JP3585414B2 - Automatic test run monitoring device and automatic test run monitoring method for gas central heating system - Google Patents

Description

[0001]
TECHNICAL FIELD OF THE INVENTION
The present invention relates to an apparatus and a method for performing an automatic test operation of connected equipment in a gas central heating (GCH) system, and more particularly to a failure diagnosis capable of monitoring a test operation state of a GCH terminal equipment connected to a heat source device constituting the GCH. Equipment related.
[0002]
[Prior art]
In recent years, gas central heating (GCH) systems have become widespread. In the GCH system, a heat source having a relatively large capacity supplies hot water to a GCH terminal device such as a floor heating panel, an air conditioner, and a dryer, in addition to hot water to a bath, a kitchen, a washroom, and the like.
[0003]
Accordingly, the heat source unit is connected to a bath, a kitchen, and a toilet via a hot water supply pipe, and is also connected to a GCH terminal device via a hot water supply pipe which is a circulation path. The heat source unit is connected to a bath remote control and a kitchen remote control through a communication line in the same manner as a normal water heater, and performs a predetermined combustion operation such as automatic filling or reheating in response to an operation request from the remote control. Do.
[0004]
Further, the heat source unit is also connected to a remote control and a control panel of the GCH terminal device through a communication line, and performs a corresponding combustion operation in response to an operation request from the remote control and the control panel.
[0005]
Such a GCH system requires a trial operation at the time of completion of the laying work to confirm the correct functioning operation. Alternatively, at the time of failure repair, a test operation is required to find out which device is the cause of the malfunction. Such a test operation is automated, but when a plurality of GCH terminal devices are connected to the heat source device, the time required for the operation check test of each terminal device is long, so the operation check of all the GCH terminal devices is performed. That takes more time.
[0006]
[Problems to be solved by the invention]
On the other hand, the heat source device of the GCH system is provided with a communication board for accommodating a communication line for a communication line connecting to a terminal device to be connected. This communication board has a connector for connection, and a communication line with a GCH terminal device to be connected is connected to the connector for connection. Further, a CPU and communication means as control means for monitoring the state of the connected GCH terminal equipment are provided in the heat source unit of the GCH system.
[0007]
Conventionally, the operator has checked the status and results of the automatic test run for checking the operation of the GCH terminal device from the switch state and the lighting state of the display lamp provided on the communication board.
[0008]
However, the switch state and the lighting state of the display lamp are not provided one-to-one with respect to all of the connected devices, and the operator cannot confirm during the course of the automatic test run that requires a long time. Was. Then, as the number of GCH terminal devices connected to the heat source device increases, the time required for the test operation increases, and it becomes more difficult to grasp the operating state during the course.
[0009]
Accordingly, an object of the present invention is to provide an automatic test run monitoring device and method for a gas central heating system that solves the problem that it is difficult to grasp the progress during the test run.
[0010]
Furthermore, an object of the present invention is to provide an automatic test run monitoring device and an automatic test run monitor device that can easily grasp the automatic test run state and the result of the gas central heating system for each terminal device, particularly using a monitor device such as a failure diagnosis device. It is to provide a method.
[0011]
[Means for Solving the Problems]
An automatic test run monitoring device of a gas central heating system which achieves the object of the present invention is characterized by a gas central heating system having a heat source device, and a terminal device connected to the heat source device via a hot water supply pipe and communication means in the system. A monitor device for monitoring an automatic test run of a system, wherein the heat source device has a storage unit for storing an automatic test run program and a control unit for executing and controlling the automatic test run program, and a communication board provided in the heat source device Means for collecting terminal equipment information connected to the heat source device sent from the communication board through the communication means, and terminal equipment collected by the means for collecting terminal equipment information A monitor for displaying a name, and the automatic test run program selected from terminal devices displayed on the monitor The communication device notifies the communication board of a terminal device to be executed by the test operation, receives the execution result of the automatic test operation program from the communication board, and monitors the execution result of the received automatic test operation program by the monitor. And a control means for controlling the display.
[0012]
Further, in order to achieve the above object, one aspect of the present invention is characterized in that the control means displays an execution result of the automatic test run program for each terminal device on which the automatic test run program is executed. I do.
Further, in order to achieve the above object, another aspect of the present invention relates to a terminal device for a test run, in which the control means executes all of the terminal devices displayed on the monitor by the automatic test run program. It is characterized in that it is possible to select all at once.
[0013]
Furthermore, one aspect of the present invention is characterized in that the control means performs display control of the execution progress of the automatic test run program in correspondence with a terminal device to be executed by the automatic test run program.
[0014]
Further features of the present invention will be apparent from embodiments of the present invention described with reference to the following drawings.
[0015]
BEST MODE FOR CARRYING OUT THE INVENTION
Hereinafter, embodiments of the present invention will be described with reference to the drawings. However, such embodiments do not limit the technical scope of the present invention. In the drawings, the same or similar components will be described with the same reference numerals or reference symbols.
[0016]
FIG. 1 is a diagram for explaining the relationship between the configuration of an embodiment of a GCH system to which an automatic test run monitoring device and method of the present invention is applied, and a failure diagnosis device as an automatic test run monitor device independent of a heat source. .
[0017]
In the following embodiment, an example in which a bath, a floor heating panel, a bath dryer, and two air conditioners are connected to a heat source device as terminal devices of the GCH system will be described.
In FIG. 1, a GCH system includes a heat source device 1 that burns fuel such as gas to supply hot water or circulates hot water, and a plurality of GCH terminal devices connected thereto, such as a floor heating panel 60, a bath dryer 64, and an air conditioner. 68, an air conditioner 72 and a bath 50.
[0018]
The heat source unit 1 includes a hot water supply path 11 for supplying hot water to a bath, a kitchen, and a washroom and a heat exchanger 10 thereof, and a hot water supply path 14 for supplying circulating hot water to other GCH terminal devices and a heat exchanger 13 thereof. Each of the heat exchangers is provided with combustion burners 12, 15 for burning fuel such as gas.
[0019]
A water supply pipe (not shown) and a hot water tap are connected to the first hot water supply path 11, and when the hot water tap is opened, water is supplied from the water supply pipe into the hot water supply path 11, and in response thereto, the burner 12 burns to supply hot water. Hot water is supplied to the tap. Hot water taps are provided in kitchens, washrooms, baths, and the like.
[0020]
Further, the first hot water supply path 11 supplies hot water to the bath 50 via the on-off valve 16 and the additional heating circulation path 53. The reheating circuit 53 is connected to the reheating heat exchanger 19, and the hot water in the bathtub is heated by heat exchange from the hot water that bypasses the second hot water supply path 14.
[0021]
In addition, the second hot water supply path 14 is connected to the floor heating panel 60, the bath dryer 64, and the air conditioners 68 and 72 via respective circulation paths connected to the going header 80 and the return header 81, respectively. Hot water is circulated through these circuits in response to requests from terminal devices.
[0022]
The circulation of hot water to the terminal equipment is performed through on-off valves 62, 66, 70, 74 composed of thermal valves provided in respective circulation paths. These thermal valves are opened and closed by driving from a control microcomputer 21 in the heat source device 1.
[0023]
The GCH terminal devices are provided with control microcomputers 61, 65, 69, and 73, respectively, and are connected to the communication microcomputer 22 in the heat source device 1 via a communication line. In the case of the floor heating panel 60, the microcomputer 61 is a floor heating remote controller, in the case of the bath dryer 64, the microcomputer 65 is a control device, and in the case of the air conditioners 68 and 72, the microcomputers 69 and 73 are controlled. Device. The bath remote controller 51 is also formed of a microcomputer and can communicate with the communication microcomputer 22 of the heat source unit 1.
[0024]
The control microcomputer 21 provided in the heat source unit 1 monitors the output of a sensor inside the heat source unit in response to operation commands from the remote controllers 51 and 61 and the control devices 65, 69 and 73 of the GCH terminal. Drive the actuator inside the machine.
The actuator includes, for example, a gas solenoid valve of a combustion burner, an ignition igniter (not shown), circulation pumps 17 and 18, a bath hydrant 16, and thermal valves 62, 66, 70 and 74 that open circulation paths to respective terminals. The sensors are, for example, a water inlet temperature of the hot water supply channels 11 and 14, a hot water temperature sensor (not shown), a rotation speed sensor (not shown) of a combustion fan, and the like.
[0025]
The control microcomputer 21 is connected to a nonvolatile memory 54 in which various parameters and set values of the heat source device are recorded. Further, the password of the heat source device 1 is also stored in the nonvolatile memory 54. The control microcomputer 21 receives a command signal from each terminal, a monitor signal, a command signal from a remote controller, and the like via the communication microcomputer 22, and transmits a signal indicating an operation state or an error. The control microcomputer and the communication microcomputer may be realized by an integrated microcomputer.
[0026]
When a hot water tap in a kitchen or a toilet is opened, or an operation command is issued from a bath remote controller, the control microcomputer 21 starts the combustion operation of the combustion burner 12, and performs the same combustion control as a normal water heater. Done.
[0027]
When an operation command is issued from the GCH terminal device, the operation command is transmitted to the communication microcomputer 22. The communication between the microcomputer of each terminal and the communication microcomputer 22 is intelligent communication performed according to a common protocol determined in advance between manufacturers.
[0028]
Upon receiving the operation command, the communication microcomputer 22 transmits the operation command to the control microcomputer 21. In response, the control microcomputer 21 controls to open the thermal valve of the terminal that has issued the operation command, and performs corresponding combustion control.
[0029]
In the present embodiment, as a device for realizing the test run monitoring device function according to the present invention, a failure diagnosis device 2 composed of a portable information terminal such as a notebook personal computer is connected via a protocol conversion device 3 to a control microcontroller in the heat source device 1. Connected to computer 21.
[0030]
For this purpose, the heat source device 1 is provided with a connector 23 for connecting a communication cable 26. The connector 23 is hardware not provided in a conventional general heat source device.
[0031]
The failure diagnosis device 2 of the present embodiment is a portable information terminal such as a general-purpose notebook personal computer. Therefore, since it operates on a standard OS such as Windows 95 or Windows NT (both are trademarks of Microsoft Corporation), its communication protocol is also a standard protocol.
[0032]
On the other hand, the control microcomputer 21 in the heat source unit 1 to be subjected to the failure diagnosis is configured with different specifications for each manufacturer, and the communication protocol that can be supported may be a unique specification different from the standard protocol. Many. The communication function of the microcomputer 21 is normally developed for an operation test at the time of a shipping test at a manufacturer, and therefore, a communication protocol and a password are different for each manufacturer.
[0033]
Therefore, in the present embodiment, a protocol conversion device 3 is interposed between the failure diagnosis device 2 and the water heater 1, and the protocol conversion is performed between a message according to a standard protocol and a message according to a protocol unique to the water heater. I have.
[0034]
The protocol conversion device 3 has connectors 31 and 32 and protocol conversion means 30 composed of a microcomputer or the like. The protocol conversion means 30 has a CPU, a RAM, a ROM containing a program conversion program, an input / output buffer BUF, and the like. A communication control memory area in the memory RAM is replaced with a communication control memory area including a predetermined register. In addition, parameters of a communication protocol of the water heater required for protocol conversion are recorded.
[0035]
The control microcomputer 21 of the heat source device 1 contains a control program. The control program includes, for example, a combustion control sequence program for controlling a combustion sequence corresponding to an operation requested by each remote controller or terminal, and a communication control program for communicating with the failure diagnosis device 2. By having this communication control program, communication can be performed with the failure diagnosis device 2 and automatic failure diagnosis can be performed.
[0036]
Further, the control program includes a program for controlling an automatic test run to be monitored in accordance with the present invention described in detail later.
[0037]
When the control microcomputer 21 in the heat source unit 1 receives a predetermined command signal such as hot water supply and operation from the remote controller, the microcomputer of the GCH terminal device, and the failure diagnosis device 2, for example, it executes the control program. The indicated flag is recorded in the built-in RAM.
[0038]
Then, the built-in combustion control sequence program executes the control program corresponding to the command signal with reference to the flag. Further, the combustion control sequence program detects the state of the sensor from the sensor output data recorded in the built-in RAM, and writes data for instructing driving of an actuator necessary for combustion control to a corresponding area in the built-in RAM. . The control microcomputer 21 gives a command signal to the actuator in the heat source device with reference to the command data written in the built-in RAM.
[0039]
Accordingly, the failure diagnosis device 2 instructs desired combustion control necessary for failure diagnosis by rewriting information in the RAM incorporated in the microcomputer 21 in the heat source device 1 using communication means. By reading information from the RAM, it is possible to monitor the corresponding sensor output and the state in the water heater.
[0040]
For this purpose, the failure diagnosis device 2 is provided with a keyboard 28 and a monitor screen 27 as input means, and further, a communication port 29.
[0041]
The communication port 29 of the failure diagnosis device 2 is connected to the protocol conversion device 3 via the RS232C cable 27. Then, the protocol conversion device 3 is connected to the connector 23 of the heat source device 1 via another cable 26.
[0042]
FIG. 2 is a diagram illustrating a configuration example in the failure diagnosis device 2. 1 are given the same reference numbers. The failure diagnosis device 2 has the above-mentioned monitor screen 27, keyboard 28, connector terminal 29 as a communication port, CPU 30, hard disk 31 as a file storage device, and main memory 32 as hardware.
[0043]
Application software that receives an input from the keyboard 28 as a part of an information file stored in the hard disk 31 together with the OS and performs necessary display on the monitor screen 27 is included. Further, data for providing a common failure diagnosis menu screen to a repair worker by such application software is also stored in the hard disk 31.
[0044]
Further, a communication control program for performing communication via a cable connected to the connector terminal 29 is also included as a part of the information file stored in the hard disk 31. This communication control program creates a message format and communicates with the outside according to a standard communication protocol according to a general-purpose OS.
[0045]
Further, the information file also has a failure diagnosis program for the GCH terminal device. As described later, the test operation monitoring method according to the present invention is also realized as a part of the execution by the failure diagnosis program.
[0046]
FIG. 3 is a diagram showing a front panel of one embodiment of a communication board provided with the control microprocessor 21 and the communication microprocessor 22 of the heat source device 1 and provided in the heat source device 1.
[0047]
As described above with reference to FIG. 1, the communication microprocessor 22 is connected to the control microcomputers 61, 65, 69, and 73 of the corresponding GCH terminal devices through the communication line. Therefore, the communication board is provided with a plurality of connectors 1 to n for terminating communication lines.
[0048]
When the installation of the GCH system is completed or the maintenance is completed, a test operation for confirming the operation of the GCH terminal device connected to the heat source device 1 is performed. At this time, the conventional method is performed using the communication substrate shown in FIG. FIG. 4 is an operation flow of the automatic test run according to the conventional method.
[0049]
The communication board is provided with switches SW1 to SWn for starting the trial operation and corresponding display lamps LED1 to LEDN for each system of the heating and cooling equipment, the floor heating equipment and the hot water supply equipment.
[0050]
When the automatic test run is started, the operator presses the switch SWi (i = 1 to n) corresponding to the test run target device on the communication board (step S10). Next, the pressed switch SWi is turned on (step S11). Thus, the control microprocessor 21 executes the test program as a part of the control program set in the communication board.
[0051]
Then, when the test program is executed by the execution of the test program and the system of the target device is normally operated, the corresponding lamps of the corresponding display lamps LED1 to LEDn are turned on (step S12).
[0052]
This process will be described in more detail. In FIG. 4, it is determined whether or not an error has occurred in the heat source device 1 (step S100). If no error has occurred in the heat source device 1, water is injected into the connection terminal i (step S101). If the water injection operation is normal (step S102), the connection terminal i is heated (step S103). Next, it is determined whether or not the heating operation has ended normally (step S104). In this determination, information indicating whether or not the processing has been normally completed is temporarily stored in a memory attached to the control processor 21 of the heat source device 1.
[0053]
When the heating operation is completed, it is determined whether there is a cooling operation terminal (step S105). When the cooling / heating device is selected, the cooling operation of the connection terminal i is performed (Step S106). Next, it is determined whether the cooling operation is normally completed (step S107).
[0054]
Here, if it is recorded that the cooling operation has been completed normally and the heating operation has been completed normally, the OK lamp corresponding to the heating / cooling equipment system as the test operation target (for example, LED1 in FIG. 4) ) Lights up (step S12). Next, the i-th SWi lamp is turned off (step S13). If there is another test drive terminal. The above processing is continued (step S14).
[0055]
Here, in the case of the conventional communication board, the OK lamp is not turned on even if any one of the heating device and the cooling device among the heating and cooling device-related devices has a failure.
[0056]
That is, the heating / cooling device has a heating device and a cooling device. For example, when a heating device is connected to the connection connector 1 and a cooling device is connected to the connection connector 2, the test operation is continuously performed on these devices. Then, when each device is operating normally, the corresponding lamp LED1 is turned on. When one or both of the heater and the cooler do not operate normally, the lamp LED1 is not turned on.
[0057]
Therefore, when the lamp LED1 is not turned on, it is difficult to determine which of the heating device and the cooling device is the failure, or whether both are the failures.
[0058]
As described above, since the test operation required for one device system is long, when a plurality of device systems are to be tested, only the display of the communication board in FIG. It is difficult to know the process, and it is not easy for the operator to know which stage of the trial operation is being executed.
[0059]
On the other hand, the execution of the test run program is not limited to the time of installation of the GCH system, and is also executed at the time of failure repair. At this time, if the operator is different from the setter of the GCH system, it is not easy for the operator to know which device is connected to which of the plurality of connectors on the communication board.
[0060]
Therefore, the present invention is characterized in that the failure diagnosis device 2 described above as one embodiment is used as a test operation monitor device.
[0061]
FIG. 5 is an example of a display screen of the monitor screen 27 when the failure diagnosis device 2 functions as a test operation monitoring device as one embodiment of the present invention. The device name, the test operation status corresponding to the device name, the test operation time, and the corresponding execution button are displayed.
[0062]
In the example illustrated in FIG. 5, for example, the test operation for the device having the device name XX-YYYY listed in the number 1 has not been performed. The device with the device name YY-ZZZZ listed in the number 2 is a heating / cooling device, which indicates that the operation of the heater has failed and the operation of the cooling device has been successful. Therefore, the worker can easily recognize that the heating / cooling device with the device name YY-ZZZZ has a failure in the heating function.
[0063]
Further, it is shown that the test operation for the device having the device name PP-QQQQ listed in the number 3 is being executed, and the test operation process up to 40% has been completed after 50 minutes.
[0064]
As described above, the operator can easily grasp the test operation status of each device by looking at the monitor screen 27 when functioning as the test operation monitor device.
[0065]
FIG. 6 is a flowchart of a test operation according to the present invention for performing such display. First, the failure diagnosis device 2 obtains information on the connected terminal device from the heat source device 1 (step S1).
[0066]
In the heat source device 1, the control processor 21 accommodated in the communication panel communicates with the microprocessor of each terminal device at predetermined time intervals, and information on the corresponding terminal device connected to each other is obtained. Therefore, when the test operation is commanded, the failure diagnosis device 2 collects information on the connected devices under the control of the control processor 21 and displays a list of the names of the connected devices on the monitor screen as described above (step S1). S2).
[0067]
Next, the operator selects and instructs a device to be tested from among the plurality of test devices displayed in the list (step S3). The failure diagnosis device 2 notifies the control processor 21 on the communication board of the heat source device 1 of the selected device name through the communication means 26 (step S4).
[0068]
As a result, in the heat source device 1, the test operation program flow is executed for the notified terminal device (step S5). Here, the test run program flow is executed such that the test run program flow of FIG. 7 generates data corresponding to the display screen of FIG. 5 instead of the flow of FIG. 4 described above. In FIG. 7, the same processes as those in FIG. 5 are denoted by the same process step numbers.
[0069]
When the automatic test run is started, the operator presses the switch SWi (i = 1 to n) corresponding to the device to be tested on the communication board (step S10). Here, when the test operation is performed on all the terminal devices, all the devices connected to the heat source device 1 are to be subjected to the automatic test simply by pressing the all device execution button on the monitor screen shown in FIG. Can be.
[0070]
Next, the pressed switch SWi is turned on (step S11). Thus, the control microprocessor 21 executes the test program as a part of the control program set in the communication board.
[0071]
When the test program is executed by the execution of the test program and the system of the target device is normally operated, the corresponding lamps (see FIG. 3) of the corresponding display lamps LED1 to LEDn of the communication board are turned on (step S12). ).
[0072]
This process will be described in more detail. In FIG. 7, it is determined whether or not an error has occurred in the heat source device 1 (step S100). If no error has occurred in the heat source device 1, water is injected into the connection terminal i (step S101). If the water injection operation is normal (step S102), the connection terminal i is heated (step S103). Next, it is determined whether or not the heating operation has ended normally (step S104).
[0073]
Here, unlike the processing of FIG. 4, the result of the determination of whether or not the processing has been completed normally in step S102 and the result of the determination of whether or not the processing has been completed normally in step S104 are made each time the determination is made. Is notified to the failure diagnosis device 2 (step S110).
[0074]
When the heating operation is completed, it is determined whether there is a cooling operation terminal (step S105). When the cooling / heating device is selected, the cooling operation of the connection terminal i is performed (Step S106). Next, it is determined whether the cooling operation is normally completed (step S107).
[0075]
Also for this heating operation, an operation result is notified from the control processor 21 to the failure diagnosis device 2.
[0076]
Here, if the cooling operation has been completed normally and the completion of the heating operation has been recorded in advance, an OK lamp corresponding to the heating / cooling equipment system as the test operation target is provided on the communication board (for example, , LED1 in FIG. 4) is turned on (step S12).
[0077]
When the automatic test run switch SWi is turned on in step S11 (step S11), the CPU 30 starts counting the test run time elapsed timer (step S113). The test operation time elapsed timer may be provided in the failure diagnosis device 2 or on the control processor 21 side.
[0078]
Next, the i-th SWi lamp on the communication board is turned off (step S13). If there is another test run terminal, the above processing is continued (step S14). At this time, the test operation time elapsed timer is reset before starting the automatic test of the next device (step S112).
[0079]
Returning to FIG. 6, the test run time elapsed data by the test run time elapsed timer is notified to the failure diagnosis device 2, and the test run time of the corresponding device is displayed on the monitor screen (step S6). In the example of FIG. 5, a ratio numeral until completion is displayed together with the elapsed time of the test operation.
[0080]
In the failure diagnosis device 2, the control processor 21 collects the automatic test results and notifies the failure diagnosis device 2 (step S7). The failure diagnosis device 2 displays the automatic test result based on the result, as shown in the monitor screen of FIG. 5 (step S8).
Such a process is performed for all devices, and the process ends (step S9).
[0081]
【The invention's effect】
As described above, according to the present invention, it is possible to display the test operation status of the GCH device and the target device for the test operation result using the failure diagnosis device 2. Thus, it is possible to easily grasp the situation of the trial operation requiring time.
[0082]
The scope of protection of the present invention is not limited to the above-described embodiment, but extends to the inventions described in the claims and their equivalents.
[Brief description of the drawings]
FIG. 1 is a diagram illustrating an example of a GCH system and a failure diagnosis device.
FIG. 2 is a diagram showing a configuration inside a failure diagnosis device.
FIG. 3 is an example of a test run test monitor screen of a communication board.
FIG. 4 is a diagram illustrating a test operation test operation flow using only a communication board.
FIG. 5 is an example of a monitor screen of a test run test by the failure diagnosis device according to the present invention.
FIG. 6 is a flowchart illustrating an operation of a test run test by the failure diagnosis device according to the present invention.
FIG. 7 is a diagram illustrating a test operation test operation flow according to the present invention.
[Explanation of symbols]
1 heat source machine
2 Failure diagnosis device
3 Protocol converter
21 Control Processor
22 Communication processor
40 General-purpose middleware application (program)
42 Information File
44 Manufacturer call order file
60 Floor heating panel (GCH terminal equipment)
64 Bath dryer (GCH terminal equipment)
68,73 Air conditioner (GCH terminal equipment)

Claims (6)

A monitor device for monitoring an automatic test run of a gas central heating system having a heat source device and a plurality of terminal devices connected to the heat source device via a hot water supply pipe and communication means in the system,
The heat source unit has a storage unit for storing an automatic test run program and a control unit for executing and controlling the automatic test run program, and is connected via a communication unit to a communication board provided in the heat source unit,
Means for collecting the information of the plurality of terminal equipment connected to the heat source machine is sent through the communication means from the vent credit substrate,
A monitor for displaying the terminal device name that is collected by means of collecting information information of the terminal equipment of said plurality of,
The communication means notifies the communication board of a terminal device to be executed by the automatic test operation program selected from the plurality of terminal devices displayed on the monitor and to be executed by the automatic test operation program. A monitoring device for monitoring an automatic test run of a gas central heating system, comprising: control means for receiving from a communication board and displaying the execution result of the received automatic test run program on the monitor. 2. The monitoring device according to claim 1, wherein the control unit displays an execution result of the automatic test operation program for each terminal device on which the automatic test operation program is executed. . 2. The gas central heating device according to claim 1, wherein the control unit enables all of the plurality of terminal devices displayed on the monitor to be collectively selectable as a terminal device to be executed by the automatic test operation program as a test operation target. A monitoring device that monitors the automatic commissioning of the operating system. In claim 1,
A monitoring device for monitoring an automatic test run of a gas central heating system, wherein the control means performs display control on the execution progress of the automatic test run program corresponding to a terminal device to be executed by the automatic test run program. An automatic test operation system of a gas central heating system having a heat source device and a plurality of terminal devices connected to the heat source device via a hot water supply pipe and communication means in the system,
The heat source unit includes a storage unit that stores an automatic test run program and a control unit that controls execution of the automatic test run program,
Having a monitor device connected via communication means to a communication substrate provided in the heat source device,
The monitoring apparatus comprises means for collecting information of the plurality of terminal equipment connected to the heat source machine is sent through the communication means from the communication board,
A monitor for displaying the terminal device name that is collected by the means for collecting information of the plurality of terminal devices,
The communication means notifies the communication board of a terminal device to be executed by the automatic test operation program selected from the plurality of terminal devices displayed on the monitor and to be executed by the automatic test operation program. An automatic test run system for a gas central heating system, comprising: control means for receiving from the communication board and displaying the execution result of the received automatic test run program on the monitor. On the heat source device side, an automatic test operation program for executing an automatic test operation of a plurality of terminal devices connected via the heat source device and the hot water supply pipe and the communication means in the system is stored,
A monitor device is connected to the heat source device via communication means,
In the monitoring apparatus to collect information of a plurality of terminal equipment connected to the heat source machine it is sent through the communication means,
Displaying a plurality of terminal devices name that is the collection, select the terminal equipment commissioning target to be executed by the automatic commissioning programs from a plurality of terminal devices that are the display,
Notify the terminal device of the selected test operation target to the heat source device side,
For the notified terminal device of the test run, the automatic test run program is executed,
Receiving the execution result of the automatic test run program on the monitor device side,
A method of monitoring an automatic test run of a gas central heating system, wherein an execution result of the received automatic test run program is displayed corresponding to the selected terminal device to be tested.

Images