WO2023058117A1

WO2023058117A1 - Manual generation device and manual generation method

Info

Publication number: WO2023058117A1
Application number: PCT/JP2021/036842
Authority: WO
Inventors: 高広加藤
Original assignee: 三菱電機ビルソリューションズ株式会社
Priority date: 2021-10-05
Filing date: 2021-10-05
Publication date: 2023-04-13
Also published as: JPWO2023058117A1

Abstract

According to the present invention, an air conditioning equipment (410) uses an apparatus to execute indoor temperature control. A CPU (11) acquires design drawing information relating to a drawing for designing the air conditioning equipment (410). The design drawing information includes equipment configuration information, control operation information, and apparatus information. The equipment configuration information is information relating to the configuration of the air conditioning equipment (410). The control operation information is information relating to a control operation. The apparatus information is information relating to the apparatus. The CPU (11) generates an operations manual (for the customer) and an operations manual (for maintenance) from the acquired design drawing information. The operations manual includes a description of the indoor temperature control using the apparatus.

Description

Manual generation device and manual generation method

The present disclosure relates to a manual generation device and a manual generation method for generating operation manuals for automatic control equipment.

When automatic control equipment such as air conditioning equipment and lighting equipment is installed in a factory or building, it is an operation manual that explains the control operation etc. performed by automatic control equipment for customers (owners and managers of buildings etc.) is provided. This operation manual is created by manually inputting information based on the original design drawing of the automatic control equipment, but if there are many types of control operations, it takes time to create the operation manual. . In addition, the description contents of the manual may vary depending on the creator.

As a system for efficiently creating such documents, for example, there is a document creation support system disclosed in Japanese Patent Application Laid-Open No. 5-101054 (Patent Document 1). In the document creation support system disclosed in Patent Document 1, a document is divided into parts and stored in a database in advance, the parts are specified, the database is searched, and the documents of the corresponding parts are extracted and combined to create a target document. is generating

JP-A-5-101054

By the way, the automatic control equipment described above is configured so that it can be monitored and operated by a central monitoring device via a controller such as a PLC (Programmable Logic Controller).

Depending on the configuration of the automatic control equipment, the equipment configuration of the equipment that realizes the various control operations performed by the automatic control equipment and the operation contents of the various control operations are different. In the document creation support system described in Patent Document 1, although it is possible to adjust the appearance of the document by applying it to a template prepared in advance, the manual is automatically generated based on the characteristics of the automatic control equipment as described above. It is not possible.

The present disclosure has been made in order to solve the above-mentioned problems, and its object is to provide a manual generation device and a manual that can efficiently generate an operation manual for automatic control equipment with appropriate content. It is to provide a generation method.

A manual generation device according to the present disclosure generates operation manuals for automatic control equipment. The instruction generation device includes a processor and a memory that stores a program executable by the processor. Automatic control equipment includes equipment. Automatic control facilities use equipment to perform control actions. The processor acquires design drawing information related to drawings for designing automatic control equipment. The design drawing information includes equipment configuration information, control operation information, and equipment information. Equipment configuration information is information about the configuration of the automatic control equipment. The control action information is information about control actions. The device information is information about the device. The processor generates an operation manual from the acquired design drawing information. The operating instructions include a description of control operations using the device.

A manual generation method according to the present disclosure is a method for generating an operation manual for automatic control equipment. Automatic control equipment includes equipment. Automatic control facilities use equipment to perform control actions. The manual generation method includes a step of acquiring design drawing information related to drawings for designing automatic control equipment. The design drawing information includes equipment configuration information, control operation information, and equipment information. Equipment configuration information is information about the configuration of the automatic control equipment. The control action information is information about control action. The device information is information about the device. The manual generation method further includes a step of generating an operation manual from the acquired design drawing information. The operating instructions include a description of control operations using the device.

According to the present disclosure, it is possible to efficiently generate an operation manual for automatic control equipment with appropriate content.

It is a figure which shows the structure of the description production|generation apparatus which concerns on this Embodiment. 1 is a configuration diagram of a building management system for which an operation manual generated by a manual generation device is provided; FIG. It is a figure which shows an example of the input screen of basic information and equipment configuration information. It is a figure which shows an example of the input screen of control operation information. It is a figure which shows an example of the input screen of apparatus information. It is a figure which shows an example of a device correspondence table. It is a figure which shows an example of explanatory note format data. It is a figure which shows an example of explanatory drawing correspondence table. It is a figure which shows an example of explanatory drawing data. It is a figure which shows an example of an operation manual (for customers). It is a figure which shows an example of an operation manual (for maintenance). FIG. 4 is a diagram showing an example of control point format data and control point sentences; 4 is a flowchart of main processing executed by a CPU; 4 is a flowchart of a manual generation process executed by a CPU;

Embodiments will be described below with reference to the drawings. In the following description, the same parts are given the same reference numerals. Their names and functions are also the same. Therefore, detailed description thereof will not be repeated.

[Manual generation device 10]
FIG. 1 is a diagram showing the configuration of a description generating apparatus 10 according to this embodiment. The manual generation device 10 is a device that generates an operation manual for automatic control equipment. The manual generation device 10 is, for example, a personal computer.

Automatic control equipment includes air conditioning equipment (air conditioning equipment 410 to be described later) and lighting equipment. For example, in the case of an air conditioner, a temperature detector is used to detect the room temperature. Then, based on the detected room temperature, a control operation (temperature control) is performed to control a valve (two-way valve or the like) so as to achieve the set room temperature. Control operations are not limited to temperature control, and there are a plurality of operations such as humidity control. The operation manual describes such control operations and the like.

The manual generation device 10 includes a CPU (Central Processing Unit) 11 and a memory 12. These are communicably connected to each other via a bus. The memory 12 includes a ROM (Read Only Memory), a RAM (Random Access Memory), and a storage device.

The CPU 11 loads the program stored in the ROM into the RAM and executes it, realizing various functions of the manual generation device 10 . The ROM stores programs executable by the CPU 11 . The RAM serves as a working area when the CPU 11 executes programs, and temporarily stores programs and data used when the programs are executed. Storage devices are, for example, HDDs (Hard Disk Drives) and SSDs (Solid State Drives).

The memory 12 stores a manual generation tool program (software executable file). The manual generation tool is a tool (software) for generating an operation manual for automatic control equipment. A program of the manual generation tool is stored in a ROM or a storage device. The CPU 11 reads the program of the manual generation tool from the memory 12 and activates the manual generation tool.

The manual generation device 10 is connected to an input device 21 such as a keyboard and mouse, a display device 22 such as a display, and a printer 23 . When the manual generation tool is activated, the input screen of the manual generation tool (FIGS. 3 to 5, etc.) is displayed on the display device 22. FIG.

After starting the manual generation tool, the user uses the input device 21 to input design drawing information. The design drawing information is information related to the design drawing for designing the automatic control equipment (the air conditioning equipment 410, etc.).

The design drawing information includes equipment configuration information, control operation information, and equipment information. Equipment configuration information is information about the configuration of the automatic control equipment. A specific example will be described later with reference to FIG. The control action information is information about control action. A specific example will be described later with reference to FIG. The device information is information about devices (measuring devices and control devices) for performing control operations of automatic control equipment. A specific example will be described later with reference to FIG.

The instruction manual generation tool outputs an operation manual based on this input information. The operation manual includes an operation manual (for customer) and an operation manual (for maintenance). The operation manual (for customer) is a manual presented to a user (also referred to as "customer") who uses the automatic control equipment (air conditioning equipment 410, etc.).

In this embodiment, an example of installing automatic control equipment in a building is assumed. In this case, the user is the owner of the building in which the automatic control equipment is delivered or the manager who manages the building.

The operation manual (for maintenance) is a manual presented to maintenance personnel who maintain automatic control equipment such as the air conditioning equipment 410 . A maintenance worker is a worker who belongs to a maintenance company that has a maintenance contract for automatic control equipment. The operation manual (for maintenance) is a manual used by a maintenance company, and maintenance work is performed using the manual. The operation manual (for maintenance) may be used when installing automatic control equipment. In this case, the operation manual (for maintenance) is also presented to the contractor who performs the installation work of the automatic control equipment.

The generated operation manual (for customer) and operation manual (for maintenance) can be output from the printer 23 .

[Building management system 1]
FIG. 2 is a configuration diagram of the building management system 1 for which the operation manual generated by the manual generation device 10 is to be written. The building management system 1 includes a server device (also called a “central monitoring device”) 100 , a main controller 200 ,

local controllers

310 and 320 , and

automatic control equipment

410 , 420 , 430 and 440 .

In the present embodiment, the automatic control equipment 410 is an air conditioning equipment and is also called an air conditioning equipment 410. The automatic control facility 420 is a lighting facility and is also referred to as lighting facility 420 . The

automatic control facilities

430 and 440 are other automatic control facilities, but they may be air conditioning facilities or lighting facilities.

Also, this example is merely an example of the building management system 1, and the number of controllers and automatic control equipment is not limited to this, and the controllers and automatic control equipment may be configured in any way. In the present embodiment, the manual generation device 10 generates an operation manual for the air conditioner 410 as an example of automatic control equipment. In addition, it is not limited to this, and may generate an operation manual for the lighting equipment 420 or the like, may generate an operation manual for other equipment, or may be used for a plurality of automatic control equipment. Operation manuals may be collectively generated.

In the building management system 1, various signals input and output in each automatic control equipment are finally collected in a server device (central monitoring device) 100, and the collected various signals (for example, temperature, etc.) can be monitored. can.

The server device 100 is configured to be able to communicate with the main controller 200 . Main controller 200 is configured to be able to communicate with each of

local controllers

310 and 320 . The local controller 310 is configured to communicate with each of the air conditioning equipment 410 and the lighting equipment 420 . The local controller 320 is configured to communicate with each of the

automatic control facilities

430 and 440 .

In this embodiment, the main controller 200 is a PLC (Programmable Logic Controller). The main controller 200 has a CPU, a ROM, a RAM, and a communication interface. These are communicably connected to each other via a bus.

The main controller 200 communicates with the server device 100 and the

local controllers

310 and 320 via communication interfaces. In this embodiment,

local controllers

310 and 320 are PLCs. Hereinafter, the main controller and local controller are also referred to as "PLC".

The

local controllers

310, 320 also have a CPU, a ROM, a RAM, and a communication interface. The local controller 310 inputs and outputs input/output signals of the

automatic control facilities

410 and 420 via the I/O interface. The local controller 320 inputs/outputs various input/output signals of the

automatic control facilities

430 and 440 via the I/O interface.

Each automatic control facility is equipped with equipment for performing control actions. The instrument includes a plurality of measuring instruments and a plurality of controlling instruments. For example, the air conditioner 410 includes a measuring device group 411 and a control device group 412 as devices. An input/output signal is a signal related to control operation, and is a signal output from a measuring device and a signal input to a control device.

As will be described later, the measuring equipment group 411 includes an indoor temperature detector and the like. The control device group 412 includes a cold/hot water two-way valve and the like. For example, the air conditioner 410 uses an indoor temperature detector in the measuring device group 411 and a cold/hot water two-way valve in the control device group 412 to perform indoor temperature control as a control operation. Such a control operation will be explained in the operation manual shown in FIGS. 10 and 11, which will be described later.

The lighting equipment 420 includes a measuring equipment group 421 and a control equipment group 422 . The automatic control equipment 430 includes a measuring equipment group 431 and a control equipment group 432 . The automatic control equipment 440 includes a measuring equipment group 441 and a control equipment group 442 .

The main controller 200 or the

local controllers

310, 320 can be connected to a maintenance computer (hereinafter also referred to as "MNT") 500 used by maintenance personnel.

The MNT 500 can display input/output signal information. Input/output signal information can be acquired by MNT 500 via

local controllers

310 and 320 or main controller 200 .

Also, the MNT 500 can be used to change the parameters of the air conditioning equipment 410, the lighting equipment 420, and the

automatic control equipment

430, 440. A parameter is data for changing the control operation in each automatic control facility. For example, parameters P, I, and D when the indoor temperature is controlled by PID.

Such parameters can only be changed from the MNT 500 used by maintenance personnel, and cannot be changed from the central monitoring device 100 used by customers (owners and building managers). Also, there are input/output signals that can be monitored by the MNT 500 but cannot be monitored by the central monitoring device 100 . Due to such differences, the operation manual (for customers) and the operation manual (for maintenance) have different descriptions.

[input screen]
When the manual generation tool is activated, various types of information including equipment configuration information, control operation information, and equipment information can be input on the air conditioning information input screen. Description will be made below with reference to FIGS. 3 to 5. FIG.

FIG. 3 is a diagram showing an example of an input screen for basic information and equipment configuration information. As shown in FIG. 3, the site name "XX building new construction" indicating that the target building is "XX building" and the control name "air conditioning control 1" indicating the type of air conditioning control are input. ing. In the display example of FIG. 3, it is possible to further input basic information and equipment configuration information.

When you scroll down the input screen, a screen for inputting control operation information (see Fig. 4) and device information (see Fig. 5) is displayed. By inputting these pieces of information and pressing the "create manual" button, an operation manual (for customer) and an operation manual (for maintenance) are generated.

At that time, it is possible to check either "for customer", "for maintenance", or "for customer + maintenance". When the "manual creation" button is pressed with "for customer" checked, an operation manual (for customer) is generated. When the "manual creation" button is pressed with "for maintenance" checked, an operation manual (for maintenance) is generated. When the "manual creation" button is pressed with "customer + maintenance" checked, an operation manual (for customer) and an operation manual (for maintenance) are generated.

In "Basic information", set the input items for "air conditioner model", "air conditioner coil type", and "control method". In the input item "air conditioner model", either "air conditioner" or "external air conditioner" can be selected. In the input item "air conditioner coil type", either "2-tube type" or "4-tube type" can be selected. In the input item "control method", one of "DDC" (Direct Digital Controller), "electric" and "electronic" can be selected as the control method.

Input items such as "SA fan" (supply air fan), "RA fan" (return air fan), "EA fan" (exhaust fan), and "total heat exchanger" can be set in "equipment configuration information". be. When installing an SA fan in the air conditioner, select a circle in the input item "SA fan". When "-" is set in an input item, it means that the input item is not set. When the circle is selected in the input item "SA fan", the sub-item "INV" (inverter control) can be set.

When installing an RA fan in the air conditioner, select the circle in the input item "RA fan". When the circle mark is selected in the input item "RA fan", further sub-items "INV" and "AHU built-in" (air handling unit built-in) can be set.

When installing an EA fan in the air conditioner, select the circle in the input item "EA fan". When a circle mark is selected in the input item "EA fan", further sub-items "INV" and "AHU built-in" can be set. When installing a total heat exchanger, select a circle in the input item "total heat exchanger".

Here, in this tool, the background color of selectable items is a bright color (eg, white), and the background color of unselectable items is displayed in a dark color (eg, gray). This makes it obvious at a glance whether the item is selectable or not.

For example, a circle is selected in the input item "SA fan". In this case, since the sub-item "INV" can be set, this item is displayed with a bright background color. On the other hand, "-" is selected in the input item "RA fan". In this case, since the sub-items "INV" and "AHU integration" cannot be set, these items are displayed with a dark background color.

As described above, the facility configuration information is information relating to the configuration of the air conditioning facility 410, and in FIG.

FIG. 4 is a diagram showing an example of an input screen for control operation information. In the "control operation information", input items such as "temperature control", "automatic change of supply air temperature setting", "humidity control", and "external air cooling control" can be set.

If the air conditioner performs temperature control, select the circle in the input item "temperature control". When the circle mark is selected in the input item "temperature control", the sub-item "controlled object" can be set. In the sub-item "controlled object", any one of "indoor" (indoor temperature control), "return air" (return air temperature control) and "supply air" (supply air temperature control) can be selected.

If the air conditioner automatically changes the supply air temperature setting, select the circle in the input item "automatic change of supply air temperature setting". When the circle mark is selected in the input item "automatic change of supply air temperature setting", further sub-items "control operation" and "cascade source" can be set.

In the sub-item "control operation", either "cascade" (cascade control) or "load reset" (load reset control) can be selected. In the sub-item "cascade source", either "indoor" or "return air" can be selected.

If the air conditioner performs humidity control, select the circle in the input item "humidity control". When the circle mark is selected in the input item "humidity control", further sub-items "control action", "controlled object" and "residual operation" can be set. In the sub-item "control operation", any one of "humidification", "dehumidification" and "humidification + dehumidification" can be selected. In the sub-item "controlled object", any one of "indoor", "return air" and "supply air" can be selected. A circle can be selected in the sub-item "residual operation".

If the air conditioner performs outdoor air cooling control, select the circle in the input item "outdoor air cooling control". When the circle mark is selected in the input item "external air cooling control", the sub-item "indoor environment measurement point" can be set. In the sub-item "indoor environment measurement point", either "indoor" or "return air" can be selected.

As described above, the control operation information is information relating to the control operation of the air conditioner 410, and in FIG.

FIG. 5 is a diagram showing an example of an input screen for device information. As device information, "measuring device" and "control device" can be set. In the input item of "measurement equipment", items of "supply system measurement", "return air system measurement" and "indoor system measurement" can be further set.

In the "air supply system measurement", it is possible to set the input items "temperature", "humidity", "temperature and humidity", "dew point", "temperature dew point" and "static pressure". A circle mark can be set for each input item. For example, when "temperature" is set, the supply air temperature is detected by a temperature detector installed in the supply air duct.

In the "return air system measurement", it is possible to set the input items "temperature", "humidity", "temperature and humidity" and "CO2". A circle mark can be set for each input item. For example, when "humidity" is set, the return air humidity is detected by a humidity detector installed in the return air duct.

In the "indoor system measurement", it is possible to set the input items "temperature", "humidity", "temperature and humidity" and "CO2". A circle mark can be set for each input item. For example, when "CO2" is set, the indoor CO2 concentration is detected by a CO2 transmitter installed indoors.

In addition, items such as "valve" can be set in the input items of "control device". In the "valve", the input items of "cold water", "hot water/heating", "cold water" and "humidification" can be set.

"Proportional two-way valve" can be set in the input item "cold water". In this case, a proportional control of the two-way valve is performed in the cold water supply path. In the input item "hot water/heating", either "proportional two-way valve" or "proportional steam two-way valve" can be set. "Proportional two-way valve" can be set in the input item "hot and cold water". In the input item "humidification", "two-position humidification valve" can be set. In this case, two-position control of the humidification valve is performed.

Then, as shown in FIGS. 3 to 5, in this example, it is assumed that the following settings are made. In the input items of "basic information", "air conditioner" is selected in the input item "air conditioner model", "2-tube type" is selected in the input item "air conditioner coil type", and "DDC" is selected in the input item "control method". Suppose

Assume that a circle is selected in the input item "SA fan" and a circle is selected in the sub-item "INV" in "equipment configuration information".

Assume that a circle is selected in the input item "temperature control" and "indoor" is selected in the sub-item "controlled object" in "control operation information". Furthermore, it is assumed that a circle is selected in the input item "humidity control", and furthermore, "humidification" is selected in the sub-item "control operation" and "return air" is selected in the sub-item "controlled object".

Assume that a circle is selected for the input item "Temperature and Humidity" of "Return Air System Measurement" and the input item "Temperature" of "Indoor System Measurement" in "Measuring Equipment" of "Equipment Information". Suppose that "proportional two-way valve" is selected in the input item "cold/hot water" of "valve" and "two-position humidification valve" is selected in the input item "humidification" in "control device" of "device information".

As described above, the device information is information about the devices (measuring devices and control devices) for controlling the air conditioning equipment 410, and in FIG. 5, information about the devices is set. The information about equipment includes not only information about measuring equipment and control equipment, but also information about control operations, control methods, and installation locations of equipment.

For example, the temperature is detected by a temperature detector (measuring device) installed in the room (installation location), and proportional control (control method) is performed by controlling the two-way valve (control device) in the path through which cold water and hot water flow. Suppose that indoor temperature control (control operation) is performed by In this case, as described above, select the circle in the input item "temperature" of "indoor system measurement" in "selection of measuring equipment", and select " Select “Proportional 2-Way Valve”.

[Used data]
FIG. 6 is a diagram showing an example of a device correspondence table. In the device correspondence table, "options", "device symbols" and "device names" are defined for each "item". "Item" in the device correspondence table corresponds to the item of the device information in FIG. 5, and "choice" indicates a choice for the item of the device information. When an option is selected for each item, the "equipment symbol" and "equipment name" are set accordingly.

For example, the item "Tsitunai" defines the option "o", the device symbol "TE1", and the device name "indoor temperature detector". The item "Tsitunai" corresponds to the item "temperature" of the indoor system measurement in the measuring device selection of FIG. In this item, when a circle is selected, "TE1" is set as the device symbol, and "indoor temperature detector" is set as the device name.

The item "Tkanki" defines the option "○", the device symbol "TED1", and the device name "duct insertion type temperature detector". The item "Tkanki" corresponds to the item "temperature" of the return air system measurement in the measurement equipment selection of FIG. In this item, when a circle is selected, "TED1" is set as the equipment symbol, and "duct insertion type temperature detector" is set as the equipment name.

The item "Hsitunai" defines the option "○", the device symbol "HE1", and the device name "indoor humidity detector". This corresponds to the item "humidity" of the indoor system measurement in the measurement equipment selection. The item "Hkanki" defines the option "o", the equipment symbol "HED1", and the equipment name "duct insertion type humidity detector". This corresponds to the return air system measurement item "humidity" in the measurement equipment selection. The item "Hkyuuki" defines the option "o", the equipment symbol "HED1", and the equipment name "duct insertion type humidity detector". This corresponds to the item "humidity" of the air supply system measurement in the measurement device selection.

The item "ReisuiV" defines the option "proportional two-way valve", the device symbol "MV4", and the device name "chilled water two-way valve". This corresponds to the valve item "cold water" in the control device selection. In this item, when "proportional two-way valve" is selected, "MV4" is set as the device symbol and "chilled water two-way valve" is set as the device name.

The item "OnsuiV" defines the option "proportional two-way valve", the equipment symbol "MV4", and the equipment name "hot water two-way valve". The item "OnsuiV" defines the option "proportional steam two-way valve", the equipment symbol "MV8", and the equipment name "heating two-way valve". These correspond to the valve entry "hot water/heating" in the controller selection. In this item, when "hot water two-way valve" is selected, "MV4" is set as the device symbol, and "hot water two-way valve" is set as the device name. On the other hand, when the "proportional steam two-way valve" is selected, "MV8" is set as the equipment symbol, and "heating two-way valve" is set as the equipment name.

The item "ReionV" defines the option "proportional two-way valve", the equipment symbol "MV4", and the equipment name "chilled/hot water two-way valve". This corresponds to the valve item "cold/hot water" in the control device selection. In this item, when "proportional two-way valve" is selected, "MV4" is set as the device symbol, and "chilled/hot water two-way valve" is set as the device name.

FIG. 7 is a diagram showing an example of explanatory note format data. The memory 12 stores descriptive text format data as a template corresponding to each control operation. This example illustrates descriptive text format data selected when "temperature control" is performed as the control operation.

In the present embodiment, a description is generated by applying the device symbols and device names set in FIG. 6 to the description format data.

The explanatory text format data has items of "classification", "content", "conditions", and "for maintenance". The “content” is data (template) that is the source of the explanation, and the “classification” is for classifying the explanation. The “title” and “subtitle” categories indicate the title or subtitle of the description. "Condition" in the classification indicates that an explanation is generated when the contents of the item "Condition" are met. The “control sentence” in the classification indicates that the explanation is to be generated unconditionally.

"Diagram" in the classification indicates that the explanatory diagram data is read based on the explanatory diagram correspondence table. The condition "12" indicates that the pasting size of explanatory diagram data is adjusted to 12 lines. If the item "for maintenance" is circled, it indicates that the explanation is included only in the "operation manual (for customer)". If the item "for maintenance" is not circled, it indicates that the explanation is included in both the "operation manual (for customer)" and the "operation manual (for maintenance)".

In the "contents", the parts surrounded by "%" and "%" are the parts to be replaced based on the "equipment symbol" and "equipment name". In this example, "% installation location %", "% installation location 2%", "% detector %", "% detector symbol %", and "% operator %" are locations to be replaced.

In this example, in the selection of the measuring equipment in FIG. 5, since the circle is selected in the item "temperature" (Tsitunai) of the indoor system measurement, "TE1" is set as the equipment symbol, and "indoor temperature detection" is set as the equipment name. device" is set.

In addition, in the control device selection, since "proportional two-way valve" was selected in the valve item "hot and cold water" (ReionV), "MV4" was set as the device symbol and "hot and cold water two-way valve" as the device name. is set.

Thus, in this example, "% installation location %" and "% installation location 2%" are "indoor", "% detector %" is "indoor type temperature detector TE1", and "% detector symbol %" is replaced with "TE1", and "% operator %" is replaced with "chilled/hot water two-way valve MV4".

Specifically, corresponding to the classification "title", "% installation location% temperature control" is replaced with "indoor temperature control" and set as an explanation. In this example, "two-pipe type" is selected in the input item "air conditioner coil type" in FIG. Therefore, condition 1 (in the case of a cold/hot water valve (2-pipe type)) is satisfied, but condition 2 (in the case of a 4-pipe type or cold-only type) is not satisfied.

Contents of classification "Condition 1" "% installation location% temperature is detected by % detector% installed at % installation location 2%, displayed on the central monitoring device via the programmable logic controller PLC, and set % Proportional control of % actuator % is performed so that the % temperature of the installation location is achieved. "Detects the room temperature with the indoor temperature detector TE1 installed in the room, displays it on the central monitoring device via the programmable logic controller PLC, and operates the cold/hot water two-way valve MV4 to achieve the set room temperature. Proportional control is performed.(The operation direction of the cold/hot water two-way valve MV4 is switched to heating or cooling operation by operating the cooling/heating switching from the central monitoring device.)" has been replaced and added to the description. be. On the other hand, the content of "Condition 2" is not added to the description.

Also, a circle is selected in the input item "humidity control" in FIG. 4, and "humidification" is selected in the sub-item "control operation", but "dehumidification" is not selected. Since condition 3 (with dehumidification (4-tube type)) is not satisfied, the content of "condition 3" is not added to the description. The classification “FIG. 1” will be described later with reference to FIGS. 9 and 10. FIG. A blank line is added to the description by the next category "control statement".

Next, the contents of the classification "control statement" "% installation location% If the temperature is disconnected (between % detector symbol % and PLC), the display of the central monitoring device will be set to an invalid value (asterisk display) and control will be started. Stop and forcibly set the control output to %operator% to 0." but "If the room temperature is disconnected (between TE1 and PLC), the display of the central monitoring device will be invalidated (asterisk display). , to stop the control and forcibly set the control output to the cold/hot water two-way valve MV4 to 0.”

Below, since the item "for maintenance" is circled, an explanation will be added when generating the "operation manual (for maintenance)". First, a "supplementary explanation for maintenance" is added to the explanation by the classification "subtitle".

Contents of the next classification "control statement" ・MNT will also display % installation location % temperature.In addition, if the % installation location % temperature is disconnected, the display on MNT will also display an invalid value (asterisk). ” will be replaced with ``・The room temperature will also be displayed on the MNT.In addition, if the room temperature is disconnected, the display on the MNT will also be an invalid value (asterisk).” and added to the explanation.

Contents of the next classification "control statement" "- MNT can also set % installation location % temperature. The % installation location % temperature setting set by MNT is reflected in the central monitoring device. )” has been replaced with “・MNT can also set the room temperature. The room temperature setting set with MNT will be reflected in the central monitoring device. be.

　The contents of the next category "Control Statements", "・Proportional control parameters (P, I, D, etc.) can be set by MNT" are added to the description as they are.

As described above, the explanatory text for the control operation is generated using the explanatory text format data and the device information regarding the measuring device and the control device. For example, an explanation for indoor temperature control is generated using explanation format data for temperature control (FIG. 7) and device information about the indoor temperature detector and two-way cold/hot water valve.

FIG. 8 is a diagram showing an example of the explanatory diagram correspondence table. Here, "drawing name" indicates the file name of explanatory drawing data. For example, "Temperature 1" indicates that the file name of explanatory diagram data is "Temperature 1.JPG". "Control system" indicates which of supply air system measurement, return air system measurement, and indoor system measurement in selection of measuring equipment in FIG.

"Cold water", "Hot water", and "Cold water" indicate what was selected in the items "Cold water", "Hot water/heating", and "Cold water" of the control device selection valve in Fig. 5. "Control method" indicates what is selected in the item "control method" in FIG.

When "electronic" or "DDC" is selected as the control method, one of "Temperature 1. JPG" to "Temperature 11. JPG" is selected. When the control system is "indoor" and "chilled water two-way valve" is selected in the item "chilled water", "temperature 1. JPG" is selected.

When the control system is "indoor", "cold water two-way valve" is selected in the item "cold water", and "hot water two-way valve" is selected in the item "hot water/heating", "temperature 2. JPG" is selected. When the control system is "indoor", "cold water two-way valve" is selected in the item "cold water", and "heating two-way valve" is selected in the item "hot water/heating", "temperature 3. JPG" is selected.

When the control system is "indoor" and "cold/hot water two-way valve" is selected in the item "cold/hot water", "Temperature 4. JPG" is selected. The same applies to "Temperature 5. JPG" to "Temperature 12. JPG" below.

FIG. 9 is a diagram showing an example of explanatory diagram data. The memory 12 stores a plurality of explanatory diagram data (temperature 1.JPG to temperature 12.JPG, etc.). When the file name of the explanatory diagram data is determined in the explanatory diagram correspondence table shown in FIG. 8, the explanatory diagram data of the determined file name is acquired. FIG. 9 shows an example of explanatory diagram data when "temperature 3. JPG" and "temperature 4. JPG" are determined as the explanatory diagram data.

The CPU 11 acquires any one of a plurality of explanatory diagram data using the device information and the like regarding the measuring device group 411 and the control device group 412, and generates the explanatory diagram of the operation manual. For example, if the control system is "indoor" (measuring device is "indoor temperature detector") and "cold/hot water two-way valve" is selected in the item "cold/hot water" (control device is "cold/hot water two-way valve”), “Temperature 4.JPG” is acquired, and an explanatory diagram is generated from this.

[Operation manual]
FIG. 10 is a diagram showing an example of an operation manual (for customer). As described with reference to FIG. 7, first, as an explanation, the number "1." and "indoor temperature control" corresponding to the category "title" are set.

Next, the room temperature is detected by the "indoor temperature detector TE1 installed in the room" corresponding to the classification "condition 2", and displayed on the central monitoring device via the programmable logic controller PLC, and the set room temperature The proportional control of the cold/hot water two-way valve MV4 is performed so that Next, "..." corresponding to the classification "condition 3" is set.

Next, "When the room temperature is disconnected (between TE1 and PLC)" corresponding to the classification "control statement", the display of the central monitoring device is set to an invalid value (asterisk display) and the control is stopped. The control output to valve MV4 is forcibly set to 0." is set.

In this example, the control system is "indoor", and "cold/hot water two-way valve" is selected in the item "cold/hot water", so "Temperature 4. JPG" is selected as the explanatory diagram data. Therefore, the data of "Temperature 4. JPG" is added to the explanation.

Furthermore, in this example, as shown in FIG. 4, "humidity control" is selected as the control operation, and "return air" is selected as the "controlled object". As a result, a further explanation regarding "return air humidity control" is added. In this case, a "duct insertion type temperature/humidity detector" is set as the measuring device, and a "humidification two-way valve" is set as the control device.

As an explanation, along with the number "2.", "return air humidity control (humidification only when heating is requested)" corresponding to the classification "title" is set. Furthermore, the return air humidity is detected by the "duct-inserted temperature and humidity detector THED1 installed in the return air duct" corresponding to the classification "condition 1", displayed on the central monitoring device via the programmable logic controller PLC, and set The two-position control of the humidification two-way valve BV1 will be performed so that the return air humidity is set to the specified value.” is set as an explanation.

As explained above, the operation manual includes explanations of control operations using equipment (measuring equipment, control equipment). The control operation is realized by controlling the control device based on the measured value of the measuring device.

For example, indoor temperature control is realized by controlling the cold/hot water two-way valve based on the measured value of the indoor temperature detector. The operating instructions include a description of room temperature control using a room temperature sensor and a hot and cold two-way valve. The return air humidity control is realized by controlling the humidification two-way valve based on the measured value of the duct-inserted temperature/humidity detector. The operating instructions further include a description of return air humidity control using a ducted temperature and humidity sensor and a humidification two-way valve.

FIG. 11 is a diagram showing an example of an operation manual (for maintenance). As described above, the explanation of the operation manual (for maintenance) is obtained by adding the explanation of the operation manual (for maintenance) to the explanation of the operation manual (for customer). As described with reference to FIG. 7, an explanation dedicated to the operation manual (for maintenance) is added below the explanation of "indoor temperature control" in FIG.

Specifically, in the descriptive text format data in FIG. 7, descriptive text with a circle is added to the item "for maintenance". First, a "supplementary explanation for maintenance" is added to the explanation by the classification "subtitle".

Hereafter, corresponding to the "control statement", "・MNT will also display the room temperature. Also, if the room temperature is disconnected, the display on the MNT will also be an invalid value (asterisk).", "・MNT will also display You can set the room temperature.The room temperature setting set by MNT is reflected in the central monitoring device. It can be set with MNT." is added as an explanation. Although the description is omitted, the same applies to the following "return air humidity control (humidification only when heating is requested)".

FIG. 12 is a diagram showing an example of control point format data and control point sentences. Control point statements are generated based on control point format data (templates). Control point statements describe input and output signals. The generated control point text is added to the description text.

Control point format data defines "signal type", "Active/IN Active analog range", "unit", "operation/monitoring (central unit)", and "operation/monitoring (MNT)" for "signal name". It is

In the "signal type", "AI" indicates "analog signal input" and "AO" indicates "analog signal output". "Active/IN Active analog range" indicates the measurement range or setting range of input/output signals. "Unit" is the unit of input/output signal data. “Operation/monitoring (central device)” indicates whether or not the server device (central monitoring device) 100 can operate or monitor the signal. “Operation/monitoring (MNT)” indicates whether signals can be operated or monitored in the maintenance computer (MNT) 500 .

Here, as in the description in FIG. 7, the portions enclosed by "%" and "%" in the control point format data are replaced based on information such as "equipment symbol" and "equipment name". In this example, "% installation location%" and "% chilled/hot water operator%" are locations to be replaced. In this example, "% installation location%" is replaced with "indoor", and "% cold/hot water operator%" is replaced with "hot/cold water two-way valve MV4".

As a result, in the control point statement, for the signal name "AHU-*** room temperature measurement", the signal type "AI", analog range "-20.0 to 80.0", unit "°C", central monitoring A circle mark is set to , and a circle mark is set to MNT. In addition, in the control point statement, for the signal name "AHU-*** room temperature setting", the signal type "AO", analog range "0.0 to 50.0", unit "°C", central monitoring A circle mark is set to MNT.

Also, in the control point statement, the signal type "AI", analog range "0.0 to 100.0", unit "%" for the signal name "AHU-*** cold/hot water two-way valve MV4 control output" , central monitoring with a triangle, and MNT with a circle. The following are set in the same way.

As described above, the operation manual (for maintenance) includes maintenance information for the air conditioner 410 . The maintenance information includes input/output signal information and parameter information. Parameter information is parameter information for changing the control operation on the MNT 500 .

[flowchart]
The flow of main processing executed by the CPU 11 will be described below with reference to flowcharts. The main process is started when an instruction to generate either an operation manual (for customer) or an operation manual (for maintenance) is issued. FIG. 13 is a flowchart of main processing executed by the CPU 11 .

When the "Create manual" button in Fig. 3 is pressed, if "For customer" is checked, an instruction to generate an operation manual (for customer) is generated. If "for maintenance" is checked, an instruction to generate an operation manual (for maintenance) is generated.

If "for customer + for maintenance" is checked, an instruction to generate an operation manual (for customer) and an instruction to generate an operation manual (for maintenance) are generated. In this case, the main process is executed twice, and an operation manual (for customer) and an operation manual (for maintenance) are generated from the acquired design drawing information. Hereinafter, "step" is also simply referred to as "S".

When the main process starts, the CPU 11 acquires design drawing information including equipment configuration information, control operation information, and equipment information in S11. Specifically, the site name and control name, the basic information, the basic information equipment configuration information, the control operation information set on the screen in FIG. 4, and the screen in FIG. Get the set device information.

At S12, the CPU 11 acquires the device symbol and device name from the device information using the device correspondence table. In the examples of FIGS. 5 and 6, the item "Tsitunai" (indoor system measurement item "temperature") has the option "o" selected, so the device symbol "TE1" and the device name "indoor temperature detector" is obtained. In addition, since the option "proportional two-way valve" is selected in the item "ReionV" (valve item "chilled/hot water"), the device symbol "MV4" and the device name "chilled/hot water two-way valve" are acquired.

In the example using FIG. 4, a circle is selected in the input item "temperature control", and "indoor" is selected in the sub-item "controlled object". As a result, the CPU 11 controls the indoor temperature detector corresponding to the indoor temperature control (control operation) in the measuring device group 411 and the cold/hot water two-way valve (control device) corresponding to the indoor temperature control in the control device group 412 . and

The CPU 11 sets i=0 in S13. In S14, the CPU 11 sets a value obtained by adding 1 to i as i. In S15, the CPU 11 extracts the i-th control item (also referred to as "control i") of the control action information.

Specifically, in FIG. 4, temperature control is control 1, automatic supply temperature setting change is control 2, humidity control is control 3, and outside air cooling control is control 4, in order from the top. When executing S15 first, the CPU 11 extracts the first control item (control 1) of the control action information. In this case, the CPU 11 extracts "temperature control".

The CPU 11 determines in S16 whether or not control i has been set. If the CPU 11 determines that control i has been set (YES in S16), the process proceeds to S17. If the CPU 11 does not determine that control i has been set (NO in S16), the process proceeds to S18. In the example of FIG. 4, the CPU 11 determines that control 1 (temperature control) has been set.

In S17, the CPU 11 executes the explanation generation process (see FIG. 14). If control 1 (temperature control) is set, a description about temperature control is generated.

In S18, the CPU 11 determines whether i=N (total number of control items). When the CPU 11 determines that i=N (YES in S18), it ends the main process. When the CPU 11 does not determine that i=N (NO in S18), the process returns to S14.

Here, N (total number of control items) is the number of all control action items that can be set in FIG. If all control operations have been processed, the main process is terminated. If all control operations have not been processed, the process returns to S14. As a result, processing for the next control item is performed.

In this example, control 2 is not set, so no explanation for automatic change of supply air temperature setting is generated. Since control 3 is set, a descriptive text for humidity control is generated. Since the control 4 is not set, the description of the outdoor air cooling control is not generated.

FIG. 14 is a flowchart of the manual generation process executed by the CPU 11. FIG. When the explanatory note generation process is started, the CPU 11 selects the explanatory note format data and the explanatory diagram correspondence table of control i in S21. In this example, when i=1, the explanatory text format data (see FIG. 7) and the explanatory diagram correspondence table (FIG. 8) for control 1 (temperature control) are selected.

In S22, the CPU 11 determines whether or not there is an instruction to generate an operation manual (for customers). If the CPU 11 determines that there is an instruction to generate an operation manual (for customer) (YES in S22), the process proceeds to S23. When the CPU 11 does not determine that there is an instruction to generate the operation manual (for customer) (determines that there is an instruction to generate the operation manual (for maintenance)) (NO in S22), the process proceeds to S24. proceed.

In the example of FIG. 3, since "for customer + maintenance" is checked, it is determined that there is an instruction to generate an operation manual (for customer) in the first main process, and in the second main process It is determined that there is an instruction to generate an operation manual (for maintenance).

In S23, the CPU 11 excludes the data circled for maintenance, inputs information such as the device symbol and device name into the descriptive text format data, generates descriptive text, and advances the process to S26. In this example, the explanatory note for the customer shown in FIG. 10 is generated from the explanatory note format data shown in FIG.

In S24, the CPU 11 generates an explanation by inputting information such as the equipment symbol and equipment name into all the explanation format data. In this example, the explanation for maintenance shown in FIG. 11 is generated from the explanation format data shown in FIG.

In S25, the CPU 11 inputs information such as the device symbol and device name into the control point format data to generate a control point sentence, and advances the process to S26. In this example, the control point sentence shown in FIG. 12 is generated from the control point format data shown in FIG.

In S26, the CPU 11 determines the explanatory diagram name from the explanatory diagram correspondence table and information such as the equipment symbol and the equipment name. In S27, the CPU 11 acquires explanatory diagram data corresponding to the explanatory diagram name. In this example, "Temperature 4" is determined as the explanatory diagram name in FIG. 8, and "Temperature 4.JPG" is acquired as the explanatory diagram data in FIG.

In S28, the CPU 11 adds the generated explanatory text, explanatory diagrams, and control point sentences to the manual format data, and terminates the explanatory text generation process. In this example, in the first main process, an "operation manual (for customer)" having the contents shown in FIG. 10 is generated. Also, in the second main process, an "operation manual (for maintenance)" is generated in which the control point statements shown in FIG. 12 are added to the contents shown in FIG. In this manner, the CPU 11 generates an operation manual (operation manual (for customer), operation manual (for maintenance)) from the acquired design drawing information.

As described above, in the present embodiment, the air conditioning equipment 410 includes equipment configuration information regarding the configuration of the air conditioning equipment 410, control operation information regarding the control operation of the air conditioning equipment 410, and equipment used for the control operation of the air conditioning equipment 410. It is designed based on the equipment information of Since the operation manual is automatically generated based on these design information, it is possible to automatically generate a manual suitable for explaining the control operation of the air conditioner 410 .

In addition, even when the configuration of the air conditioning equipment 410 becomes complicated or when an operation manual for explaining a plurality of control operations is generated, the operation manual can be generated in a short time compared to the case where the operation manual is created manually. It is possible to generate an operation manual with uniform contents. As a result, an operation manual for the automatic control equipment (air conditioning equipment 410) can be generated efficiently and with appropriate content. For example, when four types of control operations are included, it takes about two days to create an operation manual when manually created. On the other hand, if the manual is automatically generated by the above tool, it can be expected that the operation manual will be created in about 0.5 days (reduced by about 1.5 days).

Also, from one piece of information, it is possible to generate two types of manuals, one to be presented to the user (customer) and the other to be presented for maintenance, so that the operation manual for the automatic control equipment can be produced efficiently. can be generated. In addition, in order to generate a manual containing parameter information for changing the input/output signal information and control operation necessary for maintenance of the automatic control equipment, automatic maintenance of automatic control equipment with appropriate content Operational instructions for control equipment can be generated.

[Main configuration and effects]
Main configurations and effects of the above-described embodiment will be described below.

(1) The manual generation device 10 generates operation manuals for automatic control equipment (air conditioning equipment 410, etc.). The manual generation device 10 includes a CPU 11 and a memory 12 that stores programs executable by the CPU 11 . The air conditioner 410 includes devices (measuring device group 411, control device group 412). The air conditioner 410 performs indoor temperature control (control operation) using equipment. The CPU 11 acquires design drawing information related to drawings for designing the air conditioner 410 . The design drawing information includes equipment configuration information, control operation information, and equipment information. The equipment configuration information is information about the configuration of the air conditioning equipment 410 . The control action information is information about control action. The device information is information about the device. The CPU 11 generates an operation manual (operation manual (for customer), operation manual (for maintenance)) from the acquired design drawing information. The operating instructions include a description of room temperature control using the equipment.

In this way, the automatic control facility (air conditioner 410) includes facility configuration information about the configuration of the air conditioner 410, control operation information about the control operation of the air conditioner 410, and device information of the devices used for the control operation of the air conditioner 410. Since the operation manual is automatically generated based on these design information, a manual suitable for explaining the control operation of the air conditioner 410 can be automatically generated. In addition, even when the configuration of the air conditioning equipment 410 becomes complicated or when an operation manual for explaining a plurality of control operations is generated, the operation manual can be generated in a short time compared to the case where the operation manual is created manually. It is possible to generate an operation manual with uniform contents. As a result, it is possible to efficiently generate an operation manual for automatic control equipment with appropriate contents.

(2) Devices (measuring device group 411, control device group 412) include multiple measuring devices (measuring device group 411) and multiple control devices (control device group 412). The CPU 11 controls the indoor temperature detector corresponding to indoor temperature control (control operation) among the measuring equipment group 411 (a plurality of measuring equipment) and the indoor temperature control (control operation) among a plurality of control equipment (control equipment group 412). ) corresponding to the hot and cold water two-way valve (control device). Indoor temperature control is realized by controlling a cold/hot water two-way valve based on the measured value of the indoor temperature detector. The operation manual includes a description of indoor temperature control (control operation) using an indoor temperature detector (measuring device) and a two-way hot/cold water valve (control device). In this way, the operation manual includes explanations of control actions using measuring equipment corresponding to the control action and control equipment corresponding to the control action. can be generated.

(3) The operation manual includes an operation manual (for customers) and an operation manual (for maintenance). The operation manual (for customer) is a manual presented to the user who uses the air conditioner 410 . The operation manual (for maintenance) is a manual presented to maintenance personnel who maintain the air conditioner 410 . The operation manual (for maintenance) includes maintenance information for the air conditioner 410 . The CPU 11 generates an operation manual (for customer) and an operation manual (for maintenance) from the acquired design drawing information. In this way, from one piece of information, it is possible to generate two types of manuals, one to be presented to users (customers) and the other to be presented for maintenance, so that automatic control equipment can operate efficiently. Can generate instructions.

(4) The air conditioner 410 is configured to communicate with the local controller 310 . The air conditioner 410 is configured to communicate with a maintenance computer 500 used by maintenance personnel via the local controller 310 . The maintenance information includes input/output signal information and parameter information. The input/output signal information is signal information related to control operations that can be displayed on the maintenance computer 500 . Parameter information is information for changing control operations on the maintenance computer 500 . In this way, in order to generate a manual containing parameter information for changing input/output signal information and control operation, which is necessary when performing maintenance of automatic control equipment, automatic control equipment with appropriate contents regarding maintenance operating instructions can be generated.

(5) The memory 12 stores explanatory note format data as a template corresponding to the control action. Since the CPU 11 generates a description of the indoor temperature control based on the description format data and the equipment information regarding the indoor temperature detector and the cold/hot water two-way valve, it is possible to generate an operation manual with uniform contents. can.

(6) The memory 12 further stores a plurality of explanatory diagram data (temperature 1.JPG to temperature 12.JPG, etc.). The CPU 11 acquires one of a plurality of explanatory diagram data (Temperature 4. JPG, etc.) based on the device information regarding the measuring device group 411 and the control device group 412, and generates an explanatory drawing of the operation manual. As a result, it is possible to generate an operation manual for the automatic control equipment that describes the control operation, including appropriate explanatory diagrams.

(7) The manual generation method is a method for generating an operation manual for the air conditioner 410 . The air conditioner 410 includes devices (measuring device group 411, control device group 412). The manual generation method includes a step of performing indoor temperature control (control operation) using equipment. The CPU 11 acquires design drawing information related to drawings for designing the air conditioner 410 . The design drawing information includes equipment configuration information, control operation information, and equipment information. The equipment configuration information is information about the configuration of the air conditioning equipment 410 . The control action information is information about control action. The device information is information about the device. The manual generation method further includes a step of generating an operation manual (operation manual (for customer), operation manual (for maintenance)) from the acquired design drawing information. The operating instructions include a description of room temperature control using the equipment. As a result, it is possible to efficiently generate an operation manual for automatic control equipment with appropriate contents.

The embodiments disclosed this time should be considered illustrative in all respects and not restrictive. The scope of the present disclosure is indicated by the scope of claims rather than the above description, and is intended to include all changes within the meaning and scope of equivalence to the scope of claims.

1 Building management system, 10 Manual generation device, 11 CPU, 12 Memory, 21 Input device, 22 Display device, 23 Printer, 100 Server device, 200 Main controller, 310, 320 Local controller, 410, 420, 430, 440 Automatic Control equipment, 411, 421, 431, 441 Measurement equipment group, 412, 422, 432, 442 Control equipment group, 500 Maintenance computer.

Claims

A manual generation device for generating an operation manual for automatic control equipment,
a processor;
a memory that stores a program executable by the processor;
The automatic control equipment is
including equipment,
performing a control action using the device;
The processor acquires design drawing information related to drawings for designing the automatic control equipment,
The design drawing information is
Equipment configuration information about the configuration of the automatic control equipment;
control operation information about the control operation;
and device information about the device,
The processor generates the operation manual from the acquired design drawing information,
The operation manual includes a description of the control operation using the device.
the instrument comprises a plurality of measuring instruments and a plurality of control instruments;
The processor sets a corresponding measuring device corresponding to the control action among the plurality of measuring devices and a corresponding controlling device corresponding to the control action among the plurality of control devices,
The control operation is realized by controlling the corresponding control device based on the measured value of the corresponding measuring device,
2. The instruction generating apparatus according to claim 1, wherein said operation instruction includes an explanation of said control operation using said compatible measuring device and said compatible control device.
The operating instructions are
a first manual presented to a user using the automatic control facility;
and a second manual presented to maintenance personnel who maintain the automatic control equipment,
The second manual includes maintenance information for the automatic control equipment,
3. The description generating apparatus according to claim 2, wherein said processor generates said first description and said second description from said acquired design drawing information.
The automatic control equipment is
configured to communicate with the controller,
configured to communicate with a maintenance device used by the maintenance personnel via the controller;
the maintenance information includes input/output signal information and parameter information;
The input/output signal information is signal information related to the control operation that can be displayed on the maintenance device;
4. The manual generation device according to claim 3, wherein said parameter information is information for changing said control operation on said maintenance device.
the memory stores a template corresponding to the control operation;
5. The processor according to any one of claims 2 to 4, wherein the processor uses the template and the device information about the corresponding measuring device and the corresponding control device to generate a description of the control operation. Manual generator.
The memory further stores a plurality of explanatory diagram data,
The processor acquires any one of the plurality of explanatory diagram data using the device information about the corresponding measuring device and the corresponding control device, and generates the explanatory diagram of the operation manual. The instructions generation device according to any one of claims 2 to 5.
A manual generation method for generating an operation manual for automatic control equipment,
The automatic control equipment is
including equipment,
performing a control action using the device;
The instruction manual generation method includes a step of acquiring design drawing information related to drawings for designing the automatic control equipment,
The design drawing information is
Equipment configuration information about the configuration of the automatic control equipment;
control operation information about the control operation;
and device information about the device,
The instruction manual generation method further includes a step of generating the operation manual from the acquired design drawing information,
The method of generating a manual, wherein the operation manual includes a description of the control operation using the device.