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User manual


XD 1 N series


Multi-channel temperature control module


User manual

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User manual


Preface


This manual describes the XD1N series multi-channel temperature control module, including installation, performance, and usage.


When using the XD1N multi-channel temperature control module, the following precautions should be observed:


Allow specialists with extensive knowledge of electrical systems to operate the temperature control module .


Read this manual completely and make sure you understand it before attempting to use the temperature control module


content and use the temperature control module correctly according to the information provided.


• Keep this manual in a safe place for future reference.


Thank you for choosing Xianda products. Please read this instruction carefully before use and keep it properly for reference when needed. If you have any questions, please call the nearby dealer or our company's technical support hotline.


Wiring warning


If a module fails or an error occurs, it can cause system failure. Install external protection circuits to prevent such accidents .


• To prevent module damage or failure, use fuses to protect power lines and output lines to prevent strong current from impacting the power supply.


• To prevent module damage or failure, please use rated power supply 


• To prevent module damage or failure, please power on after completing the wiring work and checking that it is correct.


Restrictions on use occasions 


• To prevent fire, it is prohibited to use it in places with flammable and explosive gases.


• To prevent module damage, please do not use the module in places with corrosive gas or steam emissions 


To prevent module damage, please do not use the module in places subject to strong vibrations and impacts .


• This product should not be used in situations where the failure of the controller may cause personal safety accidents or cause significant property damage. If necessary, independent protection measures should be designed and installed around the periphery.

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non-commitment part


Changes in specifications


Product specifications and accessories are subject to change at any time based on improvements and other reasons.


It is our common practice to change model numbers when published ratings or characteristics change, or when major structural changes are made. However, some product specifications may


Changes are made without notice. If in doubt, special model numbers can be assigned to fix or establish key specifications for your request, please contact us at any time


Contact your Xianda representative to confirm the actual specifications of the product purchased.


Dimensions and weight


Dimensions and weights are nominal only and are not intended for manufacturing purposes, even if tolerances are stated.


Performance data


The performance data given in this manual are used as a guide for the user to determine suitability and are not guaranteed. or will likely show non-Xianda test


The results obtained under the conditions must be related by the user to the actual application requirements. The actual performance is subject to Xianda's warranty and liability limitation.


Errors and Omissions


The information in this manual has been carefully checked and is believed to be correct; however, no liability is assumed for errors or omissions in recording, printing, or proofreading.


Safety precautions


Notice


Do not touch the terminals when the power is on. Otherwise, minor injury may occur due to electric shock.


Do not let metal pieces, wire lugs or tiny metal debris generated during installation enter the inside of the unit. Otherwise it may cause electric shock, fire or malfunction.


Do not use this product where it is exposed to flammable and explosive gases. Otherwise it may cause minor injury due to explosion


Do not disassemble, alter or repair this product or touch any internal parts. Otherwise it may cause minor electric shock, fire or malfunction.


Tighten the terminal wiring, loose wiring may cause fire


Set the parameters of this product to suit the controlled system. If it is not suitable, unexpected movement may cause property damage or cause an accident.


Faults in the product may result in inability to control or block the output of the alarm, resulting in property damage. To ensure safety in the event of product failure, appropriate safety measures should be taken, such as installing monitoring equipment on independent lines

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Precautions for safe use


The following precautions must be observed to prevent operational failure, malfunction, or adverse effects on product performance and functionality. Otherwise, unexpected events may occur.

1)

This product is for indoor use only. Do not use outdoors or in one of the following locations:

·
Places directly exposed to heat radiation from heating equipment

·
Places with liquid splash or oily air

·
Direct sunlight

·
Where there is dust or corrosive gas (especially sulfur gas or ammonia gas)

·
Places with drastic temperature changes

·
There is ice or condensation

·
Place subject to vibration or strong impact

2)

Use and store this product within the rated ambient temperature and humidity range.


Installing two or more temperature sensors close to each other or installing temperature control modules on top of each other will cause heat to accumulate inside the temperature control module, shortening its service life. if


If the temperature control module is to be installed close to or stacked on top of each other, a fan should be used for forced cooling or other measures should be taken to cool down the temperature control module.

3)

To facilitate heat dissipation, do not block the area around the product and do not block the vents on the product.

4)

Pay attention to the terminal polarity when wiring.

5)

Please use pin-type terminals with a crimped front end smaller than 2.35mm in diameter. Do not use excessive force when locking the terminals, and make sure the wiring is connected to the correct terminal.


6) Do not use terminals without specific purposes.

7)

To reduce induced noise, keep wiring to the product's terminal block away from cables carrying high voltages or currents. Likewise, do not connect power cords in series or parallel with product wiring. It is recommended to use shielded cables and use separate conduits.


Install a surge suppressor or noise filter on peripheral devices that produce noise (especially motors, transformers, solenoids, solenoids, or other devices with inductive components).


If a noise filter is used at the power supply, first check the voltage or current and install the noise filter as close to the product as possible.


Leave sufficient space between this product and equipment that generates powerful frequencies (high-frequency welders, high-frequency sewing machines, etc.) or equipment that generates surges.

8)

Use this product with rated load and power supply.

9)

Use switch or relay contacts to ensure rated voltage is reached within 2 seconds after turning on power. If voltage is applied slowly, the power supply may not reset or may


malfunction occurs.

10)

Make sure to preheat before starting actual control operations after turning on the power to ensure the correct temperature is displayed.

11)

The switch or circuit breaker must be placed within easy reach of the operator and must be marked as the disconnecting means for the unit.

12)

Do not use paint thinner or similar chemicals to clean this product. Use standard alcohol.

13)

When designing a system (such as a control panel), allow for a delay in the relay before the output takes effect after the product is powered on.

14)

Never touch electronic components, connectors, or patterns on product panels with bare hands. This product should be held by its outer shell. Improper handling of this product may


Internal parts may be damaged by static electricity.


15) Use switches, relays or other devices with contacts to quickly turn off the power supply. Gradually reducing the power supply voltage may cause erroneous output or memory errors.

16)

Do not touch electronic components with your hands or subject them to shock when removing the terminal block.

17)

Only connect the specified number of this product in the specified configuration.

18)

Install this product on a DIN rail vertical to the ground .

19)

Power must be turned off before wiring the product, replacing the product, or changing product configurations.

20)

During installation, install the included cover over the left open connector on the terminal unit.

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Version revision history


Version


Change content


time

V2.0


Officially released

2022-01

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General catalog


Table of contents


XD1N series 1


General catalog 6


About this manual10


Chapter 1 Overview 11


1-1 Product Overview 12


1-1-1 Product Features 12


1-2 Part name 13


1-2-1 Appearance interface 13


1-2-2 indicator light definition 14


1-3 I/O configuration and main functions 15


1-3-1 I/O configuration 15


1-3-2 Main functions 15


1-3-3 Electrical indicators 16


1-4 Label description 17


1-5 Purchase information 18


1-5-1 Ordering Guide (Example) 18


Chapter 2 Hardware and Software Introduction 19


2-1 Hardware installation 20


2-1-1 Dimension unit ( mm) 20


2-2 terminal arrangement 21


2-3 Software installation 23


2-3-1 Operating environment 23


2-3-2 Software installation 23


2-4 software connection 25


2-4-1 Enter project 26


2-4-2Initial settings 27


2-4-3 Communication settings 27


2-4-3-1 RS485 communication parameter setting 27


2-4-3-2 Ethernet communication parameter setting 29


2-5 Expansion module internal communication station address automatic allocation 32


2-6 connection monitoring 34


2-6-1 Real-time data 34


2-6-2 Dynamic Trend 35


2-6-3 Alarm 36


2-6-4 View historical data 37


2-7 Parameter Setting 38


2-7-1 Function Description 38


2-7-2 Basic parameter setting 39


2-7-3 Input settings 40


2-7-4 output setting 41


2-7-5 Control parameter setting 42


2-7-6 LSP group parameter setting 43


2-7-7 PID group parameter setting 44


2-7-8 alarm setting 45


2-7-9 Set address mapping 46


2-7-10 RS485 communication station number setting 48


2-7-10-1 RS485 communication station number 48


2-7-11 Ethernet IP address setting 50


2-7-12 Slope Control 51


2-8 Exception prompt 52


2-9 Equipment information 53


Chapter 3 Typical Control Cases 54


3-1 Typical single module control configuration 55


3-1-1 Application 55


3-1-2 Wiring 55


3-1-3 Communication settings 56


3-1-4 Module parameter setting 57


3-1-5 PID parameter self-tuning 58


3-2 Typical multi-module control configuration 59


3-2-1 Application 59


3-2-2 System Architecture 59


3-2-3 wiring 59


3-2-4 Communication Settings 59


3-2-5 The internal station address of the expansion module is automatically assigned 60


3-2-6 Module parameter setting 60


3-2-7 PID parameter auto-tuning 61


3-3 Typical multi-module control configuration 62


3-3-1 Application 62


3-3-2 System Architecture 62


3-3-3 Added module 63


3-3-4 Communication Settings 63


3-3-5 Extension module internal station address automatic allocation 63


3-3-6 Module parameter setting 63


3-3-7 PID parameter auto-tuning 63


Chapter 4 Basic Parameter Description 64


4-1 Set input specifications 65


4-1-1 input type 65


4-1-2 Temperature input 65


4-1-3 Input gain and offset (correction) 65


4-1-4 filter factor 67


4-2 Set output specifications 68


4-2-1 Minimum output ON/OFF width (system internal parameter) 68


4-2-2 Operation volume upper limit / operation volume lower limit 68


4-2-3 Operating volume rising change limit / operating volume falling change limit 69


4-2-4 current output range 69


4-2-5 Current output lag time 69


4-3 Set control specifications 70


4-3-1 System Type 70


4-3-2 control method 70


4-3-3 operating mode 70


4-3-4 fixed output ( operated value ) 71


4-3-5 Heating and cooling dead zone 71


4-3-6 ON/OFF control deviation 71


4-3-7 LSP group number 71


4-3-8 Ramp Up / Down Slope 72


4-3-9 ramp unit 72


4-3-10 control cycle 72


4-4 Set LSP group parameters 73


4-5 Set PID parameters 74


4-5-1 Set PID value 74


4-5-2 set value ( SV value) 75


4-5-3 PID value description 75


4-6 Set alarm parameters 76


4-6-1 Alarm Mode 76


4-6-2 Alarm function 76


4-6-3 Alarm Delay 76


4-6-4 alarm limit 76


4-6-5 alarm lower limit 76


4-7 Set address mapping 77


4-8 Set RS485 communication station number 78


4-8-1 Station number display rule 78


Chapter 5 485 Communication Instructions 79


5-1 Overview of communication protocol 80


5-1-1 Agreement Contents 80


5-2 Scope of application 80


5-2-1 applicable products 80


5-2-2 applicable method 80


5-3 RS-485 communication specifications and protocol description 81


5-3-1 interface specifications 81


5-3-2 Topology 81


5-3-3 Modbus RTU protocol 82


Chapter 6 Ethernet Communication Instructions 85


6-1 Ethernet communication specifications and protocol description 86


6-1-1 interface specifications 86


6-1-2 Topology 86


6-1-3 Ethernet communication settings 87


6-2 Modbus TCP/IP protocol 87


6-2-1 message composition 87


Chapter 7 Faults and Troubleshooting 88


7-1 What to check first 89


7-2 Determine the error based on the indicator light 90


Chapter 8 Appendix 91


8-1 Appendix 1 : "Communication Function Code and Data Format" 92


8-1-1 Communication command function code 92


8-1-2 Detailed explanation of communication command function code 92


8-1-2-1 word data reading [Function code: 03 ] 92


8-1-2-2 Input register reading [Function code: 04 ] 93


8-1-2-3 Single function writing [Function code: 06 ] 93


8-1-2-4 Continuous function writing [Function code: 16 ] 94


8-1-3 Data format 94


8-2 Appendix 2 : "Register Parameter List" 95


8-2-1 Address Mapping 95


8-2-2 Register parameter list 96


8-2-2-1 1#- 8# module parameter list 96


8-2-2-2 9#-16# module parameter list 98


8-2-2-3 Communication parameter list 100


8-2-2-4 CH1-CH8 channel parameter list 101


1# module ( CH1-CH8) channel parameters (parameter group 1 ) address definition: 101


1# module ( CH1-CH8) channel parameter (parameter group 2 ) address definition: 105


1# module ( CH1-CH8) channel parameters (parameter group 3 ) address definition: 109


1# module ( CH1-CH8) channel parameters (parameter group 5 ) address definition: 110


1# module ( CH1-CH8) channel parameters (parameter group 6 ) address definition: 116


User-defined data area (parameter group 7 ) address table: 120


8-2-3-5 Register storage content (current temperature value) 121


8-2-3-6 Register storage content (output operand) 122


8-2-3-7 Input register storage content (others) 123


8-3 Appendix 3 : " XD1N-ET8000 and Delta touch screen communication case" 125


8-3-1 RS 485 communication 125


8-3-2 Ethernet communication 131


8-4 Appendix 4 : " Communication between XD1N-ET8000 and Delta PLC " 137


8-5 Appendix 5 : " Sensor Types Supported by XD1N Series Temperature Control Module" 140


8-6 Appendix 6 : "Products and Services" 140

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About this manual


About this manual



This manual describes the use of the XD1N multi-channel temperature control module , including the following chapters.


Try to install or operate

Please read this manual carefully and make sure you understand the contents before using the XD1N multi-channel temperature control module.


·Overview


Chapter 1 Overview describes the features of XD1N , names of each part, functions, label contents, and ordering information.


·Hardware and software introduction


Chapter 2 Preparation Work describes the preparation work required to use XD1N , including installation, wiring, use of debugging software, module upgrade and other information.


·Typical application examples


Chapter 3 Typical Control Examples describes the basic application of XD1N (software usage, parameter setting, monitoring and debugging) with specific control examples.


·Basic parameter setting instructions


Chapter 4: XD1N basic unit function parameter setting instructions.


· RS485 communication instructions


Chapter 5 RS485 Communication Description describes the XD1N module M0DBUS RS485 communication protocol specifications.


· Ethernet communication instructions


Chapter 6 Ethernet Communication Description describes the XD1N module M0DBUS TCP/IP communication protocol specifications.


·troubleshooting


Chapter 7 Troubleshooting describes solutions to possible problems that may arise in checking operation based on the classification of the temperature control module status.


·Parameter list and communication cases


The appendix of Chapter 8 provides parameter list, status list, module address details, communication cases with the host computer and other information.



! Failure to read and understand this manual may result in personal injury or death, property damage, or product failure. Please read each section in its entirety and make sure you understand each section and its related sections before attempting any procedure.

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Chapter 1 Overview


Chapter 1


Overview


This chapter mainly introduces the characteristics, professional terms and functions of the XD1N series temperature control module.


Chapter 1 Overview 11


1-1 Product Overview 12


1-1-1 Product Features 12


1-2 Part name 13


1-2-1 Appearance interface 13


1-2-2 indicator light definition 14


1-3 I/O configuration and main functions 15


1-3-1 I/O configuration 15


1-3-2 Main functions 15


1-3-3 Electrical indicators 16


1-4 Label description 17


1-5 Purchase information 18


1-5-1 Ordering Guide 18

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1-1 Product Overview


The XD1N series single module provides 4/8 channels of sensor input, which can simultaneously measure 4/8 different temperatures and control 4/8 outputs .


The XD1N series includes: host module, expansion module. One XD1N host can be connected to up to 15 expansion modules, and can perform up to 128 channels of temperature control. With RS485 or Ethernet , multiple XD1N hosts can be connected to achieve temperature control of up to a thousand points.


1-1-1 product features


The XD1N series is a multi-channel modular temperature controller. The modular design is convenient for users to apply and install. The host collects information from each expansion module and the channels are completely isolated, which can improve the stability of measurement.


A single host module can control the temperature of 4/8 channels .


A single host module can be expanded with 15 expansion unit modules.


The terminal block can be removed and connected.


The host module supports RS485 and Ethernet communication.


Modular design simplifies wiring installation.


Complete isolation between channels.


The host module collects expansion module information to improve information exchange efficiency.

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1-2 Part name


1-2-1 appearance interface


4/8 host module


serial number


Part name


( 1 )


LED indicator light


( 2 )


RS485 interface


( 3 )


Ethernet interface


( 4 )


Input terminal


( 5 )


Output terminal


( 6 )


DIN RAIL fasteners


( 7 )


Power input terminal


( 8 )


Right expansion interface


4/8 expansion module


serial number


Part name


( 1 )


LED indicator light


( 2 )


Input terminal


( 3 )


Output terminal


( 4 )


DIN RAIL fasteners


( 5 )


Left expansion interface


( 6 )


Right expansion interface

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1-2-2 indicator light definition


name


color


meaning

PWR


red


Power indicator light, always on means the module is powered on

RUN


green


Running indicator light, always on means the module is running

ERR


yellow


Error indicator light, flashing indicates that there is an error in the module

485


green


RS485 communication indicator light, flashing indicates communication

NET


green


Ethernet indicator light, always on indicates there is communication on the Ethernet


OUT CH1-CH8


green


Output indicator light

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1-3 I/O configuration and main functions


1-3-1 I/O configuration


1-3-2 Main functions


The main input channels CH1-CH8 of a single module are temperature sampling input ports.


The control outputs CH1-CH8 of a single module are temperature control output ports, corresponding to the main input CH1-CH8 .


A single host module can be expanded with 15 expansion modules through the inter-module communication interface .


The terminal block can be removed and connected.

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1-3-3 Electrical indicators


Input power


DC 24V


Operating voltage range


Rated voltage 85 %-110%


Power consumption


MAX power: 10.5 W ( 1* Host module + 15* Extension module), Extension module: 0. 6 W


Input method


Thermal resistance: PT100


Thermocouple (TC) : K , J , E , T , R , S , B , N


Current input: not supported yet


Voltage input: not supported yet


Sampling period

500MS


resolution


0.1


basic error


± 0.2 % FS


Control method


PID control, fixed operating quantity control, ON/OFF control , slope control


Output mode


NPN transistor output


Communication function


RS485 communication, supports baud rate:


2 400/ 4800/9600/19200/38400/57600/115200


Ethernet communication:


Support 10/100Mbps RJ45 connector


Communication protocol


RS485 adopts Modbus RTU communication protocol


Ethernet uses Modbus TCP communication protocol,


IEEE802.3 IEEE802.3U transmission method


internal connection function


Provides 24V power and communication data via terminals


Vibration resistant


Impact resistant


Operating ambient temperature


-5 ° C ~ + 60 ° C


Storage ambient temperature


-20 ° C ~ +65 ° C


operating height


Below 1500M altitude


Operating environment humidity


0 % to 85% RH (no condensation)

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1-4 label description

版本:

品牌:鲜达

输出方式:晶体管

二维码:

序号:

型号:

输入方式:

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1-5 Purchase information

XD

_N

-

E

T

8

0

0

0

1

2

3

4

5

6

7

8

9

1


Product code: XD

2


Product Series: 1N

3


Separator: -

4


Host module: E : with Ethernet port expansion module: empty

5


Output mode: T: transistor output

6


Number of channels: 8 : 8 channels input /8 channels output


4 : 4- channel input /4- channel output

7


Input mode: 0 : PT 1 : TC

8


Optional options: 0 : reserved

9


Additional items: 0 : reserved


1-5-1 Ordering Guide (Example)


name


model


Output mode


Input method


Number of channels


Host module

XD1N-ET8000


transistor

PT

8


Host module

XD1N-ET8100


transistor

TC

8


Extension modules


XD1N-T8000


transistor

PT

8


Extension modules


XD1N-T8100


transistor

TC

8


Note:


( 1 ) The expansion module does not have an external 24V power input terminal and cannot be used alone.


( 2 ) Please pay attention to the manufacturer’s official website announcement for model updates.

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Chapter 2 Hardware and Software Introduction


Chapter 2


Hardware and software introduction


This chapter mainly introduces the preparation work, installation, wiring and station address setting, connection monitoring, parameter setting, etc. required for using XD1N .


Chapter 2 Hardware and Software Introduction 19


2-1 Hardware installation 20


2-1-1 Dimension unit ( mm) 20


2-2 terminal arrangement 21


2-3 Software installation 23


2-3-1 Operating environment 23


2-3-2 Software installation 23


2-4 software connection 25


2-4-1 Enter project 26


2-4-2Initial settings 27


2-4-3 Communication settings 27


2-4-3-1 RS485 communication parameter setting 27


2-4-3-2 Ethernet communication parameter setting 29


2-5 Expansion module internal communication station address automatic allocation 32


2-6 connection monitoring 34


2-6-1 Real-time data 34


2-6-2 Dynamic Trend 35


2-6-3 Alarm 36


2-6-4 View historical data 37


2-7 Parameter Setting 38


2-7-1 Function Description 38


2-7-2 Basic parameter setting 39


2-7-3 Input settings 40


2-7-4 output setting 41


2-7-5 Control parameter setting 42


2-7-6 LSP group parameter setting 43


2-7-7 PID group parameter setting 44


2-7-8 alarm setting 45


2-7-9 Set address mapping 46


2-7-10 RS485 communication station number setting 48


2-7-10-1 RS485 communication station number 48


2-7-11 Ethernet IP address setting 50


2-7-12 Slope Control 51


2-8 Exception prompt 52


2-9 Equipment information 53

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2-1Hardware installation


2-1-1 Dimensional unit ( mm)


4/8 channel host module


4/8 channel expansion module

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2-2 terminal arrangement


8- channel host module:


PT series TC series


8-channel expansion module:


PT series TC series

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4- channel host module


PT series TC series


4- channel expansion module


PT series TC series

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2-3 Software installation


The software is used for XD1N series temperature control module parameter setting, monitoring and debugging, and supports Ethernet and RS485.


Communication connection.


2-3-1 Operating environment


1 , 2 , 3... The following configuration is recommended for the running and installation environment of the host computer software:


1.OS :


Windows 7 [32bit or 64bit] or above


2. CPU : 1GHz or above


3. Memory environment: 1[GB] or more


4.Display


Compatible with Windows displays with a resolution of XGA (1024 × 768 [pixel]) or above.


5.Hard disk


Hard drive space capacity of 100[MB] or more.


2-3-2 Software installation


1 , 2 , 3... 1. Start the XD-SDP installer


Double click - XD-SDP_S tandard_ Setup -***.msi


Figure 2.2.1


2. Display the installation preparation screen


Confirm the installation of [ XD-SDP ] and click [Next]

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3. Sign the use commitment letter


When using this software, please pay attention to the content of the use commitment letter and read it carefully.


If there are no problems, click [Agree] and then click [Next]


4. Follow the prompts to complete the installation.


Click the [Close] button to complete the installation.

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2-4 Software connection


Debugging Guide

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2-4-1 Enter the project


1 , 2 , 3... 1. Double-click on the desktop to start [ SD-SDP.exe ], and the following dialog box will pop up. Please choose different ways to enter the project.


1.1 New construction


Click [New Project] and [OK] to create a new project.


1.2 Select existing projects


Click [Select an existing project] and [OK] to import the previously created and saved project, as shown below:


1.3Default last project


Click [Default last project] and click the [OK] button to read the project saved when XD-SDP was closed last time.


and enter.

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2-4-2Initial settings


After entering as [New Project], you need to configure the temperature control module and perform initial parameter settings.


Can communicate with the temperature control module. Entering in the other two ways will automatically import the previous project configuration, and you can directly


Please skip this section.


2.1 Add and delete modules


Open the XD-SDP software and when creating a new project, the system default setting is module 1, and the module name is customized.


After entering the main project screen, click [Options] - [Add and Delete Modules] in the menu bar to enter the Add and Delete Modules screen.


As shown below:


In this screen, you can add / delete modules, and rename / modify notes on existing modules.


do.


2-4-3 Communication settings


Please choose different communication connection methods according to the networking method :


( 1 ) RS -485 communication parameter setting


( 2 ) Ethernet communication parameter setting


Purpose: Use SD-SDP debugging software to establish a communication connection with the module through a personal computer.


Set the communication parameters through [Options] - [Communication Settings ] to establish a connection between the module and the PC- side SD-SDP software.


2-4-3-1 RS485 communication parameter setting


1 , 2 , 3... 1. Select the device you want to connect in the left area of ​​the main screen, as shown in the figure below:

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2. Enter the communication setting screen through [Options] - [Communication Settings ] , as shown in the figure below:


3. In the communication setting screen, select the tab [RS-485] and set the properties of the required connected device.


As shown below:


4. After the setting is completed, you can click the [Connection Test] button to test whether the parameters are set correctly. If it prompts "Connection Test"


"Try successful" means that the connection can be established normally, as shown in the following figure: (This step can be omitted)


5. Click the [OK] button to save the current settings. After returning to the main screen, select the module and right-click


[Connect] to establish the current connection, as shown in the figure below:

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2-4-3-2 Ethernet communication parameter setting


There are two descriptions for new modules and already set modules:


1. New modules:


In order to establish a connection between the new temperature control module and the PC-side SD-SDP software for monitoring and debugging,


In [Module 1]-[ Options] - [Communication Settings ] - [ E thernet ] - [ IP Search ] the following address:


name


Factory initial value


Remark


IP address

192.168.0.3


After modifying the settings, please power off and restart.


port number

1024


2. Modules have been set:


Then use the IP search function to check the IP address of the module and establish a connection with the PC .


1 , 2 , 3.... 1. Set the IP address of the PC : such as 192.168.0.2 or other addresses. Make sure it is in the same network segment as the module IP .


Select the device you want to connect to in the left area of ​​the main screen, as shown in the figure below:


3. Enter the communication setting screen through [Options] - [Communication Settings ] , as shown in the figure below:


4. In the communication setting screen, select the label [ Ethernet ], as shown in the figure below:

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5. Click the [ IP Search ] button, as shown in the figure below:


6. Click [Refresh List], select the corresponding network card, and then click the [Search] button, as shown in the figure below:


7. After the search is completed, select the object and click the [OK] button, as shown in the figure below:


8. You can click the [Connection Test] button to test whether the parameters are set correctly. If it prompts "Connection Test"


"Successful" means that the connection can be established normally. As shown in the figure below: (This step can be omitted)


9Click the [OK] button to save the current settings. After returning to the main screen, select the module and right-click


[Connect] to establish the current connection, as shown in the figure below:


Remark


( 1 ) The purpose of [ IP Search] in [Options] - [Communication Settings ] is to read the module IP and establish a connection with the PC .


( 2 ) The IP address assigned to the module in the project needs to be set in [Module] - [Communication Settings] after the module has established a connection with the PC . For details, please refer to " 2-7 Parameter Settings 2-7-11 " "Ethernet IP address settings are explained".


2-5 Expansion module internal communication station address automatic allocation


This temperature control module provides the function of automatically assigning internal communication station addresses to expansion modules connected to the host module.


Before performing address assignment settings, please cut off the power supply, securely connect the expansion module hardware, and then turn on the power again.


Note:


( 1 ) The expansion module does not support hot insertion and removal. Please do not add or replace modules while the power is on.


( 2 ) When the host module is connected to multiple expansion modules, it is recommended to terminate the internal communication of the last expansion module.


Set the DIP switch of the terminal resistor to the [ ON ] position (the factory default is [ OFF ]).


(3)


modules

allow

the last one

Expand

module

The DIP switch is in [
ON
】Location
2


Or more than two expansion module DIP switches are in the [ ON ] position, which will cause the communication to operate abnormally .


The automatic allocation operation is as follows:


1 , 2 , 3... 1. After operating 2-4 communication settings and successfully connecting to the PC , select the module, click [Options] - [ Set Slave Address ], [Auto Number] to set the current The expansion modules of each module in the project automatically assign communication station addresses.


The operation steps are shown in the figure below:


2. Click [Auto Number], as shown in the figure below:


3. After the automatic address allocation is completed, the internal station addresses of all expansion modules under the module will be automatically updated and established.


connect .

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Remark:


( 1 ) If there are multiple modules, each module needs to perform the [Automatic Numbering] step once.


( 2 ) During the execution of [Automatic Numbering], the expansion module output indicator light performs a ticker action.


( 3 ) After the current module [automatic numbering] operation is successful, the internal communication station address is automatically assigned to the expansion module.


( 4 ) If the modules in the project are replaced (host module, or expansion module) or automatically numbered successfully


If the modules in the module change their positions, the [Automatic Numbering] step must be performed again for the module.


( 5 ) After this step is successfully executed, you can debug, monitor and set parameters for the expansion module in the module.

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2-6 connection monitoring


The monitoring screen is also the main screen of this software. Execute " 2-4 Communication Settings", " 2-5 Expansion Module Internal Station Location"


After the "Address Automatic Numbering" is successful, click [Monitoring Screen] - [Module] - [Module] in the left area and then click the upper right


Click the [Connect] button in the corner to enter the monitoring and debugging state, as shown in the following figure:


2-6-1 real-time data


After connection, the screen can display real-time [PV value], [SV value], [proportional band], [integration time],


[ Differential time ], [ Operation volume ] and other information . As shown in the picture:


Operation command:


( 1 ) Click the [Start / Stop] switch and the auto-tuning [Start / Stop] switch to change the start/stop or auto-tuning status of the current channel.


( 2 ) Double-click the [ SV Value ], [ Proportional Band ], [ Integral Time ], and [ Derivative Time ] labels to change the setting parameters of the current channel .

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2-6-2 Dynamic trends


This screen can display the dynamic trend of temperature collected by 8 channels , as shown in the figure:


1 ) Double-click the color label to modify the color of the selected channel.


2 ) Click [Auto Adjust] to zoom the screen to the optimal ratio.


3 ) Click [Save to local] to save the screen to local, which can be viewed in [Options] - [ View historical curve ]


View the saved footage .


4) Support operations:


Scroll wheel: Zoom in and out of the timeline .


Ctrl+ Scroll Wheel: Scale the temperature axis .


Mouse drag: move the current graphic .


Mouseover: Displays the temperature and time at the hovered location .

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2-6-3 Alarm


This screen displays the abnormal conditions of each module in the project, as shown in the figure:

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2-6-4 View historical data


Click [Options] - [View Historical Curve] in the menu bar to enter the historical curve screen, as shown in the figure:


After exporting the dynamic trend curve of the monitoring screen, import it into the screen.


Supported operations:


Scroll wheel: Zoom in and out of the timeline .


Ctrl+ Scroll Wheel: Scale the temperature axis .


Mouse drag : move the current graphic .


Mouseover: Displays the temperature and time at the hovered location .

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2-7 Parameter setting


2-7-1 Function description


Click [Export Parameters] on the lower right to export the parameters in the software to an external file.


Click [Import Settings] on the lower right to import the exported parameters into the software.


Click [Read Settings] on the lower right to read the module's setting parameters from the module.


Click [Write Settings] on the lower right to write the module's setting parameters into the module.


Click [Restore Default Parameters] in the lower right corner to restore the module's setting parameters to their initial values.


Click [Calibrate Sensor] on the lower right to automatically calculate the bias and gain through the two-point method.


Click [Set Mapping Address] on the lower right to set the mapping address of the module.


Click Help on the lower right to view the analysis of the current setting screen.


Follow the steps below to set parameters:


1 , 2 , 3.... 1. Change the parameters that need to be modified or the content that needs to be operated.


2. Click the [Confirm] button. If there is any abnormality in the set data, a prompt will appear.


3. Click [Confirm] and then click [Write Settings] to indicate that the modified parameters are written to the module and the parameter modification is completed.


Remark


( 1 ) The communication parameter is the IP address assigned to the temperature control module in the project .


For example: In the entire project, the IP assigned to this temperature control module is: 192.168.0.15


Then enter 192.168.0.15 in [Setting Screen] - [Module] - [Set Communication Parameters] . If there is


For multiple modules, enter the corresponding IP address for each module.


( 2 ) After the communication parameter setting of the module is completed, the communication content in the software’s [Options] - [Communication Settings]


Automatically update the content in [Set Communication Parameters] to maintain a real-time connection between the current module and the PC XD-SDP software.


Automatically update the content in [Set Communication Parameters ] to maintain a real-time connection between the current module and the PC XD-SDP software.

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2-7-2 Basic parameter setting


Data valid range:


Autorun : valid / invalid


Delayed start : 0~600

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2-7- 3 Input settings


Data valid range:


Valid channels : valid / invalid


Sensor : supports PT , TC , all-pass


Gain : 0.000~10.000


Offset: -10.0~10.0


Filter factor 1 : 0~30


Filter factor 2 : 0~30


Filter factor 3 : 0~30

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2-7- 4 Output Settings


Data valid range:


Control mode: 0: heating 1: cooling


Output upper limit: 0.0~100.0


Output lower limit : 0.0 ~ 100.0


Control mode: PID / fixed operating value / ON/OFF


Fixed operation amount : 0~100

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2-7- 5 Control parameter setting


Data valid range:


System type: 0 : Standard, 1 : Fast response


Control mode: heating, cooling, heating/cooling


Control cycle : 1 00~ 1 0000


Operation mode: fixed value / PID, fixed output, ON /OFF, ramp operation, cascade control, block control


Fixed output : 0.0~100.0%


Heating and cooling dead zone: - 3200.0~3200.0


ON/OFF control deviation: - 3200.0~3200.0


LSP group number: 0~8


Ramp up slope: 0 -32000


Ramp down slope: 0 -32000


Ramp units: 0 : 0.1 seconds , 1 : 1 minute, 2 : 1 hour

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2-7- 6 L SP group parameter setting


Data valid range:

LSP1 SP:-300.0~3000.0


LSP1 PID group number: PID1 group 1-PID8 group

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2-7- 7 PID group parameter setting


Data valid range:


Proportional band: 0.0 ~999.9


Points band: 0.0 ~99.9


Differential band: 0.0 ~999.9

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2-7- 8 Alarm settings


Provides two alarm contents [Alarm 1 ] and [Alarm 2 ] . The valid data range of each alarm is as follows


Data valid range:


Alarm 1 mode: 0~6


Alarm 1 function: 0~2


.Alarm 1 delay : 0~100 s


Alarm 1 upper limit : -300.0~3000.0


Alarm 1 lower limit : -300.0~3000.0


Alarm 2 mode: 0~6


Alarm 2 function: 0~2


.Alarm 2 delay : 0~100 s


Alarm 2 upper limit : -300.0~3000.0


Alarm 2 lower limit : -300.0~3000.0

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2-7- 9 Set address mapping


In order to make it easier for customers to read and write data, this product provides an address mapping function. The user-defined data area is opened to customers, which is used to turn discontinuous parameter addresses into continuous addresses. The data length is 1024 addresses .


The mapping area is from 0X1C00-0X1FF0 , with a total of 1024 addresses .


Operation steps:


1 , 2 , 3.... 1. After the current module has established a connection with the PC , select the module to be set in the area setting interface on the left.


As shown below:


2. Hold down [ Shift ] on the computer - click [Set Mapping Address] to enter the custom mapping address screen , as shown in the figure below:


3. Click [View Parameters] to enter the mapping address editing screen , as shown in the figure below:


The mapping area is from 0X1C00-0X1FF0 , with a total of 1024 addresses. There are 16 addresses in a single row in the software mapping address table.


Setting method:


Please choose two different setting methods according to customer habits:


( 1 ) Press [Export Parameters] to export an EXCEL file, and edit the addresses that need to be mapped in the EXCEL table.


After checking, click [Import Parameters] to import the EXCEL file into the software to complete the address mapping .


settings.


( 2 ) In the mapping address table of this interface, manually enter the address that needs to be mapped, and click the [OK] button.


Note: ( 1 ) Please read the instructions carefully before setting.


( 2 ) The mapped address is stored in the host module. When replacing the host module, the mapped address needs to be re-imported or


Enter it manually once.


( 3 ) It is recommended that customers export parameters and save the EXCEL file after completing debugging .

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2-7- 10 R S485 communication station number setting


When the client host computer communicates with multiple modules through RS485 , it is necessary to set the RS485 station number of the host module in each module .


Otherwise, communication connections cannot be established with each module, and duplicate or incorrect settings will cause errors in reading and writing data from the host computer.


Set communication parameters through [Options] - [Communication Settings ].


2-7-10-1 RS485 communication station number


Set the station number to 1 , 2 , 3...1. During use, the module in the general electric control cabinet has been installed, and the input and output lines on the module, the RS485 communication line and the host computer have also been connected. It is troublesome to remove the communication line from the host module and then use the 485 port to connect to the computer to set the station number. Therefore, it is recommended to use the Ethernet port to set the RS485 station number of each module host module.


Station number [display] 2. After the host module station number of each module is set one by one, check whether the station number of all modules is set correctly.


Switch to the RS485 communication setting interface, click [Display Station Number] - [Display], and the indicator light status of each module host module on the 4 85 link switches to the RS 4 85 station number display mode.

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Set the purpose of this function:


When all station numbers are set, it is convenient for customers to check whether all RS485 station numbers are set correctly through the status of the indicator lights on the panel .


Station number [do not display]


3. Click [Show station number] - [Do not display], and the indicator light status of each module host module on the 4 85 link switches back to output.


Display mode.


Note: During normal operation, the indicator light status is in the output display mode. After operating the station number [display] function, when the verification is completed


After all station numbers are set without errors, you must operate the station number [not displayed] or power off the host modules of all modules and restart them.


times, let the indicator light status switch to output display mode.


Remark


( 1 ) The rules for the indicator light to display the station number. For details, please refer to the instructions in " 4-8 Setting the RS 4 85 Communication Station Number".

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2-7- 11 Ethernet IP address setting


Purpose : Set the IP address of the module in the project .


The IP address assigned to the module in the project needs to be set in [Module] - [Communication Settings] after the current module has established a connection with the PC .


1 , 2 , 3.... 1. After the current module has established a connection with the PC , select the connected module in the left area, as shown in the figure below:


3. Enter the communication setting screen through [Options] - [Communication Settings ] , as shown in the figure below:


4. In the communication setting screen, select the tab [ Ethernet ], enter the IP address , and click [Write].

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2-7-12 Slope control


Overview of slope control


Control the temperature according to the set slope.


Original SV : original set temperature value, new SV: new set temperature value


How to set slope control


Parameter category


Parameter name


scope


default value


Remark


control parameters


Ramp up slope

0-32000

0


time value


ramp down slope

0-32000

0


time value


slope unit


0: seconds


1: points


2: hours

0


Slope setting example:


For example: the original set value is 3 0 , the new set temperature value is 1 00 , the ramp up slope is set to 1000 , the ramp unit


Set to 0 (unit: seconds)


It means that the time it takes to rise from the original set temperature of 30 degrees to the target temperature of 100 degrees is 1000 seconds .

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2-8 Exception prompts


When there is an abnormality in the module, the module's abnormal light will flash, and the corresponding module in the management area will be marked red.


As shown in the figure below:


When there is an exception in the module:


The alarm light will appear and flash in the upper right corner of the [Monitoring Screen] and [Setting Screen].


Double-click the alarm light and it will automatically jump to [Monitoring Screen] - [ Alarm ], which will display the current alarm information .


As shown in the picture:

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2-9 Equipment information


View device information for connected modules.


Right-click the module in the left area and select Device Information to view the device information of all modules of the current module, as follows


As shown in the picture
:

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Chapter 3 Typical Control Cases


Chapter 3


Typical control cases


This chapter mainly introduces the basic application of XD1N through specific control examples .


Chapter 3 Typical Control Cases 54


3-1 Typical single module control configuration 55


3-1-1 Application 55


3-1-2 Wiring 55


3-1-3 Communication settings 56


3-1-4 Module parameter setting 57


3-1-5 PID parameter self-tuning 58


3-2 Typical multi-module control configuration 59


3-2-1 Application 59


3-2-2 System Architecture 59


3-2-3 wiring 59


3-2-4 Communication Settings 59


3-2-5 The internal station address of the expansion module is automatically assigned 60


3-2-6 Module parameter setting 60


3-2-7 PID parameter auto-tuning 61


3-3 Typical multi-module control configuration 62


3-3-1 Application 62


3-3-2 System Architecture 62


3-3-3 Added module 63


3-3-4 Communication Settings 63


3-3-5 Extension module internal station address automatic allocation 63


3-3-6 Module parameter setting 63


3-3-7 PID parameter auto-tuning 63

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3-1 Typical single module control configuration


3-1-1 Application


This chapter is about the application case of a small electronic oven and explains how to start and control the temperature with only one temperature control module.


Configuration:


serial number


Module name


name


model


quantity


Remark

1


Module 1


Host module

XD1N-ET8000

1


XD1N-ET8000 ( new module ) default IP address: 192.168.0.3 Port number: 1024


Note: The module name can be named according to customer needs in the software. This example is named: Module 1


serial number


name


address


Remark

1


Module IP

192.168.0.10

2


port number

1024

3


Set temperature

100.0


Control requirements:


3-1-2 Wiring

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3-1-3 Communication settings


Use the XD-SDP debugging software to set the parameters of the XD 1 NE T8 000 via a personal computer .


Follow these steps to set parameters:


1, 2, 3.... 1. Turn on the power of the XD1N module.


2.Connect the cable


Use a cable to connect the Ethernet interface of your computer to the Ethernet interface on the XD 1 NE T8 000 .


3. Set the IP address of the PC : such as 192.168.0.2 or other address, make sure it matches the IP of module 1


( 192.168.0.3 ) in the same network segment.


4. Open the XD - SDP software, create a new project, and go to [Options] - [Communication Settings] - [ E thernet ] - [ I P


Search] to establish a connection with this module.


IP search method: (Refer to "2-4-3-2 Ethernet Communication Parameter Settings" in the catalog " 2-4-3 Communication Settings " )


After the setting is completed, select the module [Module 1 ], right-click and select [Connect], as shown in the figure below:


5. After the communication connection with PC is successful, select [Module 1 ] - [Communication Settings] - [ Ethernet ] to set the IP address of the module . IP address: 192.168.0.10 Port number: 1024


Note: For the module parameter setting operation method, please refer to the instructions in the " 2-7 Parameter Setting" chapter.

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3-1-4 Module parameter setting


Setting method: refer to the instructions in the catalog " 2-7 Parameter Settings"


Parameter setting and operation commands of XD1N-ET8000 in this example

XD1N-ET8000


Setting example


Remark


CH1-Parameter setting (1# setting screen)


Input parameters:


CH1-effective channel


default value


CH1-sensor type

PT100


CH1-Gain


default value


CH1-Bias


default value


Output parameters:


CH1-Automatic operation


default value


CH1-Control mode


default value


CH1-Control mode


default value


CH1-Fixed operating amount


default value


CH1-Output upper limit


default value


CH1-Output lower limit


default value


Control parameters:


CH1-SV setting value

100


CH1-proportional band (P)


default value


CH1-Integration time (I)


default value


CH1-differential time (D)


default value


CH1-Control cycle


default value


Alert parameters:


CH1-Alarm 1 - Alarm mode


default value


CH1-Alarm 1- Alarm function


default value


CH1-Alarm 1- Alarm delay


default value


CH1-Alarm 1- Alarm upper limit


default value


CH1-Alarm 1- Alarm lower limit


default value


CH1-Alarm 2- Alarm mode


default value


CH1-Alarm 2- Alarm function


default value


CH1-Alarm 2- Alarm Delay


default value


CH1-Alarm 2- Alarm upper limit


default value


CH1-Alarm 2- Alarm lower limit


default value


CH1-operation command (1# monitoring screen)


CH1-start/stop switch


start up


Put CH1 into working state


CH1-PID self-tuning start/stop switch


start up


Running status " Auto-tuning "


CH1-Enter PID temperature control state after self-tuning: (1# monitoring screen)


CH1-start/stop switch

-


CH1 is working


CH1-Self-tuning switch

-


Running status " Running "


CH1-PV current value


current value


CH1-proportional band (P)


current value


CH1-Integration time (I)


current value


CH1-differential time (D)


current value

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3-1-5 PID parameter self-tuning


Execute PID auto-tuning button to auto-tune PID parameters.


Follow the steps below to perform PID parameter auto-tuning:


1 , 2 , 3.... 1. While connected, click [Monitoring Interface] to select [Real-time of module [Module 1 ] - [Main Module #1 ]


data】.


2. Activate the CH1 [Start / Stop] switch to put CH1 into working status.


3. Activate the CH1 auto-tuning [Start / Stop] switch to put CH1 into the auto-tuning state, as shown in the figure below:


4. The self-tuning process takes a certain amount of time. You can switch to the [Dynamic Trend] screen in this interface to view the temperature.


degree control curve.


5. After the auto-tuning is completed, CH1 [Running Status] changes to the " Running " status, and the PID parameter values ​​are automatically refreshed.


6. After the self-tuning is completed, the temperature of the module [ Module 1 ] - main module #1-CH1 channel enters the PID temperature control state.


Switch to the [Dynamic Trend] screen in this interface to view the temperature control curve and current temperature value ( PV value)


Automatic control based on the set value ( SV value).


If the temperature control accuracy does not meet the requirements, there may be a problem with the PID auto-tuning process. You can repeat step 3 .


The action performs self-tuning again.


Note: ( 1 ) Before starting auto-tuning, be sure to ensure that the external wiring is correct.


( 2 ) Before starting self-tuning, the absolute alarm value needs to be set first to ensure safety during the self-tuning process.


( 3 ) Before starting self-tuning, the temperature setting value must be set to the temperature value that the equipment needs to operate.


(4) During the entire self-tuning process, the current temperature will exceed the set temperature within a certain range (the purpose is to automatically adjust the output temperature


change trend ) , if it is found that the auto-tuning ends halfway, increase the absolute alarm value and then re-auto-tune.


( 5 ) During the self-tuning process, pay attention to the changes in temperature and the operation of the equipment.

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3-2 Typical multi-module control configuration


3-2-1 Application


This example is an application case of XD1N-ET8000 ( host module ) with 5 XD1N -T8000 ( extension modules ) .


By adding expansion modules, the system can be expanded to 48 channels of temperature control.


Configuration:


serial number


Module name


name


model


quantity


Remark

1


Module 1


Host module

XD1N-ET8000

1

2


Extension modules

XD1N-T8000

5


XD1N-ET8000 ( new module ) default IP address: 192.168.0.3 Port number: 1024


Note: The module name can be named according to customer needs in the software. In this example, it is named: Module 1


3-2-2System architecture


3-2-3 wiring


Refer to the terminal wiring instructions for wiring.


3-2-4 Communication settings


The content of "Communication Settings" in 3-1-3 in parameter " 3-1 Typical Minimum Control Configuration" .

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3-2-5 Automatic allocation of station addresses within the expansion module


Use XD-SDP software to connect to the XD1N-ET8000 host and expand the module through Ethernet


Automatic assignment of internal station addresses.


Before performing address allocation settings, please cut off the power and securely connect the expansion module hardware and then power on again.


The automatic allocation operation is as follows:


1 , 2 , 3... 1. After the communication connection with the PC is successful, select the module and click [Options] - [ Set Slave Address ], as shown in the figure below:


2. Click [Auto Number], as shown in the figure below:


3. After the address is assigned, the internal communication station addresses of all modules under the module will be automatically assigned and the connection will be established.


Please refer to the chapter " 2-5 Expansion Module Internal Communication Station Address Automatic Assignment" for specific instructions .


3-2-6 Module parameter setting


Refer to the "Module Parameter Setting" method in 3-1-4 in " 3-1 Typical Minimum Control Configuration" .

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3-2-7 PID parameter self-tuning


Refer to the content of " PID Parameter Auto-tuning" in 3-1-5 of " 3-1 Typical Minimum Control Configuration" .


One-button start, self-tuning button (operate the modules CH1-CH8 simultaneously to start and self-tuning)


1, 2, 3.... 1. Press the all-channel start/stop switch to put CH1-CH8 into working status.


2. Press the all-channel auto-tuning start / stop switch to put CH1-CH8 into auto-tuning state.


Because the time required for self-tuning of each channel of CH1-CH8 is different, the operating status of CH1-CH8 is from self-tuning to - - -


All display is running, which means that the self-tuning of the 8 channels of the module is completed.


Note: ( 1 ) Before starting auto-tuning, be sure to ensure that the external wiring is correct.


( 2 ) Before starting self-tuning, the absolute alarm value needs to be set first to ensure safety during the self-tuning process.


( 3 ) Before starting self-tuning, the temperature setting value must be set to the temperature value that the equipment needs to operate.


(4) During the entire self-tuning process, the current temperature will exceed the set temperature within a certain range (the purpose is to automatically adjust the output temperature


change trend ) , if it is found that the auto-tuning ends halfway, increase the absolute alarm value and then re-auto-tune.


( 5 ) During the self-tuning process, pay attention to the changes in temperature and the operation of the equipment.

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3-3 Typical multi-module control configuration


3-3-1 Application


This example is an application case of two modules composed of two XD1N-ET8000 (hosts).


By adding modules, the system can be expanded to thousands of channels of temperature control.


Configuration:


serial number


Module name


name


model


quantity


Remark

1


Module 1


Host module

XD1N-ET8000

1

2


Extension modules

XD1N-T8000

3

3


Mod 2


Host module

XD1N-ET8000

1

4


Extension modules

XD1N-T8000

2

5


Module 1 and module 2 communicate with the host computer through their respective Ethernet ports.


XD1N-ET8000 ( new module ) default IP : 192.168.0.3 Port number: 1024


Note: The module name can be named according to customer needs in the software. In this example, it is named: Module 1 , Module 2


Control requirements: IP address assigned to module 1 by the project: 192.168.0.18 Port number: 1024


IP address assigned to module 2 by the project: 192.168.0.19 Port number: 1024


3-3-2 System Architecture

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3-3-3 Add modules


Add modules:


Open the XD-SDP software, when creating a new project, click [Options] - [Add and Delete Modules] in the menu bar to enter add and delete


Module screen, in this screen, add module 2. As shown in the figure below:


3-3-4 Communication settings


Refer to the "Communication Settings" method in 3-1-3 in " 3-1 Typical Minimum Control Configuration" ,


Use the PC software to set the following parameters:


( 1 ) After successful communication connection with PC , select [Module 1 ] - [ Communication Settings] - [ Ethernet ] to set the IP address of module 1 , IP address: 192.168.0.1 8 Port number: 1024


( 2 ) After successful communication connection with PC, select [Module 2 ] - [ Communication Settings] - [ E thernet ] to set the IP address of module 2 , IP address: 192.168.0.1 9 Port number: 1024


3-3-5 Automatic allocation of station addresses within the expansion module


In the online state, the expansion modules of module 1 and module 2 are [automatically numbered].


3-3-6 Module parameter setting


Refer to the method operation in " 3-1 " case.


3-3-7 PID parameter self-tuning


Refer to the method operations in " 3-1 " or " 3-2 " cases.

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Chapter 4 Basic Parameter Description


Chapter 4


Basic parameter description


This chapter mainly introduces the basic parameter applications of the XD1N series.


Chapter 4 Basic Parameter Description 64


4-1 Set input specifications 65


4-1-1 input type 65


4-1-2 Temperature input 65


4-1-3 Input gain and offset (correction) 65


4-1-4 filter factor 67


4-2 Set output specifications 68


4-2-1 Minimum output ON/OFF width (system internal parameter) 68


4-2-2 Operation volume upper limit / operation volume lower limit 68


4-2-3 Operating volume rising change limit / operating volume falling change limit 69


4-2-4 current output range 69


4-2-5 Current output lag time 69


4-3 Set control specifications 70


4-3-1 System Type 70


4-3-2 control method 70


4-3-3 operating mode 70


4-3-4 fixed output ( operated value ) 71


4-3-5 Heating and cooling dead zone 71


4-3-6 ON/OFF control deviation 71


4-3-7 LSP group number 71


4-3-8 Ramp Up / Down Slope 72


4-3-9 ramp unit 72


4-3-10 control cycle 72


4-4 Set LSP group parameters 73


4-5 Set PID parameters 74


4-5-1 Set PID value 74


4-5-2 set value ( SV value) 75


4-5-3 PID value description 75


4-6 Set alarm parameters 76


4-6-1 Alarm Mode 76


4-6-2 Alarm function 76


4-6-3 Alarm Delay 76


4-6-4 alarm limit 76


4-6-5 alarm lower limit 76


4-7 Set address mapping 77


4-8 Set RS485 communication station number 78


4- 8 -1 Station number display rule 78

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4-1 Set input specifications


4-1-1 input type


Set the input type to match the type of sensor being used.


Parameter name


Setting range


default value


Sensor type

0-8

PT:8

TC:0


NOTE This parameter can only be set when operation is stopped
.


input type


sensor


Specification


set value


Setting range


Temperature input


Platinum resistor

PT100

8

-200-800


Thermocouple

K

0

-210-1300

J

1

-210-1200

T

2

-210-400

E

3

-270-1000

N

4

-200-1300

B

5

0-1820

R

6

-50-1768

S

7

-50-1768


Platinum resistor

PT100

9

-200-500


current

4-20MA

10


Voltage

0-10V

11


4-1-2 Temperature input


temperature unit


Parameter name


Setting range


default value


temperature unit


0 : 0 1 : 0

0


Note: This parameter can only be set when the operation is stopped . Currently, only 0 is supported.


4-1-3 Input gain and offset (correction)


If the temperature at the measuring point is significantly different from the displayed temperature, the current sensor position ( measuring point)


Where the display/control performance is not satisfactory, the temperature difference can be set as the input gain offset (correction value).


Parameter name


Setting range


default value


Gain

0.000-10.000

1.000


offset

-100.0-100.0

0.0


Correction formula: T = (Gain × T 0 ) + Offset. ( T is the displayed temperature, T 0 is the temperature before correction)

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Gain:


When there is a deviation between the actual temperature of the sensor and the displayed temperature during use, this module provides correction methods to correct the displayed temperature.


indicates the temperature.


Simple Offset: One Point Offset


The temperature measurement is offset at all points within the sensor range. For example, if you want the temperature to rise by 1.2


℃, then make the following settings.


Input offset = 1.2



Calculate the input offset value to measure the temperature at two points: the current value displayed by the XD1N and the position to be displayed (control target).


Preparation


1. Set the input type to match the sensor used.


2. Prepare a thermometer that can measure and control the target temperature, as shown in the figure below, to facilitate the measurement of temperature offsets

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4-1- 4 filter factors


When the input jumps too frequently, the filter factor can be adjusted to make the temperature control more stable. The larger the filter factor, the smoother the change, and the real-time performance becomes worse. The system supports 3 filtering methods. A filter factor value of 0 means that the filtering method is not enabled.


Filter factor 1 :


Parameter name


Setting range


default value


Filter factor 1

0-30

3


Filter factor 2 :


Parameter name


Setting range


default value


Filter factor 2

0-30

0


Filter factor 3 :


Parameter name


Setting range


default value


Filter factor 2

0-30

0

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4-2 Set output specifications


4-2-1 Minimum output ON/OFF width (system internal parameter)


Set the minimum output ON/OFF width.


When using output relays, this feature can be used to prevent relay damage. The figure below shows the relationship between MV and actual output.


example:


When the control time is 10s , the minimum


Output ON/OFF width is 10.0%


And if the MV is less than 10.0% , lose


The output will be 0% .


When MV is 90.0% or above,


The output will be 100%.


Note: System parameters cannot be modified by customers.


4-2- 2 Upper limit of operation volume / lower limit of operation volume


Parameter name


Setting range


default value


Operation volume upper limit


- 10.0~110.0 (for standard control)

105


0.0 ~110.0 (for heating / cooling system) %


Lower limit of operation volume


- 10~110.0 (for standard control)

-5


0.0 ~110.0 (for heating / cooling system) %

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4-2- 3 Operation volume rising change limit / operating volume falling change limit


The control loop can limit changes in the operating variable ( MV) .


Parameter name


Setting range


default value


Operation volume rising change limit


0.0 : unlimited width

0.0


0.1~100.0% / S


Operation volume drop change limit


0.0 : unlimited width

0.0


0.1~100.0% / S


Please set the maximum operating amount change per 1 S in absolute value (%). However, the change in operation volume per sampling period is affected by


The limit of the value obtained by multiplying the set value by the number of seconds of the sampling period.


For example: when the sampling period is 0.01S and is set to 5.0 (% / S) , the maximum operating volume change is subject to 0.05 %


restrictions.


When set to 0, there is no operating variable change limit.


During ON/OFF control, the operating variable change limiter is invalid.


4-2-4 current output range


Parameter name


Setting range


default value


Current output range


0 : 4 ~20MA

0


1 : 0~20MA


4-2- 5 Current output lag time


Parameter name


Setting range


default value


Current output lag time

0.0~10.0 s

0

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4-3 Set control specifications


4-3-1 system type


selector switch


Parameter name


Setting range


default value


System type


0 : Standard type

0


1 : Quick response


Note: This parameter can only be set when the operation is stopped , and is disabled by default.


4-3-2 control method


selector switch


Optional heating, cooling, heating / cooling


Parameter name


Setting range


default value


Control method


heating


heating


cool down


heating / cooling


NOTE This parameter can only be set when operation is stopped


4-3-3 operating mode


selector switch


PID control, fixed operating quantity output control or ON/OFF output can be selected .


Parameter name


Setting range


default value


operating mode

PID

PID


Fixed operation output


ON/OFF output


Ramp operation


Cascade control


Program section control


NOTE This parameter can only be set when operation is stopped


PID mode:


Perform P (proportional) I (integral) D (differential) calculation on the deviation between the current temperature and the set value , and output appropriate control


signal to the actuator.


The PID value can be adjusted manually or the best PID value can be obtained through self-tuning. It is generally recommended that customers choose


Use self-tuning.

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4- 3 - 4 fixed output ( operated value )


Fixed operation output


Output fixed operation amount


It outputs a fixed operating quantity, the temperature control does not perform PID control, and the temperature value does not automatically adjust with the set value ( SV ).


Section, continuous heating or cooling.


Note only used in debugging or fault diagnosis, default value 0


4-3-5 Heating and cooling dead zone


Parameter name


Setting range


default value


Heating and cooling dead zone


- 3200.0~3200.0

0


Note: It is only valid in the control mode [ heating/cooling] system.


For example, if the target temperature is 100 °C and the heating and cooling dead zone is set to 5.0 , the cooling output will start when the current temperature reaches 105 ° C.


If the heating and cooling dead zone is set to 0 , the cooling output will start when the current temperature reaches the target temperature of 100° C .


vice versa.


4- 3 - 6 ON/OFF control deviation


Parameter name


Setting range


default value


ON /OFF control deviation

-3200.0~3200.0

0


Note: ON/OFF control means that when the value is lower than ( current set value + 0N/OFF control deviation) , the control output is turned ON; when it is higher than ( current set value + 0N/OFF control deviation value) , the control output is turned ON. Control output OFF. (when running in reverse) .


For example, if 1 00 ℃ is set and the ON/OFF control deviation is set to 5 , then the current temperature reaches 1 05 ℃ and the output is OFF .


If the ON/OFF control deviation is set to 0 , then OFF will be output when the current temperature reaches the target temperature of 100 ° C .


vice versa.


4- 3 - 7 LSP group number


A single channel has 8 sets of LSP numbers, namely LSP0-LSP7
.


Parameter name


Setting range


default value


L SP group number

0-7

0


Usage steps:


1 , 2 , 3.... 1. In [Setting Screen] - [ L SP Group], preset L SP SP (setting value) and select the LSP P ID group number.


For example, the default L SP1 SP:60.0 LSP1 PID group: P ID group 1 , L SP8 SP:400.0 LSP8 PID group: P ID group 8 ,


Note: A single channel can pre-store up to 8 temperature setting values ​​and corresponding P ID values.


2. In [Setting Screen] - [ PID Group], preset the PID group 1 value and PID group 8 value as follows:


Proportional band (heating) 1

6.0


Proportional band (heating) 8

7.0


Integral band (heated) 1

120.0


Integral band (heated) 8

130.0


Differential band (heating) 1

15.0


Differential band (heating) 8

15.0


3. Select the LSP group number in [Setting Screen] - [Control Parameters] , select: 0 : LSP1 group, that is, call the P ID value corresponding to 6 0 degrees


Choice: 7: LSP8 group, that is, calling the P ID value corresponding to 4 00 degrees

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4-3-8 ramp up / down slope


The rising slope and falling slope of the SP slope can be set for each control loop .


Parameter name


Setting range


default value


Ramp up slope


0 : No slope

0


1-32000 ( slope time is selected by S P ramp unit )


ramp down slope


0 : No slope

0


1-32000 ( slope time is selected by S P ramp unit )


When the initial value is 0 , the SP ramp does not operate. So if the rising slope is set to be greater than 0 , the falling slope


If set to 0 , the SP ramp will act only when SP rises , and when SP falls, the SP ramp will not act.


On the contrary, the SP ramp can also be set to act when SP falls and not act when SP rises.


4-3-9 ramp unit


The time unit of the S P slope of each control loop can be set in one of seconds, minutes, and hours.


Parameter name


Setting range


default value


slope unit


0 : 1 second

0


1 : 1 point


2 : 1 hour


4 -3- 10 control cycle


Control output method


The control output uses the time proportional output method.


MV determines the percentage of time the output is on during each control cycle.


NOTE Control response improves as the control period shortens, but if the relay is being used to control a heater ,


The life of the relay will also be shortened, so we recommend a control cycle of at least 20 seconds.


Parameter name


Setting range ( ms )


Default value ( ms )


Control cycle CH1-4


PT : 500-10000


TC : 250-10000

1000


The control output must be assigned and set to 0-PID mode


The system defaults and generally the customer does not make any modifications.

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4- 4Set L SP group parameters


LSP1 SP is used in conjunction with the LSP1 PID group number. The LSP group supports up to 8 preset SPs (set temperature values)


Each SP (set value) can select a group of P ID values ​​using L SP1 PID1 group - LSP1 PID8 group .


example:


There are two heating systems with temperatures of 60 ℃ and 400 ℃. When a set of P ID parameters cannot meet the control accuracy requirements, the L SP group function can be enabled.


1 , 2 , 3... 1. Set the following parameters in [Setting Screen] - [ LSP Group]:

NO


Parameter name

CH1

1

LSP1 SP

60.0

2


LSP 8 SP

400.0

3


LSP1 PID group number


0: PID group 1

4


LSP 8 PID group number


7: PID group 8


When the temperature is set to 6 0.0 , the P ID value of P ID group 1 is selected .


When the temperature is set to 400.0 , the P ID value of P ID group 8 is selected .


2. Set the following parameters in [Setting Screen] - [ PID Group]:


Set the P ID value in PID group 1 in [Setting screen] - [ PID group], as follows:


Parameter name

CH1


Proportional band (heating) 1

6.0


Integral band (heated) 1

15.0


Differential band (heating) 1

40.0


Proportional band (heating) 1, integral band (heating) 1, differential band (heating) 1 represent the PID value of PID group 1
.


Set the P ID value in PID group 8 in [Setting screen] - [ PID group], as follows:


Parameter name

CH1


Proportional band (heating) 8

8.0


Integral band (heated) 8

17.0


Differential band (heating) 8

30.0


Proportional band (heating) 8 , integral band (heating) 8 , differential band (heating) 8 represents the P ID value of P ID group 8


Note: P ID values ​​under different temperature settings can be obtained through self-tuning.


Select the L SP group number in [Setting Screen] - [Control Parameters] , as follows:


Select: 0 : LSP1 group, that is, call the P ID value corresponding to 60 degrees


Choice: 7: LSP8 group, that is, calling the P ID value corresponding to 4 00 degrees

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4-5Set P ID parameters


4-5-1Set P ID value


PID is divided into two sets of heating / cooling parameters, and supports up to 8 groups of P ID, namely P ID group 1 - PID group 8.


Parameter name


PID group number


Setting range


default value


PID parameter group


PID group 1


Proportional band (heating) 1

6.0


Integral band (heated) 1

120.0


Differential band (heating) 1

15.0


Proportional band (cooling) 1

6.0


Proportional band (cooling) 1

120.0


Points band (cooling) 1

15.0

---

---

---


PID group 8


Proportional band (heating) 8

8.0


Integral band (heated) 8

17.0


Differential band (heating) 8

30.0


Proportional band (cooling) 8

6.0


Proportional band (cooling) 8

120.0


Points band (cooling) 8

15.0


step:


1, 2, 3.... 1. Set the LSP SP (setting value) in [Setting Screen]-[LSP Group] and select the PID group number used by the LSP SP group number.
.


2. Set the PID value in [Setting Screen] - [ PID Group] . This value can be obtained through auto-tuning.


3. Select the LSP group number in [Setting Screen]-[Control Parameters]
.


Note: The values ​​of the P ID group corresponding to different temperature set values ​​( L SP SP ) can be automatically calculated through P ID self-tuning.


For example: when the set temperature is 60 degrees , auto-tuning is performed once to set the corresponding P ID value.


Then change the set temperature to 400 degrees , and auto-tune it again to get the corresponding P ID.

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4-5-2 set value ( SV value )


Parameter name


Setting range


default value


set value

-300.0~3000.0

0


4- 5 - 3 PID value description


Parameter name


Setting range


default value


Proportional band ( P )

0.0-999.9

6.0


Integration time ( I )

0.0-99.99

0.20


Differential time ( D )

0.0-999.9

5.0


(1) When the control characteristics are unknown, use the currently set PID for automatic adjustment. After performing PID self-tuning, it will automatically


Set the optimal PID constant for the current set value.


(2) When the control characteristics are known, the PID parameters can be directly set to adjust the control. The PID parameters include proportion


Band (P), integral time (I) and derivative time (D).


• Proportional action: In proportional action, the MV is proportional to the offset value (control error).


• Integral action: This control action produces an output proportional to the time integral of the control error.


Offset usually occurs under proportional control, so proportional action is performed together with integral action.


As time passes, the offset disappears and the control temperature (current value) matches the setpoint.


• Derivative action: A control action that produces an output proportional to the rate of change of the input. Due to proportional control and integral


The control is corrected for errors in the control results, and the control system will respond more slowly to sudden changes in temperature.


Differential action performs corrective action by increasing MV in proportion to the slope of the temperature change


• Effect of changes in P (proportional band)


Effect of changes in I (integration time)


Effect of D change (derivative time)

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4-6 Set alarm parameters


The alarm function includes five options: alarm mode, alarm function, alarm delay, alarm upper limit, and alarm lower limit. Customers can customize the alerts they want to output based on these five options. When conditions are met, alert status is sent via communication.


4-6-1 Alarm Mode


Parameter name


Setting range


default value


Alert Mode 1 , 2


0 : No alarm (alarm function OFF )


1 : Upper limit of deviation


2 : Lower limit of deviation


3 : Upper and lower limits of deviation


4 : Absolute upper limit


5 : Absolute value lower limit


6 : Upper and lower limits of absolute value

0


4-6-2 Alarm Function


Parameter name


Setting range


default value


Alarm function 1 , 2


0 : Normally ( 1 during alarm )


1 : standby


2 : Reverse ( 0 during alarm )


3 : keep

0


4-6-3 Alarm Delay


Parameter name


Setting range ( s )


Default value ( s )


Alarm Delay 1 , 2


0 : invalid


1~100s alarm delay time

0


4-6-4 alarm limit


Parameter name


Setting range (℃)


Default value (℃)


Alarm limit 1 , 2


-300.0~3000.0

0.0


4- 6-5 Alarm lower limit


Parameter name


Setting range (℃)


Default value (℃)


Alarm lower limit 1 , 2


-300.0~3000.0

0.0

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4-7 Set address mapping


In order to make it easier for customers to read and write data, this product provides an address mapping function. Open user-defined data area to customers, which is used to turn discontinuous parameter addresses into continuous addresses.


The mapping area is from 0X1C00-0X1FF0 , with a total of 1024 addresses .


Please refer to Chapter 2-7-9 (Setting Address Mapping) for the steps and methods of setting address mapping .

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4-8 Set the RS485 communication station number


The XD1N host module establishes communication with the host computer. If you choose RS485 communication, you need to set the RS485 communication station number for the host module of each module (the module itself does not support the physical DIP switch to set the station number), which needs to be done through the XD-SDP software. set up.


Parameter name


Setting range


default value


RS485 communication station number

1-255

1


4-8-1 Station number display rules


Indicator light meaning


indicator light


Digits


scope


light signal


state


numerical value

485


Hundreds

0-2

485

0

1

485 NET

485 NET

0

2

1,2,3,4


tenth place


8421 codes

0-9

1,2,3,4

0

4

1

3

2

3,4

3

2

4

2,4

5

2,3

6

2,3,4

7

1

8

1,4

9

5,6,7,8


ones digit


8421 codes

0-9

5,6,7,8

0

8

1

7

2

7,8

3

6

4

6,8

5

6,7

6

6,7,8

7

5

8

5,8

9


Through the status of the indicator light on the XD1N panel, the station number of the current module host module can be calculated.


illustrate:


The station number passes through hundreds, tens, and ones digits


Composed of three numbers.

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Chapter 5 485 Communication Instructions


Chapter 5


RS485 communication instructions


This chapter mainly introduces the application of RS485 ModBus communication parameters of the XD1N series .


Chapter 5 485 Communication Instructions 79


5-1 Overview of communication protocol 80


5-1-1 Agreement Contents 80


5-2 Scope of application 80


5-2-1 applicable products 80


5-2-2 applicable method 80


5-3 RS-485 communication specifications and protocol description 81


5-3-1 interface specifications 81


5-3-2 Topology 81


5-3-3 Modbus RTU protocol 82

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5-1 Overview of communication protocol


( 1 ) Communication is programmed via the host computer. Therefore, the communication instructions in this manual are also provided by the host


Written from a computer perspective , for example : about reading and writing, which means reading data from the XD1N to higher-level calculations


machine and write data from the host computer to the XD1N .


(2) The XD1N series temperature control module provides standard RS -485 communication interface and Ethernet communication interface. Users can


PC /HMI/PLC realizes centralized monitoring (sending control instructions, setting the working parameters of the temperature control module and reading the temperature control module


block's working status, real-time temperature value) to meet the user's specific requirements.


( 3 ) This protocol is based on the standard Modbus protocol ※1 , in order to realize Modbus RTU and Ethernet via RS -485 interface


Designed by Modbus TCP/IP with Ethernet interface .


5-1-1 Agreement Contents


This protocol adopts the form of "main module polling (or broadcast), and slaves respond respectively". Users can choose PC/ HMI/PLC


As the main module, the temperature control module is controlled as a slave.


The sequence of message transmission is as follows:


( 1 ) The master module sends command messages to the slave machine.


( 2 ) The slave machine confirms whether the station number in the received message is the same as its own station number.


( 3 ) If consistent, execute the instruction and return a response message.


( 4 ) If inconsistent, discard the received instruction message and wait for the next instruction message.


a ) The station number in the command message is consistent with the station number of this station


B ) The station number in the command message is inconsistent with the station number of this station


( 5 ) After the master module sends the command message, the slave does not respond and can be retried more than 3 times.


( 6 ) The main module can communicate with multiple slaves connected on the same line by specifying the station number of the command message.


5-2 Scope of application


5-2-1 applicable products


XD1N full range of temperature control modules.


5-2-2 applicable method


( 1 ) Connect to the PC/ HMI/PLC control network with the "single master multiple slaves" mode of RS -485 bus .


( 2 ) Connect to the PC/ HMI /PLC control network with the "single master multiple slaves" mode of industrial Ethernet bus .


Remarks: (1 Standard Modbus protocol messages are available in RTU format and ASCII format. The XD1N series temperature control module only supports RTU format.


( 2This product supports both RS -485 interface and Ethernet interface, so there is no need to switch the communication interface settings.

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5-3 RS -485 communication specifications and protocol description


5-3-1 Interface specifications


project


Specification


Electrical specifications


Comply with EIA RS -485


Communication method


2- wire half-duplex


sync mode


Start and stop synchronization


Number of connected units


Maximum of 3 slave machines


Station number address


1 ~255 ( 0 is broadcast)


Communication speed ( bps )


2 400 , 4 800 , 9 600 , 1 9200 , 3 8400 , 5 7600 , 1 15200 (optional)


Communication distance


Maximum 5 00 m (total length)


Data format


Data length


8 bits


Stop bit


1 person


parity bit


None, even, odd (optional)


error detection

CRC-16


5-3-2 Topology

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5-3-3 Modbus RTU protocol


Message format


The command message and response message consist of four parts: station number, function code, data and error check code, and are sent in this order.


Station number (station address)


FC ( RTU function code)


data


Error check code

最大250字节

2字节

1字节

1字节


The detailed description of the four parts is as follows:


( 1 ) Station number


The station number is the designated number of the slave station. Only the slave station with the same received station number will process the instruction.


The station number address is 1 byte long, and the station number can be selected from 0 to 255 . Selecting address No. 0 means selecting all slave stations, which represents the wide


Broadcast news.


( 2 ) Function code


The function code is the function code specified for the slave station to execute. The function code is 1 byte long and uses the values ​​from 0 to 255 as shown in the table below.


Define.


The gray grid indicates unused function codes. If you specify an unused function code, the slave station will respond abnormally.


Function code


illustrate

00


Not used

01


Coil readout ( not supported in XD1N series)

02


Not used

03


Function readout

04


Input register read

05


Coil writing ( not supported in XD1N series)

06


Single function write

07


Not used

08


Maintenance code ( not applicable to XD1N series)


09 ~14


Not used

15


Continuous coil writing ( not supported in XD1N series)

16


Continuous function writing


1 7~127


Not used


1 28~255


Reserved area for exception response


( 3 )Data


It is the data necessary to execute the function code. The composition of the data varies with the function code.


The data in the temperature control module is assigned a register number. If you want to use this data during communication, please specify the register number.


Register numbers transferred on messages are performed via relative addresses.

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The relative address calculation formula is as follows:


Relative address = [lower 4 bits of register address ] - 1


For example, when the register number specified by a certain function code = 40003 ,


Relative address = ( low 4 bits of 4 0003 ) - 1 = 0002


Error check code


CRC -16 cyclic redundancy check is used for error checking during message transmission . CRC -16 is 2 bytes of data. calculate


The range is from the station number at the beginning of the message to the end of the data. The slave calculates the result of the CRC and the CRC of the received message


If the data is inconsistent, no response will be made.


The cyclic redundancy check calculation method is omitted in this article, please check other related documents.


Message type


The message types include query, normal response, abnormal response and broadcast.


( 1 ) Query ( Query )


The master module sends message instructions to the slave.


( 2 ) Normal response ( Normal Response )


After receiving the query message from the master module, the slave machine processes the request and returns the corresponding normal response.


( 3 ) Abnormal response ( Abnormal Response )


If the slave receives the query message from the master module, but the function code specified in the message is invalid, it will return an exception response.


In addition, abnormal responses are also returned for CRC check errors and physical transmission errors.


The error response message is composed as follows. The function code is the command message function code plus the value of 8 0 H.


Station number (station address)


Function code + 80 H


error code


Error check code


The error code is as follows:


error code


content


illustrate

01H


Function code error


A non-existent function code was specified.


Please confirm the function code.

02H


Register address error


Specifies the relative address of the register number that cannot be used by the function code.

03H


The number of registers is wrong


Too many numbers are specified, causing the specified register number to exceed its existing range.

04H


CRC check error


The CRC calculated by the slave station is inconsistent with the CRC data in the received message .

05H


Parity error


Parity is inconsistent.

06H


N AK no response


After the master module sends a message command, the slave does not respond after a certain period of time.


This processing ends after the main module times out.

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Message transfer control


( 1 ) Slave response time


When the slave receives the query request from the master module, it executes query processing. When responding as shown below


response time.

查询

查询

主机

T2

T1

应答

应答


T1 : response interval time


The response interval time is the function code setting, 6 bytes of time, which is the longest in the temperature control module processing time.


time.


T2 : sending interval time


The sending interval is more than 6 bytes.


( 2 ) Timeout processing


The read and write command message sent by the master module must be confirmed by the slave machine before the next command message can be sent.


interest. After a certain period of time (timeout time), if no response from the slave is received, it is considered a timeout.


and execute the resend function. The number of retransmissions is usually about 3 times. The timeout must be set longer than the slave


response time.

超时时间

主机

查询(重发)

T1

应答

查询

应答


For example, when reading the first data of channel 1 (relative address 0x0 065 H ) of slave station No. 1 , send the


Send message command.


Modbus RTU message command.


Data Department


Error check code


Station number


Function code


Read relative address


Number of data read


CRC data


high position


low position


high position


low position


low position


high position

01H

04H

00H

65H

00H

01H

21H

D5H


Function code


For detailed explanation of function codes, please refer to: 8-1 Appendix 1 "Communication Function Codes and Data Format"

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6-1 Ethernet communication specifications and protocol description


6-1-1Interface specifications


project


Specification


Electrical specifications


RJ- 45 Shielded, Adaptive 1 0/100 Base - TX


Interface characteristics


Support IEEE 802.3 , IEEE 802.3x


communication speed


10Mbps


Maximum number of nodes in the network


1 master module , maximum 100 slave modules


Communication distance


Up to 100 m (between node and HUB )


Maximum network interval


Maximum 500 m ( 4 sections in cascade)


Recommended cables


1 0 BASE - T twisted pair cable (Category 5 unshielded twisted pair)


Data format


Data length


8 bits


Stop bit


1 person


parity bit


None, even, odd (optional)


6-1-2 Topology composition

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User manual


6-1-3 Ethernet communication settings


In order to connect the temperature control module to the Ethernet and monitor it, the IP address must be set.


The default factory IP addresses are as follows:


project


Factory initial value


Setting range


Remark


IP address

192.168.0.3


Each byte 0 ~255


After modifying the settings, please power off and restart.


For how to modify the IP address, please refer to the relevant chapters in the "Xianda XD1N User Manual".


6-2 Modbus TCP / IP protocol


The Modbus TCP/IP protocol is designed based on the standard Modbus protocol and combined with the TCP/ IP protocol.


For Modbus protocol, please refer to the Modbus RTU protocol in Chapter 3. This chapter focuses on the description and Modbus


There are different parts of the RTU protocol.


6-2-1 Message composition


The Modbus TCP/IP protocol message deletes the Modbus RTU error check code ( CRC -16 ) and traces


It is composed after adding a 6 -byte header. The specific differences are as follows:

Modbus RTU消息


title


Data Department

Modbus TCP/IP消息


The header part of the Modbus TCP/IP message consists of the transmission ID , the protocol ID , and the byte length of the data part.


Byte No.

0

1

2

3

4

5


Data content


Transport ID


Protocol ID


Data byte length


Transmission ID : Fixed to 0 for Modbus TCP/IP


Protocol ID : Fixed to 0 for Modbus TCP/IP


Data byte length: the number of bytes in the data part


For example, when reading the first data of channel 1 (relative address 0x0 065 H ) of slave station No. 1 , send the


Send message command.


( 1 ) Modbus TCP/IP message command


title


Data Department


Transport ID


Protocol ID


Byte length


Station number


Function code


relative address


Number of data read


high position


low position


high position


low position


high position


low position


high position


low position


high position


low position

00H

00H

00H

00H

00H

06H

01H

04H

00H

65H

00H

01H

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User manual


7-1 What to check first

检查指示灯


If an error occurs, check the following items and take corrective action if necessary.


Look at the indicator lights to check the operating status of the XD1N module .


If the ERR indicator light is on, then power cycle the XD1N . If ERR is indicated after the power is turned back on


The light does not light up, check whether the switch and wiring are correct .

检查开关和接线


Check switch settings and wiring.


power supply


Is the power turned on?


• Is the supply voltage within the permitted range?


wiring



Is the terminal block connected correctly?


Is the polarity correct?


Are there any line breaks?


Are any wires or cables disconnected or tied together?



Communication conditions


Does the communication condition match the host computer system?



If none of the above items need to be corrected, or the error is not cleared after completing the check, the communication function should be used


for a more in-depth examination

根据状态确定错误


Check the status of the XD1N , find the cause of the error based on the data read by the XD1N , and then correct it.

根据当前状况确定错误


If the cause of the error is still unclear after checking all items, guess the cause of the error based on the current situation and


Try to solve it .

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User manual


7-2 Determine the error based on the indicator light


The following table shows the indicator status, possible error causes, and solutions .


Tips in case of failure


When the control module fails, the cause can be eliminated through the prompts of the indicator light. After the cause is eliminated, please cut off the power and then turn it on again.


reason


show

PWR

RUN

ERR

485

NET

OUT


Motherboard power outage


RS 485 communication abnormality


Ethernet communication abnormality


Sensor disconnected


Note 1 ) When the sub-module address is assigned, the output indicator light performs a ticker action.

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User manual


Chapter 8 Appendix


Chapter 8


appendix


The appendix of this chapter describes the temperature control module communication function code, data format, and register storage content information.


Chapter 8 Appendix 91


8-1 Appendix 1 : "Communication Function Code and Data Format" 92


8-1-1 Communication command function code 92


8-1-2 Detailed explanation of communication command function code 92


8-1-2-1 word data reading [Function code: 03 ] 92


8-1-2-2 Input register reading [Function code: 04 ] 93


8-1-2-3 Single function writing [Function code: 06 ] 93


8-1-2-4 Continuous function writing [Function code: 16 ] 94


8-1-3 Data format 94


8-2 Appendix 2 : "Register Parameter List" 95


8-2-1 Address Mapping 95


8-2-2 Register parameter list 96


8-2-2-1 1#- 8# module parameter list 96


8-2-2-2 9#-16# module parameter list 98


8-2-2-3 Communication parameter list 100


8-2-2-4 CH1-CH8 channel parameter list 101


1# module ( CH1-CH8) channel parameters (parameter group 1 ) address definition: 101


1# module ( CH1-CH8) channel parameter (parameter group 2 ) address definition: 105


1# module ( CH1-CH8) channel parameters (parameter group 3 ) address definition: 109


1# module ( CH1-CH8) channel parameters (parameter group 5 ) address definition: 110


1# module ( CH1-CH8) channel parameters (parameter group 6 ) address definition: 116


User-defined data area (parameter group 7 ) address table: 120


8-2-3-5 Register storage content (current temperature value) 121


8-2-3-6 Register storage content (output operand) 122


8-2-3-7 Input register storage content (others) 123


8-3 Appendix 3 : " XD1N-ET8000 and Delta touch screen communication case" 125


8-3-1 RS 485 communication 125


8-3-2 Ethernet communication 131


8-4 Appendix 4 : " Communication between XD1N-ET8000 and Delta PLC " 137


8-5 Appendix 5 : " Sensor Types Supported by XD1N Series Temperature Control Module" 140


8-6 Appendix 6 : "Products and Services" 140

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User manual


8-1 Appendix 1 : "Communication Function Code and Data Format "


8-1-1 Communication command function code


The XD1N series only provides [ 0 3 ] function reading, [ 0 4 ] reading input register, [ 0 6 ] :


Single function writing, [ 1 6 ] continuous function writing of four function codes to access the specified register address. press work


The word lengths of messages that can be classified are as follows:


Function code


illustrate


The number of data that can be specified


command message


reply message


smallest


maximum


smallest


maximum

03


Word data read


250 bytes


6 bytes


6 bytes


5 bytes


253 bytes

04


Read input register


2 50 bytes


6 bytes


6 bytes


5 bytes


2 53 bytes

06


Word data writing


2 50 bytes


6 bytes


6 bytes


6 bytes


6 bytes

16


Continuous word data writing


2 50 bytes


6 bytes


2 5 7 bytes


6 bytes


6 bytes


8-1-2 Detailed explanation of communication command function codes


8-1-2-1 Word data reading [Function code: 0 3 ]


( 1 )Composition of command message


Station number


Function code


data


Error check code


relative address


Read data length

-

-


high position


low position


high position


low position


low position


high position


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


( 2 ) Response message composition


Station number


Function code


data


Error check code


Read data length


first word data


last word data

-

-


high position


low position


high position


low position


high position


low position


low position


high position


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


( 3 ) Function description


Starting from the relative address where reading is started, continuous word data is read. The slave machine follows the high-order byte, low-order byte


The read data is sent in byte order.

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User manual


8-1-2-2 Input register reading [Function code: 0 4 ]


( 1 )Composition of command message


Station number


Function code


data


Error check code


relative address


Read data length

-

-


high position


low position


high position


low position


low position


high position


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


( 2 ) Response message composition


Station number


Function code


data


Error check code


Read data length


first word data


last word data

-

-


high position


low position


high position


low position


high position


low position


low position


high position


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


( 3 ) Function description


Starting from the relative address where reading is started, continuous word data is read. The slave machine follows the high-order byte, low-order byte


The read data is sent in byte order.


8-1-2-3 Single function writing [Function code: 06 ]


( 1 )Composition of command message


Station number


Function code


data


Error check code


write relative address


Write data length


Write word data

-

-


high position


low position


high position


low position


high position


low position


low position


high position


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


( 2 ) Response message composition


Station number


Function code


data


Error check code


write relative address


Write data length

-

-


high position


low position


high position


low position


low position


high position


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


( 3 ) Function description


Starting from the writing start number, single data is written. The main module is divided into high-order byte and low-order byte.


Write data is sent sequentially.

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User manual


8-1-2-4 Continuous function writing [Function code: 16 ]


( 1 )Composition of command message


Station number


Function code


data


Error check code


write relative address


Write data length


Write the first word of data


Write last word data

-

-


high position


low position


high position


low position


high position


low position


high position


low position


low position


high position


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 word


1 word


1 byte


1 byte


1 byte


( 2 ) Response message composition


Station number


Function code


data


Error check code


write relative address


Write data length

-

-


high position


low position


high position


low position


low position


high position


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


1 byte


( 3 ) Function description


Starting from the number at which writing is started, continuous data is written. The main module is in the order of high-order byte and low-order byte.


Send write data sequentially.


Error check code


CRC -16 cyclic redundancy check is used for error checking during message transmission . CRC -16 is 2 bytes of data. calculate


The range is from the station number at the beginning of the message to the end of the data. The slave calculates the result of the CRC and the CRC of the received message


If the data is inconsistent, no response will be made.


Note 1 ) The calculation method of cyclic redundancy check is omitted in this article, please check other related documents.


8-1-3 Data format


( 1 ) Decimal point processing


No decimal point is appended to the data transmitted in this protocol. For data with decimal points, please correct the decimal point position.


Process it all (remove the decimal point when sending, add the decimal point when receiving).


( 2 )Write data range


When writing data, please pass in the data according to the range of the written data. When writing data outside the setting range,


It does not ensure that the main unit operates correctly.

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User manual


8-2 Appendix 2 : "Register Parameter List"


8-2-1 Address mapping


Please refer to the table below for the data types used in this protocol and the storage contents of the corresponding registers.


( 1 ) Data type


Font : Word data handles the address data in word units. 1 data / 1 address


Byte type: Byte data handles the address data in byte units. Up to 2 data / 1 address


Bit type: Bit data handles the address data in bit units. Up to 16 data / 1 address


( 2 ) Variable type:


WORD : word data


( 3 ) Category:


RW : Readable and writable data


R : read-only data

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User manual


8-2-2 Register parameter list


8-2-2-1 1#- 8# module parameter list


Variable type


category


address


Parameter name


Settings (monitoring)


initial value


state


unit


Decimal


Hexadecimal


scope

WORD

RW

40001

0000


1# module start/stop switch

0-1

0


0~1 Setting command: 0: Fully closed 1: Fully open Reading status: 0: Fully closed 1: There is a channel in action

 

40002

0001


2# module start/stop switch

40003

0002


3# module start/stop switch

40004

0003


4# module start/stop switch

40005

0004


5# module start/stop switch

40006

0005


6# module start/stop switch

40007

0006


7# module start/stop switch

40008

0007


8# module start/stop switch

40009

0008


1# module automatically adjusts the start/stop switch

0-1

0


0~1 Setting command: 0: Fully closed 1: Fully open Reading status: 0: Fully closed 1: There is a channel in auto-tuning

 

40010

0009


2# module automatically adjusts the start/stop switch

40011

000A


3# module automatically adjusts the start/stop switch

40012

000B


4# module automatically adjusts the start/stop switch

40013

000C


5# module automatically adjusts the start/stop switch

40014

000D


6# module automatically adjusts the start/stop switch

40015

000E


7# module automatically adjusts the start/stop switch

40016

000F


8# module automatically adjusts the start/stop switch

40017

0010


1# module effective control channel setting

0-255

255


bit0: CH1 bit1: CH2


bit7: CH8 0: Invalid 1: Valid

 

40018

0011


2# module effective control channel setting

40019

0012


3# module effective control channel setting

40020

0013


4# module effective control channel setting

40021

0014


5# module effective control channel setting

40022

0015


6# module effective control channel setting

40023

0016


7# module effective control channel setting

40024

0017


8# module effective control channel setting

40025

0018


1# module runs automatically

0-1

0


0: Manual operation after power on. 1: Automatic operation of all channels after power on.

 

40026

0019


2# module runs automatically

40027

001A


3# module runs automatically

40028

001B


4# module runs automatically

40029

001C


5# module runs automatically

40030

001D


6# module runs automatically

40031

001E


7# module runs automatically

40032

001F


8# module runs automatically

40033

0020


1#retain parameter 1

 

 


Not used

 

40034

0021


2#Reserve parameter 1

40035

0022


3#Reserve parameter 1


address


Parameter name


Settings (monitoring)


initial value


state


unit


Decimal


Hexadecimal


scope

40036

0023


4#Reserve parameter 1

 

 


Not used

 

40037

0024


5#Reserve parameter 1

40038

0025


6#Reserve parameter 1

40039

0026


7#Reserved parameter 1

40040

0027


8#Reserved parameter 1

40041

0028


1#retain parameter 2

 

 


Not used

 

40042

0029


2#Reserve parameter 2

40043

002A


3#Reserve parameter 2

40044

002B


4#Reserve parameter 2

40045

002C


5#Reserve parameter 2

40046

002D


6#Reserve parameter 2

40047

002E


7#Reserved parameter 2

40048

002F


8#Reserved parameter 2

40049

0030


1#Restore default parameters (except communication parameters)

 

0x5A5A


Setting command: 0: Initialization reading status: 0x5A5A: eeprom is normal

 

40050

0031


2#Restore default parameters (except communication parameters)

40051

0032


3#Restore default parameters (except communication parameters)

40052

0033


4#Restore default parameters (except communication parameters)

40053

0034


5#Restore default parameters (except communication parameters)

40054

0035


6#Restore default parameters (except communication parameters)

40055

0036


7#Restore default parameters (except communication parameters)

40056

0037


8#Restore default parameters (except communication parameters)

40057

0038


1#Start delay

0-600

0


0: Invalid 1~600

S

40058

0039


2#Start delay

40059

003A


3#Start delay

40060

003B


4#Start delay

40061

003C


5#Start delay

40062

003D


6#Start delay

40063

003E


7#Start delay

40064

003F


8#Start delay


Remarks: ( 1 ) Operating module parameters, the contents of the module’s 8 channels ( CH1-CH8 ) take effect at the same time.


For example: If the start / stop switch of module 1# is activated, CH1-CH8 of module 1# will be activated.

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User manual


8-2-2-2 9 #- 16 #Module parameter list


Variable type


category


address


Parameter name


Settings (monitoring)


initial value


state


unit


Decimal


Hexadecimal


scope

WORD

RW

40065

0040


9# module start/stop switch

0-1

0


0~1 Setting command: 0: Fully closed 1: Fully open Reading status: 0: Fully closed 1: There is a channel in action

 

40066

0041


10# module start/stop switch

40067

0042


11# module start/stop switch

40068

0043


12# module start/stop switch

40069

0044


13# module start/stop switch

40070

0045


14# module start/stop switch

40071

0046


15# module start/stop switch

40072

0047


16# module start/stop switch

40073

0048


9# module automatically adjusts the start/stop switch

0-1

0


0~1 Setting command: 0: Fully closed 1: Fully open Reading status: 0: Fully closed 1: There is a channel in auto-tuning

 

40074

0049


10# module automatically adjusts the start/stop switch

40075

004A


11# module automatically adjusts the start/stop switch

40076

004B


12# module automatically adjusts the start/stop switch

40077

004C


13# module automatically adjusts the start/stop switch

40078

004D


14# module automatically adjusts the start/stop switch

40079

004E


15# module automatically adjusts the start/stop switch

40080

004F


16# module automatically adjusts the start/stop switch

40081

0050


9# module effective control channel setting

0-255

255


bit0: CH1 bit1: CH2


… bit7: CH8 0: Invalid 1: Valid

 

40082

0051


10# module effective control channel setting

40083

0052


11# module effective control channel setting

40084

0053


12# module effective control channel setting

40085

0054


13# module effective control channel setting

40086

0055


14# module effective control channel setting

40087

0056


15# module effective control channel setting

40088

0057


16# module effective control channel setting

40089

0058


9# module runs automatically

0-1

0


0: Manual operation after power on 1: Automatic operation of all channels after power on

 

40090

0059


10# module runs automatically

40091

005A


11# module runs automatically

40092

005B


12# module runs automatically

40093

005C


13# module runs automatically

40094

005D


14# module runs automatically

40095

005E


15# module runs automatically

40096

005F


16# module runs automatically

40097

0060


9#Reserved parameter 1

 

 


Not used

 

40098

0061


10#Reserved parameter 1

40099

0062


11#Reserved parameter 1


address


Parameter name


Settings (monitoring)


initial value


state


unit


Decimal


Hexadecimal


scope

40100

0063


12#Reserved parameter 1

 

 


Not used

 

40101

0064


13#Reserved parameter 1

40102

0065


14#Reserved parameter 1

40103

0066


15#Reserved parameter 1

40104

0067


16#Reserved parameter 1

40105

0068


9#Reserved parameter 2

 

 


Not used

 

40106

0069


10#Reserved parameter 2

40107

006A


11#Reserved parameter 2

40108

006B


12#Reserved parameter 2

40109

006C


13#Reserved parameter 2

40110

006D


14#Reserved parameter 2

40111

006E


15#Reserved parameter 2

40112

006F


16#Reserved parameter 2

40113

0070


9#Restore default parameters (except communication parameters)

 

0x5A5A


Setting command: 0: Initialization reading status: 0x5A5A: eeprom is normal

 

40114

0071


10#Restore default parameters (except communication parameters)

40115

0072


11#Restore default parameters (except communication parameters)

40116

0073


12#Restore default parameters (except communication parameters)

40117

0074


13#Restore default parameters (except communication parameters)

40118

0075


14#Restore default parameters (except communication parameters)

40119

0076


15#Restore default parameters (except communication parameters)

40120

0077


16#Restore default parameters (except communication parameters)

40121

0078


9#Start delay

0-600

0


0: Invalid 1~600

S

40122

0079


10#Start delay

40123

007A


11#Start delay

40124

007B


12# Start delay

40125

007C


13#Start delay

40126

007D


14#Start delay

40127

007E


15# Start delay

40128

007F


16#Start delay

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User manual


8-2-2- 3 Communication parameter list


Variable type


category


address


Parameter name


Setting (monitoring) range


initial value


state


unit


Decimal


Hexadecimal

WORD

RW

40769

0300


IP address segment 1

1-255

192

 

 

40770

0301


IP address segment 2

0-255

168

 

 

40771

0302


IP address segment 3

0-255

0

 

 

40772

0303


IP address segment 4

0-255

3

 

 

40773

0304


Subnet mask segment 1

0-255

255

 

 

40774

0305


Subnet mask segment 2

0-255

255

 

 

40775

0306


Subnet mask segment 3

0-255

255

 

 

40776

0307


Subnet mask segment 4

0-255

0

 

 

40777

0308


Default gateway segment 1

0-255

0

 

 

40778

0309


Default gateway segment 2

0-255

0

 

 

40779

030A


Default gateway segment 3

0-255

0

 

 

40780

030B


Default gateway segment 4

0-255

0

 

 

40781

030C


port number

0-32767

1024

 

 

40782

030D


RS485 baud rate (bps)

0-6

6


0:2400

 


1:4800


2:9600


3:19200


4:38400


5:57600


6:115200

40783

030E


RS485 data length

0

0


0: 8 bits

 

40784

030F


RS485 parity bit

0-2

0


0: No verification

 


1: odd parity


2: Even parity

40785

0310


RS485 stop bit

0-1

1


0:1 bit

 


1: 2 bits

40786

0311


Group number

1-255

1

 

 

40897

0380


Station number allocation


0,0x5A5A

0x5A5A

 

 


Setting instructions:


0: Start station number allocation


Read status:


0z5A5A: Station number allocation completed

40898

0381


Full module initialization


0,0x5A5A

0x5A5A

 

 


Setting command: 0: initialization


Read status:


0x5A5A: eeprom is normal


0: There is module eeprom exception

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User manual


8-2-2- 4 CH1-CH8 channel parameter list


1# module ( CH1-CH8) channel parameter (parameter group 1 ) address definition:


4-channel module address: CH1-CH4 CH5-CH8 is not used, 8-channel module address: CH1-CH8


Variable type


category


address


Parameter name


Setting (monitoring) range


initial value


state


unit


Decimal


Hexadecimal

WORD

RW

41025

0400


SV set value CH1

-300.0 - 3000.0

0.0

 

41026

0401


SV set value CH2

41027

0402


SV set value CH3

41028

0403


SV set value CH4

41029

0404


SV set value CH5

41030

0405


SV set value CH6

41031

0406


SV set value CH7

41032

0407


SV set value CH8

41033

0408


Start/stop switch CH1

0-1

0


0: Stop 1: Start

 

41034

0409


Start/stop switch CH2

41035

040A


Start/stop switch CH3

41036

040B


Start/stop switch CH4

41037

040C


Start/stop switch CH5

41038

040D


Start/stop switch CH6

41039

040E


Start/stop switch CH7

41040

040F


Start/stop switch CH8

41041

0410


Self-tuning start/stop switch CH1

0-1

0


0: Stop 1: Start

 

41042

0411


Self-tuning start/stop switch CH2

41043

0412


Self-tuning start/stop switch CH3

41044

0413


Self-tuning start/stop switch CH4

41045

0414


Self-tuning start/stop switch CH5

41046

0415


Self-tuning start/stop switch CH6

41047

0416


Self-tuning start/stop switch CH7

41048

0417


Self-tuning start/stop switch CH8

41049

0418

P CH1

0.0-999.9

6

 

 

41050

0419

I CH1

0.00-99.99

0.2

 

 

41051

041A

D CH1

0.0-999.9

5

 

 

41052

041B

P CH2


CH2(P2) is consistent with CH1

6

 

 

41053

041C

I CH2


CH2(I2) is consistent with CH1

0.2

 

 

41054

041D

D CH2


CH2(D2) is consistent with CH1

5

 

 

41055

041E

P CH3

 

 

41056

041F

I CH3

 

 

41057

0420

D CH3

 

 

41058

0421

P CH4

 

 

41059

0422

I CH4

 

 

41060

0423

D CH4

 

 


address


Parameter name


Setting (monitoring) range


initial value


state


unit


Decimal


Hexadecimal

41061

0424

P CH5

 

 

41062

0425

I CH5

 

 

41063

0426

D CH5

 

 

41064

0427

P CH6

 

 

41065

0428

I CH6

 

 

41066

0429

D CH6

 

 

41067

042A

P CH7

 

 

41068

042B

I CH7

 

 

41069

042C

D CH7

 

 

41070

042D

P CH8

 

 

41071

042E

I CH8

 

 

41072

042F

D CH8

 

 

41073

0430


Control cycle CH1


PT: 500-1 0000


T C: 250-10000

1000

 

ms

41074

0431


Control cycle CH2

41075

0432


Control cycle CH3

41076

0433


Control cycle CH4

41077

0434


Control cycle CH5

41078

0435


Control cycle CH6

41079

0436


Control cycle CH7

41080

0437


Control cycle CH8

41081

0438


Bias CH1

-10.0-10.0

0

 

41082

0439


Bias CH2

41083

043A


Bias CH3

41084

043B


Bias CH4

41085

043C


Bias CH5

41086

043D


Bias CH6

41087

043E


Bias CH7

41088

043F


Bias CH8

1


User manual


2#-8# module (CH1-CH8) channel parameters (parameter group 1 ) address table :


Parameter name


Module 2 address


Module 3 address


Module 4 address


Module 5 address


Module 6 address


Module 7 address


Module 8 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


SV set value CH1

41089

0440

41153

0480

41217

04C0

41281

0500

41345

0540

41409

0580

41473

05C0


SV set value CH8

41096

0447

41160

0487

41224

04C7

41288

0507

41352

0547

41416

0587

41480

05C7


Start/stop switch CH1

41097

0448

41161

0488

41225

04C8

41289

0508

41353

0548

41417

0588

41481

05C8


Start/stop switch CH8

41104

044F

41168

048F

41232

04CF

41296

050F

41360

054F

41424

058F

41488

05CF


PID self-tuning start/stop switch CH1

41105

0450

41169

0490

41233

04D0

41297

0510

41361

0550

41425

0590

41489

05D0


PID self-tuning start/stop switch CH8

41112

0457

41176

0497

41240

04D7

41304

0517

41368

0557

41432

0597

41496

05D7

P CH1

41113

0458

41177

0498

41241

04D8

41305

0518

41369

0558

41433

0598

41497

05D8

I CH1

41114

0459

41178

0499

41242

04D9

41306

0519

41370

0559

41434

0599

41498

05D9

D CH1

41115

045A

41179

049A

41243

04DA

41307

051A

41371

055A

41435

059A

41499

05DA

P CH8

41134

046D

41198

04AD

41262

04ED

41326

052D

41390

056D

41454

05AD

41518

05ED

I CH8

41135

046E

41199

04AE

41263

04EE

41327

052E

41391

056E

41455

05AE

41519

05EE

D CH8

41136

046F

41200

04AF

41264

04EF

41328

052F

41392

056F

41456

05AF

41520

05EF


Control cycle CH1

41137

0470

41201

04B0

41265

04F0

41329

0530

41393

0570

41457

05B0

41521

05F0


Control cycle CH8

41144

0477

41208

04B7

41272

04F7

41336

0537

41400

0577

41464

05B7

41528

05F7


Bias CH1

41145

0478

41209

04B8

41273

04F8

41337

0538

41401

0578

41465

05B8

41529

05F8


Bias CH8

41152

047F

41216

04BF

41280

04FF

41344

053F

41408

057F

41472

05BF

41536

05FF


Remarks: ( 1 ) The content of the 2#-8# module channel parameters (parameter group 1 ) is the same as the definition method of the 1# module channel parameters (parameter group 1 )


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module


For example: The decimal address of module 1# SV setting value CH1 is 41025


Then: 2# module SV setting value CH1 = ( 2-1 ) *64+41025=41089


8# module SV setting value CH1 = ( 8-1 ) *64+41025=41473


For example: The decimal address of module 1# offset CH8 is 41088


Then: 2# module offset CH8 = ( 2-1 ) *64+41088=41152


8# module bias CH8 = ( 8-1 ) *64+41088=41536

1


User manual


9 #- 16 # module (CH1-CH8) channel parameters (parameter group 1 ) address table:


Parameter name


Module 9 address


Module 10 address


Module 11 address


Module 12 address


Module 13 address


Module 14 address


Module 15 address


Module 16 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Decimal


Hexadecimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


SV set value CH1

41537

0600

41601

0640

41665

0680

41729

06C0

41793

0700

41857

0740

41921

0780

41985

07C0


SV set value CH8

41544

0607

41608

0647

41672

0687

41736

06C7

41800

0707

41864

0747

41928

0787

41992

07C7


Start/stop switch CH1

41545

0608

41609

0648

41673

0688

41737

06C8

41801

0708

41865

0748

41929

0788

41993

07C8


Start/stop switch CH8

41552

060F

41616

064F

41680

068F

41744

06CF

41808

070F

41872

074F

41936

078F

42000

07CF


PID self-tuning start/stop switch CH1

41553

0610

41617

0650

41681

0690

41745

06D0

41809

0710

41873

0750

41937

0790

42001

07D0


PID self-tuning start/stop switch CH8

41560

0617

41624

0657

41688

0697

41752

06D7

41816

0717

41880

0757

41944

0797

42008

07D7

P CH1

41561

0618

41625

0658

41689

0698

41753

06D8

41817

0718

41881

0758

41945

0798

42009

07D8

I CH1

41562

0619

41626

0659

41690

0699

41754

06D9

41818

0719

41882

0759

41946

0799

42010

07D9

D CH1

41563

061A

41627

065A

41691

069A

41755

06DA

41819

071A

41883

075A

41947

079A

42011

07DA

P CH8

41582

062D

41646

066D

41710

06AD

41774

06ED

41838

072D

41902

076D

41966

07AD

42030

07ED

I CH8

41583

062E

41647

066E

41711

06AE

41775

06EE

41839

072E

41903

076E

41967

07AE

42031

07EE

D CH8

41584

062F

41648

066F

41712

06AF

41776

06EF

41840

072F

41904

076F

41968

07AF

42032

07EF


Control cycle CH1

41585

0630

41649

0670

41713

06B0

41777

06F0

41841

0730

41905

0770

41969

07B0

42033

07F0


Control cycle CH8

41592

0637

41656

0677

41720

06B7

41784

06F7

41848

0737

41912

0777

41976

07B7

42040

07F7


Bias CH1

41593

0638

41657

0678

41721

06B8

41785

06F8

41849

0738

41913

0778

41977

07B8

42041

07F8


Bias CH8

41600

063F

41664

067F

41728

06BF

41792

06FF

41856

073F

41920

077F

41984

07BF

42048

07FF


Remarks: ( 1 ) 9 #- 16 #The content of module channel parameters (parameter group 1 ) is the same as the definition method of 1# module channel parameters (parameter group 1 )


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module

1


User manual


1# module ( CH1-CH8) channel parameter (parameter group 2 ) address definition:


4-channel module address: CH1-CH4 CH5-CH8 is not used, 8-channel module address: CH1-CH8


Variable type


category


address


Parameter name


Setting (monitoring) range


initial value


state


unit


Decimal


Hexadecimal

WORD

RW

42049

0800


GainCH1

0.000-10.000

10.00

 

 

42050

0801


GainCH2

42051

0802


GainCH3

42052

0803


GainCH4

42053

0804


Gain CH5

42054

0805


Gain CH6

42055

0806


Gain CH7

42056

0807


Gain CH8

42057

0808


Sensor type CH1

0-8

PT:8


T C:0


0:K 1:J 2:T 3:E 4:N 5:B 6:R 7:S


8 : P T

 

42058

0809


Sensor type CH2

42059

080A


Sensor type CH3

42060

080B


Sensor type CH4

42061

080C


Sensor type CH5

42062

080D


Sensor type CH6

42063

080E


Sensor type CH7

42064

080F


Sensor type CH8

42065

0810


Control mode CH1

0-1

0


0: Heating 1: Cooling

 

42066

0811


Control mode CH2

42067

0812


Control mode CH3

42068

0813


Control mode CH4

42069

0814


Control mode CH5

42070

0815


Control mode CH6

42071

0816


Control mode CH7

42072

0817


Control mode CH8

42073

0818


CH1 reserved parameter 1

 

 


Not used

 

42074

0819


CH2 reserved parameter 1

42075

081A


CH3 reserved parameter 1

42076

081B


CH4 reserved parameter 1

42077

081C


CH5 reserved parameter 1

42078

081D


CH6 reserved parameter 1

42079

081E


CH7 reserved parameter 1

42080

081F


CH8 reserved parameter 1

42081

0820


CH1 reserved parameter 2

 

 

 
Not used

 

42082

0821


CH2 reserved parameter 2

42083

0822


CH3 reserved parameter 2

42084

0823


CH4 reserved parameter 2


address


Parameter name


Setting (monitoring) range


initial value


state


unit


Decimal


Hexadecimal

42085

0824


CH5 reserved parameter 2

 

 

 
Not used

 

42086

0825


CH6 reserved parameter 2

42087

0826


CH7 reserved parameter 2

42088

0827


CH8 reserved parameter 2

42089

0828


Output upper limit ( operated value ) CH1

0.0-100.0

100

 

%

42090

0829


Output upper limit ( operated value ) CH2

42091

082A


Output upper limit ( operated value ) CH3

42092

082B


Output upper limit ( operated value ) CH4

42093

082C


Output upper limit ( operated value ) CH5

42094

082D


Output upper limit ( operated value ) CH6

42095

082E


Output upper limit ( operated value ) CH7

42096

082F


Output upper limit ( operated value ) CH8

42097

0830


Control mode CH1

0-2

0


0: PID output 1: Fixed operating value output 2: ON/OFF output

 

42098

0831


Control mode CH2

42099

0832


Control mode CH3

42100

0833


Control mode CH4

42101

0834


Control mode CH5

42102

0835


Control mode CH6

42103

0836


Control mode CH7

42104

0837


Control mode CH8

42105

0838


Fixed operating value output CH1

0.0-100.0

0

 

%

42106

0839


Fixed operating value output CH2

42107

083A


Fixed operating value output CH3

42108

083B


Fixed operating value output CH4

42109

083C


Fixed operating value output CH5

42110

083D


Fixed operating value output CH6

42111

083E


Fixed operating value output CH7

42112

083F


Fixed operating value output CH8

1


User manual


2#-8# module (CH1-CH8) channel parameters (parameter group 2 ) address table:


Parameter name


Module 2 address


Module 3 address


Module 4 address


Module 5 address


Module 6 address


Module 7 address


Module 8 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


GainCH1

42113

0840

42177

0880

42241

08C0

42305

0900

42369

0940

42433

0980

42497

09C0


Gain CH8

42120

0847

42184

0887

42248

08C7

42312

0907

42376

0947

42440

0987

42504

09C7


Sensor type CH1

42121

0848

42185

0888

42249

08C8

42313

0908

42377

0948

42441

0988

42505

09C8


Sensor type CH8

42128

084F

42192

088F

42256

08CF

42320

090F

42384

094F

42448

098F

42512

09CF


Control mode CH1

42129

0850

42193

0890

42257

08D0

42321

0910

42385

0950

42449

0990

42513

09D0


Control mode CH8

42136

0857

42200

0897

42264

08D7

42328

0917

42392

0957

42456

0997

42520

09D7


CH1 reserved parameter 1

42137

0858

42201

0898

42265

08D8

42329

0918

42393

0958

42457

0998

42521

09D8


CH8 reserved parameter 1

42144

085F

42208

089F

42272

08DF

42336

091F

42400

095F

42464

099F

42528

09DF


CH1 reserved parameter 2

42145

0860

42209

08A0

42273

08E0

42337

0920

42401

0960

42465

09A0

42529

09E0


CH8 reserved parameter 2

42152

0867

42216

08A7

42280

08E7

42344

0927

42408

0967

42472

09A7

42536

09E7


Output upper limit ( operated value ) CH1

42153

0868

42217

08A8

42281

08E8

42345

0928

42409

0968

42473

09A8

42537

09E8


Output upper limit ( operated value ) CH8

42160

086F

42224

08AF

42288

08EF

42352

092F

42416

096F

42480

09AF

42544

09EF


Control mode CH1

42161

0870

42225

08B0

42289

08F0

42353

0930

42417

0970

42481

09B0

42545

09F0


Control mode CH8

42168

0877

42232

08B7

42296

08F7

42360

0937

42424

0977

42488

09B7

42552

09F7


Fixed operating value output CH1

42169

0878

42233

08B8

42297

08F8

42361

0938

42425

0978

42489

09B8

42553

09F8

 


Fixed operating value output CH8

42176

087F

42240

08BF

42304

08FF

42368

093F

42432

097F

42496

09BF

42560

09FF


Remarks: ( 1 ) The content of the 2#-8# module parameters (parameter group 2 ) is the same as the definition method of the 1# module parameters (parameter group 2 ).


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module

1


User manual


9 #- 16 # module (CH1-CH8) channel parameters (parameter group 2 ) address table:


Parameter name


Module 9 Address


Module 10 address


Module 11 address


Module 12 address


Module 13 address


Module 14 address


Module 15 address


Module 16 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


GainCH1

42561

0A00

42625

0A40

42689

0A80

42753

0AC0

42817

0B00

42881

0B40

42945

0B80

43009

0BC0


Gain CH8

42568

0A07

42632

0A47

42696

0A87

42760

0AC7

42824

0B07

42888

0B47

42952

0B87

43016

0BC7


Sensor type CH1

42569

0A08

42633

0A48

42697

0A88

42761

0AC8

42825

0B08

42889

0B48

42953

0B88

43017

0BC8


Sensor type CH8

42576

0A0F

42640

0A4F

42704

0A8F

42768

0ACF

42832

0B0F

42896

0B4F

42960

0B8F

43024

0BCF


Control mode CH1

42577

0A10

42641

0A50

42705

0A90

42769

0AD0

42833

0B10

42897

0B50

42961

0B90

43025

0BD0


Control mode CH8

42584

0A17

42648

0A57

42712

0A97

42776

0AD7

42840

0B17

42904

0B57

42968

0B97

43032

0BD7


CH1 reserved parameter 1

42585

0A18

42649

0A58

42713

0A98

42777

0AD8

42841

0B18

42905

0B58

42969

0B98

43033

0BD8


CH8 reserved parameter 1

42592

0A1F

42656

0A5F

42720

0A9F

42784

0ADF

42848

0B1F

42912

0B5F

42976

0B9F

43040

0BDF


CH1 reserved parameter 2

42593

0A20

42657

0A60

42721

0AA0

42785

0AE0

42849

0B20

42913

0B60

42977

0BA0

43041

0BE0


CH8 reserved parameter 2

42600

0A27

42664

0A67

42728

0AA7

42792

0AE7

42856

0B27

42920

0B67

42984

0BA7

43048

0BE7


Output upper limit ( operated value ) CH1

42601

0A28

42665

0A68

42729

0AA8

42793

0AE8

42857

0B28

42921

0B68

42985

0BA8

43049

0BE8


Output upper limit ( operated value ) CH8

42608

0A2F

42672

0A6F

42736

0AAF

42800

0AEF

42864

0B2F

42928

0B6F

42992

0BAF

43056

0BEF


Control mode CH1

42609

0A30

42673

0A70

42737

0AB0

42801

0AF0

42865

0B30

42929

0B70

42993

0BB0

43057

0BF0


Control mode CH8

42616

0A37

42680

0A77

42744

0AB7

42808

0AF7

42872

0B37

42936

0B77

43000

0BB7

43064

0BF7


Fixed operating value output CH1

42617

0A38

42681

0A78

42745

0AB8

42809

0AF8

42873

0B38

42937

0B78

43001

0BB8

43065

0BF8

 


Fixed operating value output CH8

42624

0A3F

42688

0A7F

42752

0ABF

42816

0AFF

42880

0B3F

42944

0B7F

43008

0BBF

43072

0BFF


Remarks: ( 1 ) 9 #- 16 #The content of module parameters (parameter group 2 ) is the same as the definition method of 1# module parameters (parameter group 2 ).


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module

1


User manual


1# module ( CH1-CH8) channel parameters (parameter group 3 ) address definition :


4-channel module address: CH1-CH4 CH5-CH8 is not used, 8-channel module address: CH1-CH8


Variable type


category


address


Parameter name


Setting (monitoring) range


initial value


state


unit


Decimal


Hexadecimal

43089

0C10


Filter factor CH1

0-30

3

43090

0C11


Filter factor CH2

43091

0C12


Filter factor CH3

43092

0C13


Filter factor CH4

43093

0C14


Filter factor CH5

43094

0C15


Filter factor CH6

43095

0C16


Filter factor CH7

43096

0C17


Filter factor CH8


2#-8# module (CH1-CH8) channel parameters (parameter group 3 ) address table:


Parameter name


Module 2 address


Module 3 address


Module 4 address


Module 5 address


Module 6 address


Module 7 address


Module 8 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Filter factor CH1

43153

0C50

43217

0C90

43281

0CD0

43345

0D10

43409

0D50

43473

0D90

43537

0DD0


Filter factor CH8

43160

0C57

43224

0C97

43288

0CD7

43352

0D17

43416

0D57

43480

0D97

43544

0DD7


Remarks: ( 1 ) The content of the 2#-8# module parameters (parameter group 3 ) is the same as the definition method of the 1# module parameters (parameter group 3 ).


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module


9 #- 16 # module (CH1-CH8) channel parameters (parameter group 3 ) address table:


Parameter name


Module 9 address


Module 10 address


Module 1 1 address


Module 12 address


Module 13 address


Module 14 address


Module 15 address


Module 16 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Decimal


Hexadecimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Filter factor CH1

43601

0E10

43665

0E50

43729

0E90

43793

0ED0

43857

0F10

43921

0F50

43985

0F90

44049

0FD0


Filter factor CH8

43608

0E17

43672

0E57

43736

0E97

43800

0ED7

43864

0F17

43928

0F57

43992

0F97

44056

0FD7


Remarks: ( 1 ) 9 #- 16 # The content of module parameters (parameter group 3 ) is the same as the definition method of 1# module parameters (parameter group 3 ).


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module

1


User manual


1# module (CH1-CH8) channel parameter (parameter group 5) address definition:


4-channel module address: CH1-CH4 CH5-CH8 is not used, 8-channel module address: CH1-CH8


Variable type


category


address


Parameter name


Settings (monitoring)


initial value


state


unit


Decimal


Hexadecimal


scope

WORD

RW

45121

1400


Alarm 1 - Alarm Mode CH1

0-6

0


0. No alarm


1. Upper limit of deviation


2.Lower limit of deviation


3.Deviation upper/lower limit


4. Absolute upper limit


5.Lower limit of absolute value


6. Absolute value upper/lower limit

 

45122

1401


Alarm 1 - Alarm Mode CH2

45123

1402


Alarm 1 - Alarm Mode CH3

45124

1403


Alarm 1 - Alarm Mode CH4

45125

1404


Alarm 1 - Alarm Mode CH5

45126

1405


Alarm 1 - Alarm Mode CH6

45127

1406


Alarm 1 - Alarm Mode CH7

45128

1407


Alarm 1 - Alarm Mode CH8

45129

1408


Alarm 1 - Alarm function CH1

0-3

0


0.Normal mode


1.Standby


2.Reverse


3. keep

 

45130

1409


Alarm 1 - Alarm function CH2

45131

140A


Alarm 1 - Alarm function CH3

45132

140B


Alarm 1 - Alarm function CH4

45133

140C


Alarm 1 - Alarm Function CH5

45134

140D


Alarm 1 - Alarm Function CH6

45135

140E


Alarm 1 - Alarm Function CH7

45136

140F


Alarm 1 - Alarm Function CH8

45137

1410


Alarm 1- Alarm delay CH1

0-100

0


0: Alarm delay is invalid 1-100s

S

45138

1411


Alarm 1- Alarm delay CH2

45139

1412


Alarm 1- Alarm delay CH3

45140

1413


Alarm 1- Alarm delay CH4

45141

1414


Alarm 1- Alarm delay CH5

45142

1415


Alarm 1- Alarm delay CH6

45143

1416


Alarm 1- Alarm delay CH7

45144

1417


Alarm 1- Alarm delay CH8

45145

1418


Alarm 1- Alarm upper limit CH1

-300.0~3000.0

0

 

45146

1419


Alarm 1- Alarm upper limit CH2

45147

141A


Alarm 1- Alarm upper limit CH3

45148

141B


Alarm 1- Alarm upper limit CH4

45149

141C


Alarm 1- Alarm upper limit CH5

45150

141D


Alarm 1- Alarm upper limit CH6

45151

141E


Alarm 1- Alarm upper limit CH7

45152

141F


Alarm 1- Alarm upper limit CH8

45153

1420


Alarm 1- alarm lower limit CH1

-300.0~3000.0

0

 

45154

1421


Alarm 1- Alarm lower limit CH2

45155

1422


Alarm 1- alarm lower limit CH3

45156

1423


Alarm 1- alarm lower limit CH4


address


Parameter name


Settings (monitoring)


initial value


state


unit


Decimal


Hexadecimal


scope

45157

1424


Alarm 1- alarm lower limit CH5

 

 

 

 

45158

1425


Alarm 1- Alarm lower limit CH6

45159

1426


Alarm 1- Alarm lower limit CH7

45160

1427


Alarm 1- alarm lower limit CH8

45161

1428


Alarm 2 - Alarm Mode CH1

0-6

0


0. No alarm


1. Upper limit of deviation


2.Lower limit of deviation


3.Deviation upper/lower limit


4. Absolute upper limit


5.Lower limit of absolute value


6. Absolute value upper/lower limit

 

45162

1429


Alarm 2 - Alarm Mode CH2

45163

142A


Alarm 2 - Alarm Mode CH3

45164

142B


Alarm 2 - Alarm Mode CH4

45165

142C


Alarm 2 - Alarm Mode CH5

45166

142D


Alarm 2 - Alarm Mode CH6

45167

142E


Alarm 2 - Alarm Mode CH7

45168

142F


Alarm 2 - Alarm Mode CH8

45169

1430


Alarm 2 - Alarm function CH1

0-3

0


0.Normal mode


1.Standby


2.Reverse


3. keep

 

45170

1431


Alarm 2 - Alarm function CH2

45171

1432


Alarm 2 - Alarm function CH3

45172

1433


Alarm 2 - Alarm Function CH4

45173

1434


Alarm 2 - Alarm Function CH5

45174

1435


Alarm 2 - Alarm Function CH6

45175

1436


Alarm 2 - Alarm Function CH7

45176

1437


Alarm 2 - Alarm Function CH8

45177

1438


Alarm 2- Alarm delay CH1

0-100

0


0: Alarm delay is invalid 1-100s

S

45178

1439


Alarm 2- Alarm delay CH2

45179

143A


Alarm 2- Alarm delay CH3

45180

143B


Alarm 2- Alarm delay CH4

45181

143C


Alarm 2- Alarm delay CH5

45182

143D


Alarm 2- Alarm delay CH6

45183

143E


Alarm 2- Alarm delay CH7

45184

143F


Alarm 2- Alarm delay CH8

1


User manual


2#-8# module (CH1-CH8) channel parameters (parameter group 5 ) address table:


Parameter name


Module 2 address


Module 3 address


Module 4 address


Module 5 address


Module 6 address


Module 7 address


Module 8 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Alarm 1 Alarm Mode CH1

45185

1440

45249

1480

45313

14C0

45377

1500

45441

1540

45505

1580

45569

15C0


Alarm 1 - Alarm Mode CH 8

45192

1447

45256

1487

45320

14C7

45384

1507

45448

1547

45512

1587

45576

15C7


Alarm 1 Alarm function CH1

45193

1448

45257

1488

45321

14C8

45385

1508

45449

1548

45513

1588

45577

15C8


Alarm 1 - Alarm function CH 8

45200

144F

45264

148F

45328

14CF

45392

150F

45456

154F

45520

158F

45584

15CF


Alarm 1 - Alarm Delay CH1

45201

1450

45265

1490

45329

14D0

45393

1510

45457

1550

45521

1590

45585

15D0


Alarm 1 - Alarm Delay CH 8

45208

1457

45272

1497

45336

14D7

45400

1517

45464

1557

45528

1597

45592

15D7


Alarm 1 - Alarm upper limit CH1

45209

1458

45273

1498

45337

14D8

45401

1518

45465

1558

45529

1598

45593

15D8


Alarm 1 Alarm High Limit CH 8

45216

145F

45280

149F

45344

14DF

45408

151F

45472

155F

45536

159F

45600

15DF


Alarm 1 - Alarm lower limit CH1

45217

1460

45281

14A0

45345

14E0

45409

1520

45473

1560

45537

15A0

45601

15E0


Alarm 1 - Alarm lower limit CH 8

45224

1467

45288

14A7

45352

14E7

45416

1527

45480

1567

45544

15A7

45608

15E7


Alarm 2 - Alarm Mode CH1

45225

1468

45289

14A8

45353

14E8

45417

1528

45481

1568

45545

15A8

45609

15E8


Alarm 2 - Alarm Mode CH 8

45232

146F

45296

14AF

45360

14EF

45424

152F

45488

156F

45552

15AF

45616

15EF


Alarm 2 - Alarm function CH1

45233

1470

45297

14B0

45361

14F0

45425

1530

45489

1570

45553

15B0

45617

15F0


Alarm 2 - Alarm function CH 8

45240

1477

45304

14B7

45368

14F7

45432

1537

45496

1577

45560

15B7

45624

15F7


Alarm 2 - Alarm Delay CH1

45241

1478

45305

14B8

45369

14F8

45433

1538

45497

1578

45561

15B8

45625

15F8


Alarm 2 - Alarm Delay CH 8

45248

147F

45312

14BF

45376

14FF

45440

153F

45504

157F

45568

15BF

45632

15FF


Remarks: ( 1 ) The content of the 2#-8# module channel parameters (parameter group 5 ) is the same as the definition method of the 1# module channel parameters (parameter group 5 )


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module

1


User manual


9 #- 16 # module (CH1-CH8) channel parameters (parameter group 5 ) address table:


Parameter name


Module 9 Address


Module 10 address


Module 11 address


Module 12 address


Module 13 address


Module 14 address


Module 15 address


Module 16 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Decimal


Hexadecimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Alarm 1 Alarm Mode CH1

45633

1600

45697

1640

45761

1680

45825

16C0

45889

1700

45953

1740

46017

1780

46081

17C0


Alarm 1 - Alarm Mode CH 8

45640

1607

45704

1647

45768

1687

45832

16C7

45896

1707

45960

1747

46024

1787

46088

17C7


Alarm 1 Alarm function CH1

45641

1608

45705

1648

45769

1688

45833

16C8

45897

1708

45961

1748

46025

1788

46089

17C8


Alarm 1 - Alarm function CH 8

45648

160F

45712

164F

45776

168F

45840

16CF

45904

170F

45968

174F

46032

178F

46096

17CF


Alarm 1 - Alarm Delay CH1

45649

1610

45713

1650

45777

1690

45841

16D0

45905

1710

45969

1750

46033

1790

46097

17D0


Alarm 1 - Alarm Delay CH 8

45656

1617

45720

1657

45784

1697

45848

16D7

45912

1717

45976

1757

46040

1797

46104

17D7


Alarm 1 - Alarm upper limit CH1

45657

1618

45721

1658

45785

1698

45849

16D8

45913

1718

45977

1758

46041

1798

46105

17D8


Alarm 1 Alarm High Limit CH 8

45664

161F

45728

165F

45792

169F

45856

16DF

45920

171F

45984

175F

46048

179F

46112

17DF


Alarm 1 - Alarm lower limit CH1

45665

1620

45729

1660

45793

16A0

45857

16E0

45921

1720

45985

1760

46049

17A0

46113

17E0


Alarm 1 - Alarm lower limit CH 8

45672

1627

45736

1667

45800

16A7

45864

16E7

45928

1727

45992

1767

46056

17A7

46120

17E7


Alarm 2 - Alarm Mode CH1

45673

1628

45737

1668

45801

16A8

45865

16E8

45929

1728

45993

1768

46057

17A8

46121

17E8


Alarm 2 - Alarm Mode CH 8

45680

162F

45744

166F

45808

16AF

45872

16EF

45936

172F

46000

176F

46064

17AF

46128

17EF


Alarm 2 - Alarm function CH1

45681

1630

45745

1670

45809

16B0

45873

16F0

45937

1730

46001

1770

46065

17B0

46129

17F0


Alarm 2 - Alarm function CH 8

45688

1637

45752

1677

45816

16B7

45880

16F7

45944

1737

46008

1777

46072

17B7

46136

17F7


Alarm 2 - Alarm Delay CH1

45689

1638

45753

1678

45817

16B8

45881

16F8

45945

1738

46009

1778

46073

17B8

46137

17F8


Alarm 2 - Alarm Delay CH 8

45696

163F

45760

167F

45824

16BF

45888

16FF

45952

173F

46016

177F

46080

17BF

46144

17FF


Remarks: ( 1 ) 9 #- 16 #The content of module channel parameters (parameter group 5 ) is the same as the definition method of 1# module channel parameters (parameter group 5 )


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module

1


User manual


1# module ( CH1-CH8) channel parameters (parameter group 6 ) address definition :


4-channel module address: CH1-CH4 CH5-CH8 is not used, 8-channel module address: CH1-CH8


Variable type


category


address


Parameter name


Settings (monitoring)


initial value


state


unit


Decimal


Hexadecimal


scope

WORD

RW

46145

1800


Alarm 2 Alarm Upper Limit CH1

-300.0~3000.0

0

 

46146

1801


Alarm 2 Alarm upper limit CH2

46147

1802


Alarm 2 Alarm upper limit CH3

46148

1803


Alarm 2 Alarm Upper Limit CH4

46149

1804


Alarm 2 Alarm Upper Limit CH5

46150

1805


Alarm 2 - Alarm Upper Limit CH6

46151

1806


Alarm 2 Alarm Upper Limit CH7

46152

1807


Alarm 2 Alarm Upper Limit CH8

46153

1808


Alarm 2 - Alarm lower limit CH1

-300.0~3000.0

0

 

46154

1809


Alarm 2 - Alarm lower limit CH2

46155

180A


Alarm 2 - Alarm lower limit CH3

46156

180B


Alarm 2 - Alarm lower limit CH4

46157

180C


Alarm 2 - Alarm lower limit CH5

46158

180D


Alarm 2 - Alarm lower limit CH6

46159

180E


Alarm 2 - Alarm lower limit CH7

46160

180F


Alarm 2 - Alarm lower limit CH8

46161

1810


reserved

 

 

 

 

46162

1811


reserved

46163

1812


reserved

46164

1813


reserved

46165

1814


reserved

46166

1815


reserved

46167

1816


reserved

46168

1817


reserved

46169

1818


Ramp up slope CH1

0-32000

0

 

 

46170

1819


Ramp up slope CH2

46171

181A


Ramp up slope CH3

46172

181B


Ramp up slope CH4

46173

181C


Ramp up slope CH5

46174

181D


Ramp up slope CH6

46175

181E


Ramp up slope CH7

46176

181F


Ramp up slope CH8

46177

1820


Ramp down slope CH1

0-32000

0

 

 

46178

1821


Ramp down slope CH2

46179

1822


Ramp down slope CH3

46180

1823


Ramp down slope CH4

46181

1824


Ramp down slope CH5

46182

1825


Ramp down slope CH6

46183

1826


Ramp down slope CH7

46184

1827


Ramp down slope CH8


Variable type


category


address


Parameter name


Settings (monitoring)


initial value


state


unit


Decimal


Hexadecimal


scope

WORD

RW

46185

1828


Ramp unit CH1


0:1 second 1:1 minute 2:1 hour

0

 

 

46186

1829


Ramp unit CH2

46187

182A


Ramp unit CH3

46188

182B


Ramp unit CH4

46189

182C


Ramp unit CH5

46190

182D


Ramp unit CH6

46191

182E


Ramp unit CH7

46192

182F


Ramp unit CH8

46193

1830


Output abnormality detection time CH1

0-32000

0

 

 

46194

1831


Output abnormality detection time CH2

46195

1832


Output abnormality detection time CH3

46196

1833


Output abnormality detection time CH4

46197

1834


Output abnormality detection time CH5

46198

1835


Output abnormality detection time CH6

46199

1836


Output abnormality detection time CH7

46200

1837


Output abnormality detection time CH8


Note: Output abnormality detection time, this parameter is for output disconnection detection

1


User manual


2#-8# module (CH1-CH8) channel parameters (parameter group 6 ) address table:


Parameter name


Module 2 address


Module 3 address


Module 4 address


Module 5 address


Module 6 address


Module 7 address


Module 8 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Alarm 2- Alarm upper limit CH1

46209

1840

46273

1880

46337

18C0

46401

1900

46465

1940

46529

1980

46593

19C0


Alarm 2- Alarm upper limit CH8

46216

1847

46280

1887

46344

18C7

46408

1907

46472

1947

46536

1987

46600

19C7


Alarm 2- Alarm lower limit CH1

46217

1848

46281

1888

46345

18C8

46409

1908

46473

1948

46537

1988

46601

19C8


Alarm 2- Alarm lower limit CH8

46224

184F

46288

188F

46352

18CF

46416

190F

46480

194F

46544

198F

46608

19CF


Reserve 1

46225

1850

46289

1890

46353

18D0

46417

1910

46481

1950

46545

1990

46609

19D0


Reserve 8

46232

1857

46296

1897

46360

18D7

46424

1917

46488

1957

46552

1997

46616

19D7


Ramp up slope CH1

46233

1858

46297

1898

46361

18D8

46425

1918

46489

1958

46553

1998

46617

19D8


Ramp up slope CH8

46240

185F

46304

189F

46368

18DF

46432

191F

46496

195F

46560

199F

46624

19DF


Ramp down slope CH1

46241

1860

46305

18A0

46369

18E0

46433

1920

46497

1960

46561

19A0

46625

19E0


Ramp down slope CH8

46248

1867

46312

18A7

46376

18E7

46440

1927

46504

1967

46568

19A7

46632

19E7


Ramp unit CH1

46249

1868

46313

18A8

46377

18E8

46441

1928

46505

1968

46569

19A8

46633

19E8


Ramp unit CH8

46256

186F

46320

18AF

46384

18EF

46448

192F

46512

196F

46576

19AF

46640

19EF


Output abnormality detection time CH1

46257

1870

46321

18B0

46385

18F0

46449

1930

46513

1970

46577

19B0

46641

19F0


Output abnormality detection time CH8

46264

1877

46328

18B7

46392

18F7

46456

1937

46520

1977

46584

19B7

46648

19F7


Remarks: ( 1 ) The content of the 2#-8# module channel parameters (parameter group 6 ) is the same as the definition method of the 1# module channel parameters (parameter group 6 )


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module

1


User manual


9 #- 16 # module (CH1-CH8) channel parameters (parameter group 6 ) address table:


Parameter name


Module 9 Address


Module 10 address


Module 11 address


Module 12 address


Module 13 address


Module 14 address


Module 15 address


Module 16 address


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Alarm 2- Alarm upper limit CH1

46657

1A00

46721

1A40

46785

1A80

46849

1AC0

46913

1B00

46977

1B40

47041

1B80

47105

1BC0


Alarm 2- Alarm upper limit CH8

46664

1A07

46728

1A47

46792

1A87

46856

1AC7

46920

1B07

46984

1B47

47048

1B87

47112

1BC7


Alarm 2- Alarm lower limit CH1

46665

1A08

46729

1A48

46793

1A88

46857

1AC8

46921

1B08

46985

1B48

47049

1B88

47113

1BC8


Alarm 2- Alarm lower limit CH8

46672

1A0F

46736

1A4F

46800

1A8F

46864

1ACF

46928

1B0F

46992

1B4F

47056

1B8F

47120

1BCF


Reserve 1

46673

1A10

46737

1A50

46801

1A90

46865

1AD0

46929

1B10

46993

1B50

47057

1B90

47121

1BD0


Reserve 8

46680

1A17

46744

1A57

46808

1A97

46872

1AD7

46936

1B17

47000

1B57

47064

1B97

47128

1BD7


Ramp up slope CH1

46681

1A18

46745

1A58

46809

1A98

46873

1AD8

46937

1B18

47001

1B58

47065

1B98

47129

1BD8


Ramp up slope CH8

46688

1A1F

46752

1A5F

46816

1A9F

46880

1ADF

46944

1B1F

47008

1B5F

47072

1B9F

47136

1BDF


Ramp down slope CH1

46689

1A20

46753

1A60

46817

1AA0

46881

1AE0

46945

1B20

47009

1B60

47073

1BA0

47137

1BE0


Ramp down slope CH8

46696

1A27

46760

1A67

46824

1AA7

46888

1AE7

46952

1B27

47016

1B67

47080

1BA7

47144

1BE7


Ramp unit CH1

46697

1A28

46761

1A68

46825

1AA8

46889

1AE8

46953

1B28

47017

1B68

47081

1BA8

47145

1BE8


Ramp unit CH8

46704

1A2F

46768

1A6F

46832

1AAF

46896

1AEF

46960

1B2F

47024

1B6F

47088

1BAF

47152

1BEF


Output abnormality detection time CH1

46705

1A30

46769

1A70

46833

1AB0

46897

1AF0

46961

1B30

47025

1B70

47089

1BB0

47153

1BF0


Output abnormality detection time CH8

46712

1A37

46776

1A77

46840

1AB7

46904

1AF7

46968

1B37

47032

1B77

47096

1BB7

47160

1BF7


Remarks: ( 1 ) 9 #- 16 #The content of module channel parameters (parameter group 6 ) is the same as the definition method of 1# module channel parameters (parameter group 6 )


( 2 ) The address offset of each parameter between adjacent modules is 64.


( 3 ) Module decimal address formula = (module number -1 ) *64+1# The first address of each parameter of the module.

1


User manual


User-defined data area (parameter group 7 ) address table :


This address area is used to store mapped addresses. Please refer to Chapter 2-7-9 (Setting Address Mapping) for the steps and methods of setting address mapping .


The mapping area is from 0X1C00-0X1FF0 , with a total of 1024 addresses .

1


User manual


8-2-3-5 Register storage content (current temperature value)


Variable type: WORD Category: R ( read-only )


4- channel module address: CH1-CH4 CH5-CH8 is not used, 8- channel module address: CH1-CH8


Register number


CH1 (PV value)


CH2 (PV value)


CH3 (PV value)


CH4 (PV value)


CH5 (PV value)


CH6 (PV value)


CH7 (PV value)


CH8 (PV value)


module number


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal

1#

30001

0000

30002

0001

30003

0002

30004

0003

30005

0004

30006

0005

30007

0006

30008

0007

2#

30009

0008

30010

0009

30011

000A

30012

000B

30013

000C

30014

000D

30015

000E

30016

000F

3#

30017

0010

30018

0011

30019

0012

30020

0013

30021

0014

30022

0015

30023

0016

30024

0017

4#

30025

0018

30026

0019

30027

001A

30028

001B

30029

001C

30030

001D

30031

001E

30032

001F

5#

30033

0020

30034

0021

30035

0022

30036

0023

30037

0024

30038

0025

30039

0026

30040

0027

6#

30041

0028

30042

0029

30043

002A

30044

002B

30045

002C

30046

002D

30047

002E

30048

002F

7#

30049

0030

30050

0031

30051

0032

30052

0033

30053

0034

30054

0035

30055

0036

30056

0037

8#

30057

0038

30058

0039

30059

003A

30060

003B

30061

003C

30062

003D

30063

003E

30064

003F


Note: Select the function code to communicate with the host computer and read: [Function code: 04] Read the input register


9 #- 16 #Current temperature value (read-only) address table:


4- channel module address: CH1-CH4 CH5-CH8 is not used, 8- channel module address: CH1-CH8


Register number


CH1 (PV value)


CH2 (PV value)


CH3 (PV value)


CH4 (PV value)


CH5 (PV value)


CH6 (PV value)


CH7 (PV value)


CH8 (PV value)


module number


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


9 #

30065

0040

30066

0041

30067

0042

30068

0043

30069

0044

30070

0045

30071

0046

30072

0047


10 #

30073

0048

30074

0049

30075

004A

30076

004B

30077

004C

30078

004D

30079

004E

30080

004F


11 #

30081

0050

30082

0051

30083

0052

30084

0053

30085

0054

30086

0055

30087

0056

30088

0057


12 #

30089

0058

30090

0059

30091

005A

30092

005B

30093

005C

30094

005D

30095

005E

30096

005F


13 #

30097

0060

30098

0061

30099

0062

30100

0063

30101

0064

30102

0065

30103

0066

30104

0067


14 #

30105

0068

30106

0069

30107

006A

30108

006B

30109

006C

30110

006D

30111

006E

30112

006F


15 #

30113

0070

30114

0071

30115

0072

30116

0073

30117

0074

30118

0075

30119

0076

30120

0077


16 #

30121

0078

30122

0079

30123

007A

30124

007B

30125

007C

30126

007D

30127

007E

30128

007F

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User manual


8-2-3- 6 Register storage content (output operand )


Variable type: WORD Category: R ( read-only )


4- channel module address: CH1-CH4 CH5-CH8 is not used, 8- channel module address: CH1-CH8


Register number


CH1 (MV value)


CH2 (MV value)


CH3 (MV value)


CH4 (MV value)


CH5 (MV value)


CH6 (MV value)


CH7 (MV value)


CH8 (MV value)


module number


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal

1#

30129

0080

30130

0081

30131

0082

30132

0083

30133

0084

30134

0085

30135

0086

30136

0087

2#

30137

0088

30138

0089

30139

008A

30140

008B

30141

008C

30142

008D

30143

008E

30144

008F

3#

30145

0090

30146

0091

30147

0092

30148

0093

30149

0094

30150

0095

30151

0096

30152

0097

4#

30153

0098

30154

0099

30155

009A

30156

009B

30157

009C

30158

009D

30159

009E

30160

009F

5#

30161

00A0

30162

00A1

30163

00A2

30164

00A3

30165

00A4

30166

00A5

30167

00A6

30168

00A7

6#

30169

00A8

30170

00A9

30171

00AA

30172

00AB

30173

00AC

30174

00AD

30175

00AE

30176

00AF

7#

30177

00B0

30178

00B1

30179

00B2

30180

00B3

30181

00B4

30182

00B5

30183

00B6

30184

00B7

8#

30185

00B8

30186

00B9

30187

00BA

30188

00BB

30189

00BC

30190

00BD

30191

00BE

30192

00BF


9 #- 16 #Output operation volume (read - only) address table:


4- channel module address: CH1-CH4 CH5-CH8 is not used, 8- channel module address: CH1-CH8


Register number


CH1 (MV value)


CH2 (MV value)


CH3 (MV value)


CH4 (MV value)


CH5 (MV value)


CH6 (MV value)


CH7 (MV value)


CH8 (MV value)


module number


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


9 #

30193

00C0

30194

00C1

30195

00C2

30196

00C3

30197

00C4

30198

00C5

30199

00C6

30200

00C7


10 #

30201

00C8

30202

00C9

30203

00CA

30204

00CB

30205

00CC

30206

00CD

30207

00CE

30208

00CF


11 #

30209

00D0

30210

00D1

30211

00D2

30212

00D3

30213

00D4

30214

00D5

30215

00D6

30216

00D7


12 #

30217

00D8

30218

00D9

30219

00DA

30220

00DB

30221

00DC

30222

00DD

30223

00DE

30224

00DF


13 #

30225

00E0

30226

00E1

30227

00E2

30228

00E3

30229

00E4

30230

00E5

30231

00E6

30232

00E7


14 #

30233

00E8

30234

00E9

30235

00EA

30236

00EB

30237

00EC

30238

00ED

30239

00EE

30240

00EF


15 #

30241

00F0

30242

00F1

30243

00F2

30244

00F3

30245

00F4

30246

00F5

30247

00F6

30248

00F7


16 #

30249

00F8

30250

00F9

30251

00FA

30252

00FB

30253

00FC

30254

00FD

30255

00FE

30256

00FF


Note: To communicate with the host computer and read the function code: [ Function code: 0 4 ] Read the input register

1


User manual


8-2-3- 7 Input register storage content (others)


1# module system parameter (read-only) definition table :


Variable type


category


address


Parameter name


data range


initial value


state


unit

 

 


Decimal


Hexadecimal

 

 

 

 

 

WORD

R

31025

0400


1# module failure

0-1

 


0: No alarm


1: Sensor abnormality

 

31041

0410


1# module fault subcode

0~255

bit0~bit7: channel 0~channel 7

 


0: No fault


1: Failure

 

31057

0420


1# module alarm

0~65535

bit0~bit7: Alarm 1-channel 0~channel 7


Bit8~bit15: Alarm 2-channel 0~channel 7

 


0: No fault


1: Failure

 

38193

2000


1# module serial number

0-255

 


1:PT


2:TC

 

38209

2010


1# module ROM number

0-9999

 

 

 

38225

2020


1# module Build number

0-9999

 

 

 

38241

2030


1# channel number

4,8

 


4: 4-channel module


8: 8-channel module

 


Communicate with the host computer and read the function code selection: [ Function code: 0 4 ] Read the input register

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User manual


2#-8# system parameter (read-only) address table:


Register number


module number


2# module


3# module


4# module


5# module


6# module


7# module


8# module


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Fault

31026

0401

31027

0402

31028

0403

31029

0404

31030

0405

31031

0406

31032

0407


Fault subcode

31042

0411

31043

0412

31044

0413

31045

0414

31046

0415

31047

0416

31048

0417


alarm

31058

0421

31059

0422

31060

0423

31061

0424

31062

0425

31063

0426

31064

0427


serial number

38194

2001

38195

2002

38196

2003

38197

2004

38198

2005

38199

2006

38200

2007


ROM number

38210

2011

38211

2012

38212

2013

38213

2014

38214

2015

38215

2016

38216

2017


Build number

38226

2021

38227

2022

38228

2023

38229

2024

38230

2025

38231

2026

38232

2027


Number of channels

38242

2031

38243

2032

38244

2033

38245

2034

38246

2035

38247

2036

38248

2037


Remarks: ( 1 ) The content of the 2#-8# module system parameters is the same as the 1# module parameter definition method.


9 #- 16 #System parameters (read-only) address table:


Register number


module number


9 #module


10 #module


11 #module


12 #module


13 #module


14 #module


15 #module


1 6# module


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Fault

31033

0408

31034

0409

31035

040A

31036

040B

31037

040C

31038

040D

31039

040E

31040

040F


Fault subcode

31049

0418

31050

0419

31051

041A

31052

041B

31053

041C

31054

041D

31055

041E

31056

041F


alarm

31065

0428

31066

0429

31067

042A

31068

042B

31069

042C

31070

042D

31071

042E

31072

042F


serial number

38201

2008

38202

2009

38203

200A

38204

200B

38205

200C

38206

200D

38207

200E

38208

200F


ROM number

38217

2018

38218

2019

38219

201A

38220

201B

38221

201C

38222

201D

38223

201E

38224

201F


Build number

38233

2028

38234

2029

38235

202A

38236

202B

38237

202C

38238

202D

38239

202E

38240

202F


Number of channels

38249

2038

38250

2039

38251

203A

38252

203B

38253

203C

38254

203D

38255

203E

38256

203F

1


User manual


8-3 Appendix 3 : " XD1N-ET8000 and Delta touch screen communication case"


8-3-1 RS 485 communication


1.Hardware configuration:


serial number


name


model


quantity


Remark

1


Temperature control module

XD1N-ET8000

1

2


touchscreen

DOP-B107BV

1

3


communication cable


Customize

1


self made


Communication connection cable production method:


2. Default communication format of XD1N-ET8000 module:


Baud rate: 115200 , stop bit: 2 bits, data bits: 8 bits, parity mode: even parity


2. Touch screen communication format setting:


After preparing the hardware, follow these steps:


1. Power on the DOP-B107BV touch screen, use the touch screen DOPSoft software to set the touch screen communication port (COM2)


RS485 communication data format ( setting content: based on the communication format of XD1N-ET8000 ), as shown in the figure :

1


User manual


Touch screen screen production:


(For the detailed address of the temperature control module, please refer to: "Chapter 8 Appendix" - "8-2 Appendix 2 Register Parameter List"


In this example, the touch screen address uses decimal addressing.


The screen of the temperature value of other channels is produced according to the following address.


Current temperature value of the second channel ( CH2 ): {Link3}1@W30002


Current temperature value of the third channel ( CH3 ): {Link3}1@W30003


Current temperature value of the fourth channel ( CH4 ): {Link3}1@W30004


The current temperature value of the fifth channel ( CH5 ): {Link3}1@W30005


Current temperature value of the sixth channel ( CH6 ): {Link3}1@W30006


Current temperature value of the seventh channel ( CH7 ): {Link3}1@W30007


Current temperature value of the eighth channel ( CH8 ): {Link3}1@W30008


( 2 ) . CH1-PID setting value


In the touch screen DOPSoft software, insert the component [numeric input] and set the memory address and location.


The address is as follows:


CH1: P value

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User manual


CH1 : I value


CH1 : D value


The PID value screen of other channels is made according to the following table:


CH1-CH8 PID addresses are as follows:


Channel number

P

I

D

CH1

{Link3}1@W41049

{Link3}1@W41050

{Link3}1@W41051

CH2

{Link3}1@W41052

{Link3}1@W41053

{Link3}1@W41054

CH3

{Link3}1@W41055

{Link3}1@W41056

{Link3}1@W41057

CH4

{Link3}1@W41058

{Link3}1@W41059

{Link3}1@W41060

CH5

{Link3}1@W41061

{Link3}1@W41062

{Link3}1@W41063

CH6

{Link3}1@W41064

{Link3}1@W41065

{Link3}1@W41066

CH7

{Link3}1@W41067

{Link3}1@W41068

{Link3}1@W41069

CH8

{Link3}1@W41070

{Link3}1@W41071

{Link3}1@W41072

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User manual


( 3 ) . First channel ( CH2 ) temperature set value ( SV )


In the touch screen DOPSoft software, insert the component [numeric input] and set the memory address and location.


The address is as follows:


The screen of the temperature setting value of other channels is created according to the following address.


Second channel ( CH2 ) temperature setting value: {Link3}1@W41026


The third channel ( CH3 ) temperature setting value: {Link3}1@W41027


The fourth channel ( CH4 ) temperature setting value: {Link3}1@W41028


Fifth channel ( CH5 ) temperature setting value: {Link3}1@W41029


Sixth channel ( CH6 ) temperature setting value: {Link3}1@W41030


The seventh channel ( CH7 ) temperature setting value: {Link3}1@W41031


Eighth channel ( CH8 ) temperature setting value: {Link3}1@W41032

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User manual


( 4 ) . First channel ( CH1 ) start / stop switch


In the touch screen DOPSoft software, insert the button component: [Alternate type component], set the memory address, location


The address is as follows:


The pictures of other channel heating switches are made according to the following address.


Second channel ( CH2 ) start / stop switch: {Link3}1@W41034.0


Third channel ( CH3 ) start / stop switch: {Link3}1@W41035.0


Channel 4 ( CH4 ) start / stop switch: {Link3}1@W41036.0


Fifth channel ( CH5 ) start / stop switch: {Link3}1@W41037.0


Channel 6 ( CH6 ) start / stop switch: {Link3}1@W41038.0


Channel 7 ( CH7 ) start / stop switch: {Link3}1@W41039.0


Eighth channel ( CH8 ) start / stop switch: {Link3}1@W41040.0

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User manual


( 5 ) . The first channel ( CH1 ) self-tuning start / stop switch


In the touch screen DOPSoft software, insert the button component: [Alternate type component], set the memory address, location


The address is as follows:


The screen of the self-tuning switch of other channels is made according to the following address.


Second channel self-tuning start / stop switch: {Link3}1@W41042.0


Third channel auto-tuning start / stop switch: {Link3}1@W41043.0


Fourth channel self-tuning start / stop switch: {Link3}1@W41044.0


Fifth channel auto-tuning start / stop switch: {Link3}1@W41045.0


Sixth channel auto-tuning start / stop switch: {Link3}1@W41046.0


The seventh channel’s self-tuning start / stop switch: {Link3}1@W41047.0


Eighth channel self-tuning start / stop switch: {Link3}1@W41048.0

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User manual


8-3-2 Ethernet communication


1.Hardware configuration:


serial number


name


model


quantity


Remark

1


Temperature control module

XD1N-ET8000

1

2


touchscreen

DOP-110IS

1

3


communication cable

1


self made


XD1N-ET8000 module default communication address:


IP address: 192.168.0.3 Port number: 1024


2. Touch screen communication format setting:


After preparing the hardware, follow these steps:


1. Power on the DOP-110IS touch screen and use the touch screen DOPSoft software to set the touch screen communication Ethernet port.


Communication data format ( setting content: based on the communication format of XD1N-ET8000 ), as shown in the figure:

1


User manual


3. Touch screen screen production:


(For the detailed address of the temperature control module, please refer to: "Chapter 8 Appendix" - "8-2 Appendix 2 Register Parameter List"


In this example, the touch screen address uses hexadecimal addressing.


( 1 ) . Read the current value of the first channel ( CH1 ) temperature :


In the touch screen DOPSoft software, insert the component [numeric display] and set the read memory address.


As shown below:


The screen of the temperature value of other channels is produced according to the following address.


The current temperature value of the second channel ( CH2 ): {Link2}1@R-1


Current temperature value of the third channel ( CH3 ): {Link2}1@R-2


Current temperature value of the fourth channel ( CH4 ): {Link2}1@R-3


The current temperature value of the fifth channel ( CH5 ): {Link2}1@R-4


Current temperature value of the sixth channel ( CH6 ): {Link2}1@R-5


Current temperature value of the seventh channel ( CH7 ): {Link2}1@R-6


Current temperature value of the eighth channel ( CH8 ): {Link2}1@R-7


( 2 ) . CH1-PID setting value


In the touch screen DOPSoft software, insert the component [numeric input] and set the memory address and location.


The address is as follows:


CH1 : P value

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User manual


CH1: I value


CH1 : D value


The PID value screen of other channels is made according to the following table:


CH1-CH8 PID addresses are as follows:


Channel number

P

I

D

CH1

{Link2}1@RW-418

{Link2}1@RW-419

{Link2}1@RW-41A

CH2

{Link2}1@RW-41B

{Link2}1@RW-41C

{Link2}1@RW-41D

CH3

{Link2}1@RW-41E

{Link2}1@RW-41F

{Link2}1@RW-420

CH4

{Link2}1@RW-421

{Link2}1@RW-422

{Link2}1@RW-423

CH5

{Link2}1@RW-424

{Link2}1@RW-425

{Link2}1@RW-426

CH6

{Link2}1@RW-427

{Link2}1@RW-428

{Link2}1@RW-429

CH7

{Link2}1@RW-42A

{Link2}1@RW-42B

{Link2}1@RW-42C

CH8

{Link2}1@RW-42D

{Link2}1@RW-42E

{Link2}1@RW-42F

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User manual


( 3 ) . First channel ( CH1 ) temperature set value ( SV )


In the touch screen DOPSoft software, insert the component [numeric input] and set the memory address and location.


The address is as follows:


The screen of the temperature setting value of other channels is created according to the following address.


Second channel ( CH2 ) temperature setting value: {Link2}1@RW-401


The third channel ( CH3 ) temperature setting value: {Link2}1@RW-402


The fourth channel ( CH4 ) temperature setting value: {Link2}1@RW-403


Fifth channel ( CH5 ) temperature setting value: {Link2}1@RW-404


The sixth channel ( CH6 ) temperature setting value: {Link2}1@RW-405


The seventh channel ( CH7 ) temperature setting value: {Link2}1@RW-406


Eighth channel ( CH8 ) temperature setting value: {Link2}1@RW-407

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User manual


( 4 ) . First channel ( CH1 ) start / stop switch


In the touch screen DOPSoft software, insert the button component: [Alternate type component], set the memory address, location


The address is as follows:


The pictures of other channel heating switches are made according to the following address.


Second channel ( CH2 ) start / stop switch: {Link2}1@RW-409.0


Third channel ( CH3 ) start / stop switch: {Link2}1@RW-40A.0


Fourth channel ( CH4 ) start / stop switch: {Link2}1@RW-40B.0


Fifth channel ( CH5 ) start / stop switch: {Link2}1@RW-40C.0


Channel 6 ( CH6 ) start / stop switch: {Link2}1@RW-40D.0


Channel 7 ( CH7 ) start / stop switch: {Link2}1@RW-40E.0


Eighth channel ( CH8 ) start / stop switch: {Link2}1@RW-40F.0

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User manual


( 5 ) . The first channel ( CH1 ) self-tuning start / stop switch


In the touch screen DOPSoft software, insert the button component: [Alternate type component], set the memory address, location


The address is as follows:


The screen of the self-tuning switch of other channels is made according to the following address.


Second channel ( CH2 ) self-tuning start / stop switch: {Link2}1@RW-411.0


The third channel ( CH3 ) self-tuning start / stop switch: {Link2}1@RW-412.0


The fourth channel ( CH4 ) self-tuning start / stop switch: {Link2}1@RW-413.0


Fifth channel ( CH5 ) self-tuning start / stop switch: {Link2}1@RW-414.0


The sixth channel ( CH6 ) self-tuning start / stop switch: {Link2}1@RW-415.0


Seventh channel ( CH7 ) self-tuning start / stop switch: {Link2}1@RW-416.0


Eighth channel ( CH8 ) self-tuning start / stop switch: {Link2}1@RW-417.0

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User manual


8-4 Appendix 4 : " Communication between XD1N-ET8000 and Delta PLC "


8-4-1 RS485 communication


1.Hardware configuration:


serial number


name


model


quantity


Remark

1


Temperature control module

XD1N-ET8000

1

2


Delta PLC

DVP32ES200T

1

3


communication cable


Customize

1


self made


Communication connection cable production method:


2. XD1N-ET8000 module communication format:


Baud rate: 115200 , stop bit: 2 bits, data bits: 8 bits, check mode: none station number: 1


2. Corresponding address of PLC- temperature control module: Please refer to Appendix 2 " 8-2-2 Register Parameter List" for the register address, and convert it into a relative address after looking up the table.


PLC address 1# module address


Current value (PV)


Set value (SV)


Start/stop switch


self-tuning switch


PLC address


1# temperature control module address


PLC address


1# temperature control module address


PLC address


1# temperature control module address


PLC address


1# temperature control module address


name


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal


Decimal


Hexadecimal

CH1

D50

K0

H0

D408

K1024

H400

D100

K1032

H408

D108

K1040

H410

CH2

D51

K1

H1

D409

K1025

H401

D101

K1033

H409

D109

K1041

H411

CH3

D52

K2

H2

D410

K1026

H402

D102

K1034

H40A

D110

K1042

H412

CH4

D53

K3

H3

D411

K1027

H403

D103

K1035

H40B

D111

K1043

H413

CH5

D54

K4

H4

D412

K1028

H404

D104

K1036

H40C

D112

K1044

H414

CH6

D55

K5

H5

D413

K1029

H405

D105

K1037

H40D

D113

K1045

H415

CH7

D56

K6

H6

D414

K1030

H406

D106

K1038

H40E

D114

K1046

H416

CH8

D57

K7

H7

D415

K1031

H407

D107

K1039

H40F

D115

K1047

H417


The relative address calculation formula is as follows:


Relative address = [lower 4 bits of register address ] -1


Example: The set value ( SV ) address of module 1# CH1 is 41025


Then: 1# module CH1 set value ( SV ) relative address = [ lower 4 bits of 41025 ] - 1 = 1024


In the PLC program example, relative address programming is used. If you use hexadecimal programming, just use the hexadecimal address in Appendix 2 " 8-2-2 Register Parameter List" !

1


User manual


3.PLC communication format setting:


4.PLC program example:


When M1002=ON : Set the communication format of COM2 :


When M0=ON : MODRW K1 (station number 1 ) K4 (function code) K0 (read address) D0 (buffer area) K8 (data length)


That is, the current temperature value ( PV ) of CH1-CH8 is read and stored in the buffer area of ​​D0-D8 .


K0 : Relative address [ lower 4 bits of 30001 ] -1=0 , which is K0


You can also enter K0 in hexadecimal to change it to H0.


K8 : Read 8 data in the K0-K7 addresses in the temperature control module , and the read data is in the D0 -D8 buffer area.


When M1=ON : Set the temperature set value ( SV ) of CH1-CH8


Write 8 data to the K1024-K1031 addresses of the temperature control module, and the written data values ​​are the values ​​of D408-D415.

1


User manual


When M2=ON : MODRW K1 (station number 1 ) H10 (function code) K1032 (write data address) D100 ( PLC setting value) K8 (data


length) to set the start/stop switch of CH1-CH8


H10 : [ 1 6 ] Continuous function writing (data 16 is a decimal number, and it becomes H10 when it becomes hexadecimal )


K1032 : Relative address [ lower 4 bits of 41033 ] -1=1032 , that is, K1032 can also be input in hexadecimal to change K1032 to H408 .


K8 : Write 8 data to the K1032-K1039 addresses of the temperature control module , and the written data value is the value of D100-D107 .


When M3=ON : Set the auto-tuning start / stop switch of CH1-CH8


Write 8 data to the K1040-K1047 addresses of the temperature control module , and the written data values ​​are the values ​​of D108-D115 .


When M0=ON and M1123=ON :


BMOV transmits the current value of D1296-D1303 ( MODBUS internal buffer content) to D50-D57 (reading CH1-CH8 ).


K8 : The data length is 8 , that is, the contents in the MODBUS internal buffer area are sent to ( D50-D57) in batches.


M1122 : Send request:

1


User manual


8-5 Appendix 5 : " Sensor types supported by XD1N series temperature control module"


input type


sensor


Specification


set value


Setting range


Temperature input


Platinum resistor

PT100

8

-200-300


Thermocouple

K

0

-270-1372

J

1

-210-1200

T

2

-210-400

E

3

-270-1000

N

4

-270-1300

B

5

0-1800

R

6

-50-1664.5

S

7

-50-1768.1


8-6Appendix 6 : "Products and Services"


Products and services


To facilitate parameter setting, our company provides XD1N communication setting software. Please download it from the Xianda website:

1.

Enter the official website of Freach: http://www.freach.com.cn

2.

Click to select products and services- > Industrial Automation

3.

Scroll to the lower right corner and click Download Center




For more information on temperature control module product data and product problem assistance, please call the nearby dealer or our company’s technical support


Hold the hotline.


XD1N series temperature control module


Zhejiang Xianda Technology Co., Ltd.


ZHEJIANG XIAN DA Protection Technology Co. , Ltd


Address: Building 3A, No. 8, Xiyuan 1st Road, Xihu Science and Technology Park, Xihu District, Hangzhou


Phone: 4 00-855-9788 0571-88236155


Fax: 0571-85122380