH2: High-high limit
alarm for PV2, LL2: Low-low limit alarm for PV2, DL2: Alarm for deviation variable 2,
VL2: Velocity alarm for PV2, DL2 VL2: Alarm for deviation variable 2/ Velocity alarm for PV2,
2-ALM: OR for all alarms of the loop 2
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
Note 2: This value is displayed only on YS1700 Basic type with expandable I/O.
TRDS1Data selection 1 for TREND 3 Display
TRDS2Data selection 2 for TREND 3 Display SV1R/WR/WR/WR/W
TRDS3Data selection 3 for TREND 3 Display MV1R/WR/WR/WR/W
TRDS4Data selection 4 for TREND 3 Display OFFR/WR/WR/WR/W
TAGALColor inversion of tag numberOFF, ONOFFR/WR/WR/WR/W
DISP1Display register 1 selection-, P01 to P30-N/AN/AN/AR/W
NAME1Name of display register 1Alphanumeric character 3 digitsPRMN/AN/AN/AR/W
DISP2Display register 2 selection-, P01 to P30-N/AN/AN/AR/W
NAME2Name of display register 2Alpha numeric character 3 digitsPRMN/AN/AN/AR/W
77
List of Parameters
Page 81
List of Parameters
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
ParameterNameSetting and Display RangeUnit
SETEnable/Disable settingINHB: Setting impossible ENBL: Setting possible (Note1)INHBR/WR/WR/WR/W
ECOLCD backlight auto-off timerOFF: Timer function OFF, ON: Timer function ON (Off timer: 30 min)OFFR/WR/WR/WR/W
CTRSLCD contrast adjustment0 to 105R/WR/WR/WR/W
LCD Setting Display (LCD)
BRTLCD brightness adjustment0 to 51R/WR/WR/WR/W
78
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
IM 01B08B02-01EN
Page 82
Set-
User
tings
PROG
SELECT
for Controller Mode
List of Parameters
Display and Setting Conditions
Factory Default Value
SINGLECAS
YS1700
(PROG)
YS1500
(SINGLE)
RRRR
No option:-
/A31:RS-485
/A32:DCS-LCS
MODRTUR/WR/WR/WR/W
192R/WR/WR/WR/W
255R/WR/WR/WR/W
0R/WR/WR/WR/W
INHB: Setting impossible ENBL: Setting possible (Note1)ENBLR/WR/WR/WR/W
H-L: High-Low, L-H: Low-HighH-LR/WR/WR/WR/W
PCL: PC-link communication,
Enable/Disable writing via RS-485
communication (Note 2)
RS-485 communication D register setting for
High/Low level (Note 3)
ParameterNameSetting and Display RangeUnit
SETEnable/Disable settingINHB: Setting impossible ENBL: Setting possible (Note1)INHBR/WR/WR/WR/W
COMMCommunication selection-, RS-485, DCS-LCS
COMWR
Communication Setting Display (COMM)
IM 01B08B02-01EN
DREG1
YS: YS protocol, P-to-P: Peer-to-peer communication (Note 4)
PCLSUM: PC-link communication (with checksum),
MODASC: Modbus communication (ASCII),
MODRTU: Modbus communication (RTU),
PSLRS-485 Protocol selection (Note 3)
ADRSRS-485 communication address (Note 3)1 to 991R/WR/WR/WR/W
STBITRS-485 stop bit (Note 3)1 bit, 2 bit1 bitR/WR/WR/WR/W
INHB: Setting impossible ENBL: Setting possible (Note1)ENBLR/WR/WR/WR/W
H-L: High-Low, L-H: Low-HighH-LR/WR/WR/WR/W
Enable/Disable writing via Ethernet
communication (Note 5)
Ethernet communication D register setting for
High/Low level (Note 5)
ETRWR
DREG2
0 to 255
ECTOEthernet communication timeout period4 to 60s60R/WR/WR/WR/W
IPAD1IP address 1 (Note 5)
IPAD2IP address 2 (Note 5)168R/WR/WR/WR/W
IPAD3IP address 3 (Note 5)1R/WR/WR/WR/W
IPAD4IP address 4 (Note 5)1R/WR/WR/WR/W
SM1Subnet mask 1 (Note 5)
0 to 255
SM2Subnet mask 2 (Note 5)255R/WR/WR/WR/W
0 to 255
SM3Subnet mask 3 (Note 5)255R/WR/WR/WR/W
SM4Subnet mask 4 (Note 5)0R/WR/WR/WR/W
DG1Default gateway 1 (Note 5)
DG2Default gateway 2 (Note 5)0R/WR/WR/WR/W
DG3Default gateway 3 (Note 5)0R/WR/WR/WR/W
DG4Default gateway 4 (Note 5)0R/WR/WR/WR/W
List of Parameters
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
Note 2: Available for the option /A31 or /A32.
Note 3: Available for the option /A31.
Note 4: “P-to-P” is available only for YS1700.
Note 5: Available for the option /A34.
PORTPort number (Note 5)502, 1024 to 65535502R/WR/WR/WR/W
SETEnable/Disable settingINHB: Setting impossible ENBL: Setting possible (Note1)INHBR/WR/WR/WN/A
DIO16DI1/DO6 specification
DIO25DI2/DO5 specification
DIO34DI3/DO4 specification
DI/DO Configuration Display 1/2 (DI/DO 1/2)
DIO43DI4/DO3 specification
NONE: No function
E-AUT: Switching to Automatic mode (status)
E-MAN: Switching to Manual mode (status)
DIO52DI5/DO2 specification
DIO61DI6/DO1 specification
DI1FDI1 function selection
DI2FDI2 function selectionNONER/WR/WR/WN/A
80
E-O/C: Open/Close switching (Note 3),
DI3FDI3 function selectionNONER/WR/WR/WN/A
E-L/R: Local/Remote swiching (Note 4),
E-PMV: Preset MV switching
E-STC: Self tuning switching
E-SEL: Selector ON/OFF switching (Note 4)
TR-MPMV: Manual and Preset MV switching
TR-MAN: Swiching to Manual mode (trigger)
TR-AUT: Switching to Automatic mode (trigger)
TR-CAS: Switching to Cascade mode (trigger)
LCD-OFF: Backlilght OFF
E-TRK: Output tracking switching
E-LPSEL: Output loop selection (Selector control only)
DI4FDI4 function selection NONER/WR/WR/WN/A
DI5FDI5 function selectionNONER/WR/WR/WN/A
DI6FDI6 function selectionNONER/WR/WR/WN/A
DI7FDI7 function selection (Note 2)R/WR/WR/WN/A
DI8FDI8 function selection (Note 2)R/WR/WR/WN/A
DI9FDI9 function selection (Note 2)R/WR/WR/WN/A
TR-EVT.C: All event elimination
DI10FDI10 function selection (Note 2)R/WR/WR/WN/A
DI1DDI1 contact type
DI2DDI2 contact typeOPNR/WR/WR/WN/A
DI3DDI3 contact typeOPNR/WR/WR/WN/A
OPN: Function is available when the contact is open
CLS: Function is available when the contact is closed
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
Note 2: This value is displayed only on YS1700 Basic type with expandable I/O.
DI4DDI4 contact typeOPNR/WR/WR/WN/A
DI5DDI5 contact typeOPNR/WR/WR/WN/A
DI6DDI6 contact typeOPNR/WR/WR/WN/A
DI7DDI7 contact type (Note 2)R/WR/WR/WN/A
DI8DDI8 contact type (Note 2)R/WR/WR/WN/A
DI9DDI9 contact type (Note 2)R/WR/WR/WN/A
DI10DDI10 contact type (Note 2)R/WR/WR/WN/A
cascade is in open status. The status of the contact can be changed by the contact type parameters.)
cascade setpoint value. E-SEL; When the contact is closed, MV of the loop 1 is selected. When the contact is opened, MV is selected automatically by ATSEL parameter)
Note 3: This function can be selected when the controller mode is in the cascade mode. (Ex. DInD (n=1 to 10) = OPN: When the contact is closed, internal cascade is in close status. When the contact is open, internal
Note 4: This function can be selected when the controller mode is in the selector mode. (Ex. DInD (n=1 to 10) =OPN: E-L/R; When the contact is closed, SV2 is the local setpoint value. When the contact is open, SV2 is
IM 01B08B02-01EN
Page 84
Set-
User
tings
PROG
SELECT
for Controller Mode
List of Parameters
Display and Setting Conditions
SINGLECAS
(SINGLE)
PH1R/WR/WR/WN/A
Value
Default
YS1500
Factory
OPNR/WR/WR/WN/A
R/WR/WR/WN/A
OPN
R/WR/WR/WN/A
CLS
R/WR/WR/WN/A
CLS
NONE: OFF, PH1: High limit alarm for PV1, PL1: Low limit alarm for PV1,
HH1: High-high limit alarm for PV1, LL1: Low-low limit alarm for PV1,
DL1: Alarm for deviation variable 1, VL1: Velocity alarm for PV1,
PH2: High limit alarm for PV2, PL2: Low limit alarm for PV2,
HH2: High-high limit alarm for PV2, LL2: Low-low limit alarm for PV2,
DL2: Alarm for deviation variable 2, VL2: Velocity alarm for PV2,
DL1 VL1: Alarm for deviation variable 1/ Velocity alarm for PV1,
DL2 VL2: Alarm for deviation variable 2/ Velocity alarm for PV2,
1-ALM: OR for all alarms of the loop 1, 2-ALM: OR for all alarms of the loop 2
SETEnable/Disable settingINHB: Setting impossible ENBL: Setting possible (Note1)INHBR/WR/WR/WN/A
DO1FDO1 function selection (Note 2)
DO2FDO2 function selection (Note 2)PL1R/WR/WR/WN/A
DO3FDO3 function selection (Note 2)VL1R/WR/WR/WN/A
DO4FDO4 function selection (Note 2)CASR/WR/WR/WN/A
DO5FDO5 function selection (Note 2)CASAUTR/WR/WR/WN/A
DO6FDO6 function selection (Note 2)NONER/WR/WR/WN/A
DO7FDO7 function selection (Note 2) (Note 3)NONER/WR/WR/WN/A
DI/DO Configuration Display 2/2 (DI/DO 2/2)
IM 01B08B02-01EN
DO8FDO8 function selection (Note 2) (Note 3)NONER/WR/WR/WN/A
Remote, OOP: Current output open
DO9FDO9 function selection (Note 2) (Note 3)NONER/WR/WR/WN/A
DO10FDO10 function selection (Note 2) (Note 3)NONER/WR/WR/WN/A
DO1DDO1 contact type
DO2DDO2 contact typeOPNR/WR/WR/WN/A
DO3DDO3 contact type
OPN: When the event occurs, the contact is opened
CLS: When the event occurs, the contact is closed
DO4DDO4 contact type
DO5DDO5 contact type
DO6DDO6 contact typeOPNR/WR/WR/WN/A
DO7DDO7 contact type (Note 3)R/WR/WR/WN/A
DO8DDO8 contact type (Note 3)R/WR/WR/WN/A
List of Parameters
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
Note 2: Ex. When DInD (n=1 to 10) is OPN, and the DO function parameter is:
CASAUT: The contact is open when in the cascade or automatic mode
O/C: The contact is closed when the internal cascade is in close status, the contact is open when the internal cascade is in open status.
L/R: The contact is closed when SV2 is local setpoint value, the contact is open when SV2 is cascade setpoint value.
All alarm related parameters: the contact is open when the alarm occurs.
Note 3: This value is displayed only on YS1700 Basic type with expandable I/O.
DO9DDO9 contact type (Note 3)R/WR/WR/WN/A
DO10DDO10 contact type (Note 3)R/WR/WR/WN/A
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List of Parameters
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
YS1700
(PROG)
0.000R/WR/WR/WR/W
YS1500
(SINGLE)
Factory Default Value
0.000R/WR/WR/WR/W
FXTableSettingDisplay(FXTABLE)
82
ParameterNameSetting and Display RangeUnit
1010%settingofFX1
10210%settingofFX10.100R/WR/WR/WR/W
10320%settingofFX10.200R/WR/WR/WR/W
10430%settingofFX10.300R/WR/WR/WR/W
10540%settingofFX10.400R/WR/WR/WR/W
0.000 to 1.000
10650%settingofFX10.500R/WR/WR/WR/W
10760%settingofFX10.600R/WR/WR/WR/W
10870%settingofFX10.700R/WR/WR/WR/W
10980%settingofFX10.800R/WR/WR/WR/W
11090%settingofFX10.900R/WR/WR/WR/W
111100%settingofFX11.000R/WR/WR/WR/W
2010%settingofFX2
20210%settingofFX20.100R/WR/WR/WR/W
20320%settingofFX20.200R/WR/WR/WR/W
20430%settingofFX20.300R/WR/WR/WR/W
20540%settingofFX20.400R/WR/WR/WR/W
0.000 to 1.000
20650%settingofFX20.500R/WR/WR/WR/W
20760%settingofFX20.600R/WR/WR/WR/W
20870%settingofFX20.700R/WR/WR/WR/W
20980%settingofFX20.800R/WR/WR/WR/W
21090%settingofFX20.900R/WR/WR/WR/W
211100%settingofFX21.000R/WR/WR/WR/W
IM 01B08B02-01EN
Page 86
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
List of Parameters
Factory Default Value
YS1700
(PROG)
YS1500
(SINGLE)
0.000N/AN/AN/AR/W
0.000N/AN/AN/AR/W
ParameterNameSetting and Display RangeUnit
GX1TableSettingDisplay(GX1TABLE)
IM 01B08B02-01EN
101Input1settingofGX1
102Input2settingofGX10.100N/AN/AN/AR/W
103Input3settingofGX10.200N/AN/AN/AR/W
104Input4settingofGX10.300N/AN/AN/AR/W
-0.250 to 1.250
105Input5settingofGX10.400N/AN/AN/AR/W
106Input6settingofGX10.500N/AN/AN/AR/W
107Input7settingofGX10.600N/AN/AN/AR/W
108Input8settingofGX10.700N/AN/AN/AR/W
109Input9settingofGX10.800N/AN/AN/AR/W
110Input10settingofGX10.900N/AN/AN/AR/W
111Input11settingofGX11.000N/AN/AN/AR/W
101Output1settingofGX1
102Output2settingofGX10.100N/AN/AN/AR/W
103Output3settingofGX10.200N/AN/AN/AR/W
104Output4settingofGX10.300N/AN/AN/AR/W
105Output5settingofGX10.400N/AN/AN/AR/W
-0.250 to 1.250
106Output6settingofGX10.500N/AN/AN/AR/W
107Output7settingofGX10.600N/AN/AN/AR/W
108Output8settingofGX10.700N/AN/AN/AR/W
109Output9settingofGX10.800N/AN/AN/AR/W
110Output10settingofGX10.900N/AN/AN/AR/W
List of Parameters
111Output11settingofGX11.000N/AN/AN/AR/W
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List of Parameters
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
Factory Default Value
YS1700
(PROG)
YS1500
(SINGLE)
0.000N/AN/AN/AR/W
0.000N/AN/AN/AR/W
GX2TableSettingDisplay(GX2TABLE)
84
ParameterNameSetting and Display RangeUnit
201Input1settingofGX2
202Input2settingofGX20.100N/AN/AN/AR/W
203Input3settingofGX20.200N/AN/AN/AR/W
204Input4settingofGX20.300N/AN/AN/AR/W
-0.250 to 1.250
205Input5settingofGX20.400N/AN/AN/AR/W
206Input6settingofGX20.500N/AN/AN/AR/W
207Input7settingofGX20.600N/AN/AN/AR/W
208Input8settingofGX20.700N/AN/AN/AR/W
209Input9settingofGX20.800N/AN/AN/AR/W
210Input10settingofGX20.900N/AN/AN/AR/W
211Input11settingofGX21.000N/AN/AN/AR/W
201Output1settingofGX2
202Output2settingofGX20.100N/AN/AN/AR/W
203Output3settingofGX20.200N/AN/AN/AR/W
204Output4settingofGX20.300N/AN/AN/AR/W
-0.250 to 1.250
205Output5settingofGX20.400N/AN/AN/AR/W
206Output6settingofGX20.500N/AN/AN/AR/W
207Output7settingofGX20.600N/AN/AN/AR/W
208Output8settingofGX20.700N/AN/AN/AR/W
209Output9settingofGX20.800N/AN/AN/AR/W
210Output10settingofGX20.900N/AN/AN/AR/W
211Output11settingofGX21.000N/AN/AN/AR/W
IM 01B08B02-01EN
Page 88
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
List of Parameters
Factory Default Value
YS1700
(PROG)
YS1500
(SINGLE)
0N/AN/AN/AR/W
0.000N/AN/AN/AR/W
ParameterNameSetting and Display RangeUnit
Program-Setting-Unit1SettingDisplay(PGM1SET)
IM 01B08B02-01EN
0 to 9999
101Time 1 setting for PGM1
102Time 2 setting for PGM10N/AN/AN/AR/W
103Time 3 setting for PGM10N/AN/AN/AR/W
104Time 4 setting for PGM10N/AN/AN/AR/W
105Time 5 setting for PGM10N/AN/AN/AR/W
106Time 6 setting for PGM10N/AN/AN/AR/W
107Time 7 setting for PGM10N/AN/AN/AR/W
108Time 8 setting for PGM10N/AN/AN/AR/W
109Time 9 setting for PGM10N/AN/AN/AR/W
110Time 10 setting for PGM10N/AN/AN/AR/W
101Output 1 setting for PGM1
102Output 2 setting for PGM10.000N/AN/AN/AR/W
103Output 3 setting for PGM10.000N/AN/AN/AR/W
104Output 4 setting for PGM10.000N/AN/AN/AR/W
105Output 5 setting for PGM10.000N/AN/AN/AR/W
-0.250 to 1.250
106Output 6 setting for PGM10.000N/AN/AN/AR/W
107Output 7 setting for PGM10.000N/AN/AN/AR/W
108Output 8 setting for PGM10.000N/AN/AN/AR/W
109Output 9 setting for PGM10.000N/AN/AN/AR/W
List of Parameters
110Output 10 setting for PGM10.000N/AN/AN/AR/W
85
Page 89
List of Parameters
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
Factory Default Value
YS1700
(PROG)
YS1500
(SINGLE)
0N/AN/AN/AR/W
0.000N/AN/AN/AR/W
86
Program-Setting-Unit2SettingDisplay(PGM2SET)
ParameterNameSetting and Display RangeUnit
201Time 1 setting for PGM2
202Time 2 setting for PGM20N/AN/AN/AR/W
203Time 3 setting for PGM20N/AN/AN/AR/W
204Time 4 setting for PGM20N/AN/AN/AR/W
0 to 9999
205Time 5 setting for PGM20N/AN/AN/AR/W
206Time 6 setting for PGM20N/AN/AN/AR/W
207Time 7 setting for PGM20N/AN/AN/AR/W
208Time 8 setting for PGM20N/AN/AN/AR/W
209Time 9 setting for PGM20N/AN/AN/AR/W
210Time 10 setting for PGM20N/AN/AN/AR/W
201Output 1 setting for PGM2
202Output 2 setting for PGM20.000N/AN/AN/AR/W
203Output 3 setting for PGM20.000N/AN/AN/AR/W
204Output 4 setting for PGM20.000N/AN/AN/AR/W
205Output 5 setting for PGM20.000N/AN/AN/AR/W
-0.250 to1.250
206Output 6 setting for PGM20.000N/AN/AN/AR/W
207Output 7 setting for PGM20.000N/AN/AN/AR/W
208Output 8 setting for PGM20.000N/AN/AN/AR/W
209Output 9 setting for PGM20.000N/AN/AN/AR/W
210Output 10 setting for PGM20.000N/AN/AN/AR/W
IM 01B08B02-01EN
Page 90
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
List of Parameters
ParameterNameSetting and Display RangeUnit
Preset PID Setting Display (PID TABLE)
IM 01B08B02-01EN
PPB1Preset PID proportional band 10.1 to 999.9%999.9N/AN/AN/AR/W
PTI1Preset PID integral time 11 to 9999s (second)1000N/AN/AN/AR/W
PTD1Preset PID derivative time 10 to 9999s (second)0N/AN/AN/AR/W
PPB2Preset PID proportional band 20.1 to 999.9%999.9N/AN/AN/AR/W
PTI2Preset PID integral time 21 to 9999s (second)1000N/AN/AN/AR/W
PTD2Preset PID derivative time 20 to 9999s (second)0N/AN/AN/AR/W
PPB3Preset PID proportional band 30.1 to 999.9%999.9N/AN/AN/AR/W
PTI3Preset PID integral time 31 to 9999s (second)1000N/AN/AN/AR/W
PTD3Preset PID derivative time 30 to 9999s (second)0N/AN/AN/AR/W
PPB4Preset PID proportional band 40.1 to 999.9%999.9N/AN/AN/AR/W
PTI4Preset PID integral time 41 to 9999s (second)1000N/AN/AN/AR/W
PTD4Preset PID derivative time 40 to 9999s (second)0N/AN/AN/AR/W
PPB5Preset PID proportional band 50.1 to 999.9%999.9N/AN/AN/AR/W
PTI5Preset PID integral time 51 to 9999s (second)1000N/AN/AN/AR/W
PTD5Preset PID derivative time 50 to 9999s (second)0N/AN/AN/AR/W
PPB6Preset PID proportional band 60.1 to 999.9%999.9N/AN/AN/AR/W
PTI6Preset PID integral time 61 to 9999s (second)1000N/AN/AN/AR/W
PTD6Preset PID derivative time 60 to 9999s (second)0N/AN/AN/AR/W
PPB7Preset PID proportional band 70.1 to 999.9%999.9N/AN/AN/AR/W
PTI7Preset PID integral time 71 to 9999s (second)1000N/AN/AN/AR/W
PTD7Preset PID derivative time 70 to 9999s (second)0N/AN/AN/AR/W
PPB8Preset PID proportional band 80.1 to 999.9%999.9N/AN/AN/AR/W
PTI8Preset PID integral time 81 to 9999s (second)1000N/AN/AN/AR/W
List of Parameters
PTD8Preset PID derivative time 80 to 9999s (second)0N/AN/AN/AR/W
87
Page 91
List of Parameters
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
0.0000N/AN/AN/AR
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
ParameterNameSetting and Display RangeUnit
K Constant Display 1/2 (K CONST 1/2)
K02Constant register 20.0000N/AN/AN/AR
K03Constant register 30.0000N/AN/AN/AR
K01Constant register 1
K04Constant register 40.0000N/AN/AN/AR
K05Constant register 50.0000N/AN/AN/AR
K06Constant register 60.0000N/AN/AN/AR
K07Constant register 70.0000N/AN/AN/AR
K08Constant register 80.0000N/AN/AN/AR
88
-99999 to 99999
5 digits display
Set by YSS1000 Setting Software
K09Constant register 90.0000N/AN/AN/AR
K10Constant register 100.0000N/AN/AN/AR
K11Constant register 110.0000N/AN/AN/AR
K12Constant register 120.0000N/AN/AN/AR
K13Constant register 130.0000N/AN/AN/AR
K14Constant register 140.0000N/AN/AN/AR
K15Constant register 150.0000N/AN/AN/AR
K16Constant register 160.0000N/AN/AN/AR
K17Constant register 170.0000N/AN/AN/AR
K18Constant register 180.0000N/AN/AN/AR
K19Constant register 190.0000N/AN/AN/AR
K20Constant register 200.0000N/AN/AN/AR
K21Constant register 210.0000N/AN/AN/AR
K22Constant register 220.0000N/AN/AN/AR
K23Constant register 230.0000N/AN/AN/AR
K24Constant register 240.0000N/AN/AN/AR
K25Constant register 250.0000N/AN/AN/AR
K26Constant register 260.0000N/AN/AN/AR
K27Constant register 270.0000N/AN/AN/AR
K28Constant register 280.0000N/AN/AN/AR
K29Constant register 290.0000N/AN/AN/AR
K30Constant register 300.0000N/AN/AN/AR
IM 01B08B02-01EN
Page 92
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
0.0000N/AN/AN/AR
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
List of Parameters
ParameterNameSetting and Display RangeUnit
K Constant Display 2/2 (K CONST 2/2)
IM 01B08B02-01EN
K31Constant register 31
K32Constant register 320.0000N/AN/AN/AR
K33Constant register 330.0000N/AN/AN/AR
K34Constant register 340.0000N/AN/AN/AR
K35Constant register 350.0000N/AN/AN/AR
List of Parameters
-99999 to 99999
5 digits display
Set by YSS1000 Setting Software
K36Constant register 360.0000N/AN/AN/AR
K37Constant register 370.0000N/AN/AN/AR
K38Constant register 380.0000N/AN/AN/AR
K39Constant register 390.0000N/AN/AN/AR
K40Constant register 400.0000N/AN/AN/AR
K41Constant register 410.0000N/AN/AN/AR
K42Constant register 420.0000N/AN/AN/AR
K43Constant register 430.0000N/AN/AN/AR
K44Constant register 440.0000N/AN/AN/AR
K45Constant register 450.0000N/AN/AN/AR
K46Constant register 460.0000N/AN/AN/AR
K47Constant register 470.0000N/AN/AN/AR
K48Constant register 480.0000N/AN/AN/AR
K49Constant register 490.0000N/AN/AN/AR
K50Constant register 500.0000N/AN/AN/AR
K51Constant register 510.0000N/AN/AN/AR
K52Constant register 520.0000N/AN/AN/AR
K53Constant register 530.0000N/AN/AN/AR
K54Constant register 540.0000N/AN/AN/AR
K55Constant register 550.0000N/AN/AN/AR
K56Constant register 560.0000N/AN/AN/AR
K57Constant register 570.0000N/AN/AN/AR
K58Constant register 580.0000N/AN/AN/AR
K59Constant register 590.0000N/AN/AN/AR
K60Constant register 600.0000N/AN/AN/AR
89
Page 93
List of Parameters
Set-
User
tings
PROG
SELECT
for Controller Mode
Display and Setting Conditions
SINGLECAS
YS1700
(PROG)
YS1500
(SINGLE)
Factory Default Value
These parameters are for maintenance. If maintenance is required, contact your nearest YOKOGAWA dealer.
Note 1: When the SET parameter is set to “ENBL”, [STOP] will appear on the right of the display title, and the manipulated output and alarm output will be kept.
ParameterNameSetting and Display RangeUnit
SETEnable/Disable settingINHB: Setting impossible ENBL: Setting possible (Note1)INHBR/WR/WR/WR/W
PWDOR
LCD Maintenance Setting Display (LCD MAINT)
KEYST
90
IM 01B08B02-01EN
Page 94
Revision Information
Title : YS1500 Indicating Controller/YS1700 Programmable Indicating Controller
Operation Guide
Manual No. : IM 01B08B02-01EN
Jun.2014/1stEdition
Newly published
May 2015/2nd Edition
FM, CSA nonincendive (optional) approvals. (excluing the compatible type for YS100)
Mar. 2016/3rd Edition
Safety standard IEC/EN 61010-2-201 conformity.
Mar. 2018/4th Edition
Comply with Waste Electrical and Electronic Equipment (WEEE) Directive.
i
Written by Yokogawa Electric Corporation
Published by Yokogawa Electric Corporation
2-9-32 Nakacho, Musashino-shi, Tokyo 180-8750, JAPAN
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