Cubicle management system, cubicle management method, and program

Abstract

To enable referencing or sharing of intuitive judgment results based on experience of inspectors in cubical inspection.SOLUTION: A cubicle management system is provided, comprising: intuitive information acquisition unit for acquiring intuitive information entered to a terminal device by an inspector regarding inspection of a cubicle, the intuitive information being designed to rank the level of judgment regarding the inspection by the inspector; and a registration unit for registering the intuitive information.SELECTED DRAWING: Figure 4

Description

[Technical Field]

[0001] The present invention relates to a cubicle management system, a cubicle management method, and a program. [Background technology]

[0002] Cubicle management systems that manage cubicle-type high-voltage power receiving equipment using a database on a cloud server are known (for example, Patent Documents 1 and 2). In the system described in Patent Document 1, data on the power received by the cubicle is stored on the cloud server, allowing relevant parties to access the data as needed. In the system described in Patent Document 2, measurement information from multiple cubicles is stored and managed as historical information on a network, and alarm conditions are created for different cubicles based on the historical information. [Prior art documents] [Patent documents]

[0003] [Patent Document 1] Japanese Patent Application Publication No. 2017-103866 [Patent Document 2] Patent Publication No. 2021-64384 Summary of the Invention [Problem to be solved by the invention]

[0004] Although there are guidelines for when to replace equipment for each type of equipment, the subjective judgment of inspectors based on their experience plays a large role in determining the degree of equipment deterioration. Even if sufficient past inspection data remains in the database, the degree of deterioration may not be determined correctly if only the inspection data is referenced without sharing sensory information based on subjective judgment. As a result, deterioration in the installation environment may progress more than expected, causing breakdowns or malfunctions, leading to unexpected power outages.

[0005] To more accurately determine the degree of deterioration of equipment, it is necessary to be able to refer to sensory information based on the subjective judgment of the inspector. In particular, when safety management is handed over, the sensory judgment results based on the experience of previous inspectors must be shared with the successor inspector. However, if the sensory judgment results are not saved as data, it is difficult to refer to or share the sensory judgment results. When inspecting cubicles, it is necessary to refer to or share the sensory judgment results based on the inspector's experience.

[0006] The present invention has been made in consideration of the above points, and provides a cubicle management system, cubicle management method, and program that allow inspectors to refer to or share the results of their judgments based on their senses and experience when inspecting cubicles. [Means for solving the problem]

[0007] The present invention has been made to solve the above-mentioned problems, and one aspect of the present invention is a cubicle management system that includes a sensory information acquisition unit that acquires sensory information input into a terminal device by an inspector regarding a cubicle inspection, the sensory information indicating the degree of judgment made by the inspector regarding the inspection by a rank, and a registration unit that registers the sensory information.

[0008] In addition, one aspect of the present invention is that in the above-mentioned cubicle management system, the sensory information is information input into the terminal device by the inspector regarding a first inspection of an inspection target among the parts that make up the cubicle, and indicates the degree of deterioration of the inspection target by a rank.

[0009] In addition, one aspect of the present invention is that, in the above-mentioned cubicle management system, an inspection information generation unit is further provided which generates inspection information for a second inspection of the inspection object to be performed at a later time than the first inspection based on the sensory information.

[0010] In addition, one aspect of the present invention is that, in the above-mentioned cubicle management system, it further includes a measurement information acquisition unit that acquires measurement information indicating the measurement results obtained by a measuring instrument in the first inspection, and the inspection information generation unit generates the inspection information based on the measurement information and the sensory information.

[0011] In one aspect of the present invention, in the above-mentioned cubicle management system, the inspection information includes a list of inspection items in the second inspection according to the rank indicated by the sensory information.

[0012] In one aspect of the present invention, in the cubicle management system, the inspection information includes work procedure information for the second inspection linked to the inspection item.

[0013] In addition, one aspect of the present invention is that, in the above-mentioned cubicle management system, the inspection information includes notification information for notifying about the second inspection, and the system further includes a notification unit that notifies about the second inspection based on the notification information.

[0014] In addition, one aspect of the present invention is that in the above-mentioned cubicle management system, the cubicle is a first cubicle, and if the work procedure information as the inspection information generated for a second cubicle installed near the first cubicle differs from the work procedure information registered for the first cubicle, the system further includes an inspection information management unit that newly registers the work procedure information for the second cubicle as the inspection information.

[0015] Furthermore, one aspect of the present invention is that in the above-mentioned cubicle management system, the sensory information is information input by the inspector into the terminal device based on the weather at the time the inspection is to be performed, and indicates the degree of the inspector's judgment as to whether or not the inspection can be carried out by a rank.

[0016] Furthermore, one aspect of the present invention is that in the above-mentioned cubicle management system, the sensory information acquisition unit acquires the sensory information entered by the inspector into a form that is entered by selecting from options on an input screen displayed on the terminal device.

[0017] In one aspect of the present invention, in the above-mentioned cubicle management system, the sensory information acquisition unit acquires the sensory information input by the inspector as voice to the terminal device based on voice recognition.

[0018] Another aspect of the present invention is a cubicle management method that includes a sensory information acquisition step for acquiring sensory information input into a terminal device by an inspector regarding a cubicle inspection, the sensory information indicating the degree of judgment made by the inspector regarding the inspection by a rank, and a registration step for registering the sensory information.

[0019] Another aspect of the present invention is a program for causing a computer to execute a sensory information acquisition step for acquiring sensory information input into a terminal device by an inspector regarding a cubicle inspection, the sensory information indicating the degree of judgment made by the inspector regarding the inspection by a rank, and a registration step for registering the sensory information. [Effects of the Invention]

[0020] According to the present invention, when inspecting a cubicle, the results of judgment made by an inspector based on his or her experience and sense can be referred to or shared. [Brief explanation of the drawings]

[0021] [Figure 1] 1 is a diagram showing an example of the configuration of a cubicle management system 1 according to a first embodiment of the present invention. [Figure 2] 1 is a diagram showing an example of an outline of processing of a cubicle management system 1 according to a first embodiment of the present invention. [Figure 3] FIG. 2 is a diagram showing an example of an input screen P1 according to the first embodiment of the present invention. [Figure 4] 1 is a diagram showing an example of a functional configuration of a cubicle management system 1 according to a first embodiment of the present invention. [Figure 5] 2 is a diagram illustrating an example of a functional configuration of a terminal device 3 according to the first embodiment of the present invention. FIG. [Figure 6] FIG. 3 is a diagram showing an example of a flow of generating inspection information according to the first embodiment of the present invention. [Figure 7] FIG. 2 is a diagram showing an example of an inspection information generation table E1 according to the first embodiment of the present invention. [Figure 8] FIG. 3 is a diagram showing an example of a countermeasure method as work procedure information according to the first embodiment of the present invention. [Figure 9] FIG. 2 is a diagram showing an example of an inspection item list D2 according to the first embodiment of the present invention. [Figure 10] FIG. 10 is a diagram showing an example of the configuration of a cubicle management system 1a according to a second embodiment of the present invention. [Figure 11] 1 is a diagram illustrating an example of a functional configuration of a cubicle management system 1a according to a first embodiment of the present invention. DETAILED DESCRIPTION OF THE INVENTION

[0022] (First embodiment) Hereinafter, an embodiment of the present invention will be described in detail with reference to the drawings. FIG. 1 is a diagram showing an example of the configuration of a cubicle management system 1 according to this embodiment. The cubicle management system 1 is a system for registering sensory information B1 that indicates, by rank, the degree of judgment made by an inspector (also referred to as a safety manager) regarding the inspection of cubicle-type high-voltage power receiving equipment (hereinafter referred to as a cubicle). The cubicle management system 1 has a database A1 for managing various information such as the sensory information B1 and inspection items. The cubicle management system 1 is, for example, a cloud server. The cubicle management system 1 is managed by a cubicle manufacturer.

[0023] Figure 1 shows a cubicle 2 as an example of a cubicle. A cubicle is a facility that houses a set of equipment in a metal outer box for converting high-voltage commercial power supplied by an electric power company or the like into power with a voltage or frequency that matches the specifications of the load equipment of an electric power consumer.

[0024] The terminal device 3 is a terminal device used by an inspector. As an example, the terminal device 3 is a mobile terminal such as a laptop computer, a smartphone, or a tablet terminal. The inspector uses the terminal device 3 to input sensory information B1. The inspector also uses the terminal device 3 to check various information such as inspection items registered in the database A1. The terminal device 3 communicates with the cubicle management system 1 via the Internet established by the communication network N1.

[0025] 2 is a diagram showing an example of an outline of the processing of the cubicle management system 1 according to this embodiment. The processing of the cubicle management system 1 includes the registration of sensory information B1 by an inspector and the generation of inspection information D1 based on the sensory information B1.

[0026] First, the procedure for registering sensory information B1 by an inspector will be described. The inspector checks the inspection items for inspecting cubicle 2 (step S1). The inspector displays the inspection items on a display screen provided on terminal device 3. The inspection items are registered in database A1, and are output from cubicle management system 1 to terminal device 3 in response to a request from terminal device 3.

[0027] The inspector inspects the parts that make up the cubicle 2 according to the inspection items. The inspection items include, for example, the various devices and cables housed in the cubicle 2. The inspector judges the degree of deterioration of the inspection items by feel.

[0028] The inspector inputs the result of his / her sensory judgment as sensory information B1 into the terminal device 3 (step S2). The inspector inputs the sensory information B1 into a form in an input screen P1 displayed on the terminal device 3. An example of the input screen P1 is shown in FIG.

[0029] The inspector inputs the sensory information B1 by selecting the result of his / her sensory judgment from four ranks, for example, "A: Sound," "B: Observe," "C: Caution required," and "D: Replacement required." A form is used for this input. As an example of this form, a radio box is used.

[0030] The inspector inputs sensory information B1 for each inspection item. In the example shown in FIG. 3, the inspection target (also referred to as the inspection location) is a "disconnector," and the inspection items are a "connection point" and an "insulation section." By selecting one of the radio boxes F11 to F14, sensory information B1 is input for the "connection point." By selecting one of the radio boxes F21 to F24, sensory information B1 is input for the "insulation section."

[0031] The form for inputting the sensory information B1 may be a text box. However, since inspectors often perform cubicle inspections while standing, it is preferable that the form be a radio box to simplify the input work and reduce the time required for the input work. The form may also be a pull-down menu.

[0032] The sensory information B1 may also be input to the terminal device 3 by the inspector as voice. For example, the inspector may say something like "B. Follow-up observation" based on their judgment. By inputting by voice, the sensory information B1 can be input even when the inspector has both hands full. Furthermore, even if the inspector is not accustomed to inputting information, the information can be input without feeling bothered. Furthermore, work efficiency can be improved compared to inputting information from the input screen P1.

[0033] When the inspector has finished inputting the sensory information B1 for each inspection object, he or she registers the input sensory information B1 in the cubicle management system 1 (step S3). The inspector operates (tap, click, etc.) the registration button F3 in the input screen displayed on the terminal device 3. When the registration button F3 is operated, the terminal device 3 transmits the sensory information B1 to the cubicle management system 1. The cubicle management system 1 adds and registers the sensory information B1 received from the terminal device 3 in the database A1.

[0034] Next, the generation of inspection information D1 based on sensory information B1 will be described. The cubicle management system 1 automatically generates inspection information D1 based on sensory information B1 registered in database A1. The inspection information D1 includes, for example, an inspection item list D2, work procedure information D3, and notification information D4.

[0035] The inspection item list D2 is a list of inspection items ranked according to priority based on the degree of deterioration. As will be described later, the inspection item list D2 is linked to and includes work procedure information D3. The work procedure information D3 is information that indicates the work procedure for the inspection item. The notification information D4 is information for notifying the implementation of regular inspections. Based on the notification information D4, the implementation of regular inspections is notified from the cubicle management system 1 to the terminal device 3 by sending an email or an alert notification, etc.

[0036] In this embodiment, as will be described later, measurement information C1 is registered along with sensory information B1. The measurement information C1 indicates the results of measurements taken by a measuring instrument. Examples of measuring instruments include an ammeter, a voltmeter, various sensors, and a thermometer.

[0037] [Cubicle Management System 1 Functional Configuration] FIG. 4 is a diagram showing an example of the functional configuration of the cubicle management system 1 according to this embodiment. The cubicle management system 1 includes a sensory information acquisition unit 10, a measurement information acquisition unit 11, a registration unit 12, an inspection information generation unit 13, a notification unit 14, and a storage unit 15. As described above, the cubicle management system 1 is a cloud server. Therefore, the sensory information acquisition unit 10, the measurement information acquisition unit 11, the registration unit 12, the inspection information generation unit 13, the notification unit 14, and the storage unit 15 are realized by one or more servers. Note that the cubicle management system 1 may also be realized by a single server.

[0038] The sensory information acquisition unit 10, the measurement information acquisition unit 11, the registration unit 12, the inspection information generation unit 13, and the notification unit 14 are each realized by, for example, a CPU (Central Processing Unit) loading a program from a ROM (Read Only Memory) into a RAM (Random Access Memory) and executing processing in accordance with the program. The ROM and RAM are included in the storage unit 15.

[0039] The sensory information acquisition unit 10 acquires sensory information B1. The sensory information B1 is information input by an inspector to the terminal device 3 regarding the inspection of the cubicle 2, and is information indicating the degree of judgment made by the inspector regarding the inspection of the cubicle 2 by a rank. In one example of this embodiment, the degree of judgment is indicated by a four-level rank. Note that the degree of judgment may also be indicated by a two-level, three-level, or five or more levels of rank.

[0040] In this embodiment, the sensory information acquisition unit 10 acquires sensory information B1 input by an inspector into a form that is filled in by selecting from options on an input screen P1 displayed on the terminal device 3. In addition, when the sensory information B1 is input by the inspector into the terminal device 3 as voice, the sensory information acquisition unit 10 acquires the sensory information B1 based on voice recognition.

[0041] In one example of this embodiment, the sensory information B1 is information input by an inspector into the terminal device 3 regarding a first inspection of an inspection target among the parts that make up the cubicle 2, and is information that indicates the degree of deterioration of the inspection target by a rank. The first inspection is, for example, an inspection by a previous, experienced inspector. The second inspection is, for example, an inspection by a successor inspector who has taken over safety management. Therefore, the second inspection is performed at a later time than the first inspection. Note that the first inspection and the second inspection may be performed by the same inspector.

[0042] The measurement information acquisition unit 11 acquires the measurement information C1. The measurement information C1 is information indicating the measurement results obtained by the measuring instruments when the cubicle 2 is inspected.

[0043] The registration unit 12 registers the sensory information B1 and the measurement information C1.

[0044] The inspection information generation unit 13 generates inspection information D1 based on the measurement information C1 and the sensory information B1. The inspection information D1 is information about a second inspection of an inspection object that will be performed later than the first inspection of the cubicle 2. The inspection information D1 includes an inspection item list D2 and notification information D4. Note that, depending on the inspection object, the inspection information generation unit 13 may generate the inspection information D1 based only on the sensory information B1 out of the measurement information C1 and the sensory information B1. Also, depending on the inspection object, the inspection information generation unit 13 may generate the inspection information D1 based only on the measurement information C1 out of the measurement information C1 and the sensory information B1.

[0045] In one example of this embodiment, the inspection information generation unit 13 generates inspection information D1 based on the inspection information generation table E1 from the measurement information C1 and the sensory information B1. The inspection information generation table E1 is a table in which at least one of the measurement information C1 and the sensory information B1 is associated with the inspection information D1 for each inspection item. The inspection information generation table E1 is created in advance and stored in the storage unit 15. A specific example of the inspection information generation table E1 will be described later.

[0046] The inspection item list D2 is a list of inspection items for the second inspection according to the rank indicated by the sensory information B1. In the inspection item list D2, the higher the rank indicates the necessity of equipment replacement or inspection, the higher the inspection item is displayed. The inspection item list D2 includes work procedure information for the second inspection linked to the inspection item. The work procedure information associates the inspection work, conditions indicating abnormalities in the inspection target, and procedures for dealing with abnormalities if an abnormality occurs, for each inspection item. The inspection information D1 may include work procedure information D3 in addition to the inspection item list D2.

[0047] The notification information D4 is information for notifying about the second inspection. The notification information D4 is indicated by, for example, a combination of a notification time corresponding to the rank indicated by the sensory information B1 and an inspection item.

[0048] The notification unit 14 issues a notification about the second inspection based on the notification information D4.

[0049] The storage unit 15 stores various types of information. The storage unit 15 is configured using a storage device such as a magnetic hard disk drive or a semiconductor storage device. The information stored in the storage unit 15 includes a database A1. The database A1 includes sensory information B1, measurement information C1, inspection information D1, and an inspection information generation table E1. The database A1 includes the sensory information B1, measurement information C1, and inspection information D1 for each inspection item.

[0050] [Functional configuration of terminal device 3] 5 is a diagram showing an example of the functional configuration of the terminal device 3 according to this embodiment. The terminal device 3 includes a processing unit 30, an operation unit 31, a voice acquisition unit 32, a display unit 33, a communication unit 34, and a terminal-side storage unit 35.

[0051] The processing unit 30 performs various controls on the terminal device 3. The processing unit 30 loads a program read from the ROM by the CPU into the RAM and executes processing in accordance with the program, thereby performing various controls. The ROM and RAM are included in the terminal-side storage unit 35.

[0052] The operation unit 31 receives various operations from an inspector. The operations include inputting sensory information B1 or measurement information C1. The operation unit 31 includes, for example, a touch panel, operation buttons, a mouse, or a keyboard.

[0053] The voice acquisition unit 32 acquires the voice of the inspector. The voice acquisition unit 32 acquires sensory information B1 input as voice by the inspector. The voice acquisition unit 32 includes a microphone and the like.

[0054] The display unit 33 displays various types of information, such as an input screen P1 and a display screen that displays inspection items.

[0055] The communication unit 34 transmits and receives various types of information between the terminal device 3 and the cubicle management system 1 via the communication network N1. The communication unit 34 includes a communication interface (I / F) for performing wireless communication.

[0056] The terminal-side storage unit 35 stores various types of information and is configured using a storage device such as a semiconductor storage device or a magnetic hard disk device.

[0057] [Inspection information generation] Next, we will explain inspection information generation, which is a process in which sensory information B1 is registered in the cubicle management system 1 and the cubicle management system 1 generates inspection information D1. FIG. 6 is a diagram showing an example of the flow of inspection information generation according to this embodiment. Inspection information generation begins when an inspector finishes inspecting the cubicle 2 and inputs sensory information B1 and measurement information C1 using the terminal device 3, and the sensory information B1 and measurement information C1 are transmitted from the terminal device 3 to the cubicle management system 1. Inspection information generation is executed each time the cubicle management system 1 receives sensory information B1 and measurement information C1 from the terminal device 3.

[0058] Step S10: The sensory information acquisition unit 10 acquires the measurement information C1 and the sensory information B1 from the terminal device 3.

[0059] Step S20: The registration unit 12 registers the sensory information B1 and the measurement information C1. The registration unit 12 registers the sensory information B1 and the measurement information C1 by adding the sensory information B1 and the measurement information C1 to the database A1 stored in the storage unit 15.

[0060] Step S330: The inspection information generation unit 13 generates inspection information D1 based on the measurement information C1 and the sensory information B1. Here, the inspection information generation unit 13 generates the inspection information D1 based on the inspection information generation table E1 from the measurement information C1 and the sensory information B1. The inspection information generation unit 13 adds the generated inspection information D1 to the database A1 stored in the memory unit 15. With this, the cubicle management system 1 ends the generation of inspection information.

[0061] The inspection information D1 generated by the inspection information generation process includes an inspection item list D2 and notification information D4. The inspection item list D2 is displayed on the display unit 33 of the terminal device 3 in response to a request from the terminal device 3. Here, when the cubicle management system 1 receives a request from the terminal device 3 to display the inspection item list D2, it transmits the inspection item list D2 to the terminal device 3.

[0062] Furthermore, a notification is sent to the terminal device 3 based on the notification information D4. The notification unit 14 notifies the terminal device 3 about the second inspection when the notification time arrives based on the notification information D4. The notification unit 14, for example, sends an email indicating the notification to the terminal device 3. Furthermore, the notification unit 14 may send a push notification indicating an alert to the terminal device 3.

[0063] A specific example of the inspection information generation table E1 will now be described with reference to FIG. 7. The inspection information generation table E1 indicates, for each inspection object, one or more of the measurement information C1 and the sensory information B1, the conditions under which an abnormality is determined to exist based on one or more of the measurement information C1 and the sensory information B1, and a countermeasure method including the timing of the countermeasure when an abnormality is detected as the inspection information D1. The countermeasure method is used to generate the work procedure information or the notification information D4 included in the inspection information D1. The inspection information generation table E1 is created in advance based on the experience and intuition of the inspector. The inspection information generation table E11 shown in FIG. 7 is an example of the inspection information generation table E1.

[0064] As shown in the figure, the inspection information generation table E11 has columns for each of the following items: inspection location, inspection item, inspection method, abnormal condition, and countermeasure method. The inspection information generation table E11 is two-dimensional tabular data consisting of rows and columns in which work procedure information is stored for each inspection item.

[0065] The combination of inspection location and inspection item indicates the inspection target. In the inspection information generation table E11, the inspection locations include disconnecting switches, high-voltage load break switches, high-voltage circuit breakers, potential transformers, lightning arresters, high-voltage busbars, high-voltage static capacitors (SC), series reactors (SR), transformers, and Class B grounding wires. Of the inspection locations, the disconnecting switches, high-voltage load break switches, high-voltage circuit breakers, potential transformers, lightning arresters, high-voltage busbars, SCs, SRs, and transformers are linked to the inspection items of connections and insulation, respectively. The transformer as an inspection location is linked to the oil temperature as an inspection item. The high-voltage SCs and SRs as inspection locations are linked to the main body deformation as an inspection item. The Class B grounding wire as an inspection location is linked to the low-voltage leakage current as an inspection item.

[0066] The inspection method indicates the inspection method for the inspection object. The abnormality condition indicates the conditions under which an abnormality is determined to exist when an inspection is performed on the inspection object based on the inspection method, based on one or more of the sensory information B1 and the measurement information C1. When an abnormality condition is indicated based on the sensory information B1, for example, when the rank indicated by the sensory information B1 is "C: Caution required" or "D: Replacement required," an abnormality is indicated for the inspection object. Hereinafter, when the rank indicated by the sensory information B1 is "C: Caution required" or "D: Replacement required," it is also stated that the sensory information B1 indicates an abnormality. Note that the generated notification information D4 may be changed depending on whether the rank is "C: Caution required" or "D: Replacement required." The response method indicates the response method to be taken when the abnormality condition indicates an abnormality for the inspection object.

[0067] [Inspection item: Connection points] In the inspection information generation table E11, the connection point as an inspection item is linked to the inspection method of looseness inspection. Looseness refers to looseness of the terminals at the connection point. The connection point is judged to be in an abnormal condition based on the rank indicated by the sensory information B1. The abnormal condition is judged by the inspector visually by checking whether the terminals at the connection point are carbonized to a black color. The abnormal condition is also judged by the inspector's sense of smell by checking whether the terminals at the connection point have an odor of melted plating. In the inspection information generation table E11, if the sensory information B1 indicates an abnormality for either the carbonized to a black color or the odor of melted plating, the connection point is judged to be abnormal. In the inspection information generation table E11, the measures to be taken when there is an abnormality in the connection are to check the fastening by turning off the power (1) and to replace the equipment with discoloration in the insulation (thermal deterioration) (2).

[0068] [Inspection item: Insulation] In the inspection information generation table E11, the inspection item for insulation is associated with the following inspection methods: a combination of an inspection for the presence or absence of contamination or tracking and an inspection based on the judgment value of a dust sensor, and a combination of an inspection for the presence or absence of contamination or tracking and an inspection based on the judgment value of a salt adhesion sensor. An abnormal condition is determined by an inspector visually checking whether dust is attached to the insulation ("(a) Dust Adhesion"). An abnormal condition is determined by an inspector using their sense of smell whether the insulation smells of melted plating ("(b) Melted Plating Smell"). An abnormal condition is determined by an inspector visually checking whether tracking marks are present on the insulation ("(c) Tracking Marks"). An abnormal condition is determined by an inspector hearing whether the insulation makes a "chittering" sound, which is characteristic of electrical discharge ("(d) Chittering Sound").

[0069] In the inspection information generation table E11, if the sensory information B1 indicates an abnormality for "(a) dust adhesion" and the dust sensor determination value as the measurement information C1 indicates a "caution level," it is determined that there is an abnormality in the insulating part, and notification information D4 is generated indicating that an inspection should be performed during the annual inspection. Here, the dust sensor determination value as the measurement information C1 indicates that the dust adhesion density is 0.35 mg / cm 2 to 1.4 mg / cm 2 If the dust adhesion density is within the range of 1.4 mg / cm, it is classified as "Caution level". 2 If the range exceeds this, it is classified as "Warning Level".

[0070] In addition, in the inspection information generation table E11, if the sensory information B1 indicates an abnormality for "(b) the smell of melted plating" and "(c) tracking marks" and the judgment value of the salt adhesion sensor as the measurement information C1 indicates an "alarm level," it is determined that there is an abnormality in the insulation, and notification information D4 is generated indicating that a power outage inspection should be carried out immediately. Here, the judgment value of the salt adhesion sensor as the measurement information C1 is 2 to 0.06 mg / cm 2 If the salt adhesion density is in the range of 0.06 mg / cm, it is classified as "Caution level". 2 to 0.35 mg / cm 2 If the level is within this range, it is classified as "Warning Level".

[0071] A method of dealing with an abnormality in an insulating part in the inspection information generation table E11 will be described with reference to FIG. The insulation resistance is measured over the entire high-voltage circuit (Step S110). It is checked whether the measured insulation resistance is equal to or greater than the control value (e.g., 6 MΩ) (Step S120). If the measured insulation resistance is equal to or greater than the control value (Step S120; YES), the inspection of the insulated section is terminated. On the other hand, if the measured insulation resistance is less than the control value (Step S120; NO), wiping is performed (Step S130). Thereafter, the insulation resistance is measured over the entire high-voltage circuit again (Step S140). It is checked whether the measured insulation resistance is equal to or greater than the control value (Step S150; YES). If the measured insulation resistance is equal to or greater than the control value (Step S150; NO), the inspection of the insulated section is terminated. On the other hand, if the measured insulation resistance is less than the control value (Step S150; NO), the switches are turned OFF, and the entire circuit is separated (Step S160). The insulation resistance is then measured at the separated location (Step S170). It is checked whether the measured insulation resistance at the separated location is equal to or greater than the control value (Step S180). If the measured insulation resistance value of the sectioned area is below the control value (step S180; NO), the sectioned area is wiped (step S190). After that, the insulation resistance of the sectioned area is measured (step S170), and it is again confirmed whether the measured insulation resistance value is equal to or greater than the control value (step S180).

[0072] On the other hand, if the measured insulation resistance value at the divided location is equal to or greater than the control value (step S180; YES), it is confirmed whether or not the insulation resistance has been measured at all the divided locations (step S200). If the insulation resistance has been measured at all the divided locations (step S200; YES), the inspection work for the insulating part is completed. On the other hand, if the insulation resistance has not been measured at all the divided locations (step S200; NO), the divided locations to be measured are changed (step S210). Then, the insulation resistance is measured at the changed divided locations (step S170). Then, the processing from step S180 onwards is executed again. The countermeasures shown in FIG. 8 may be displayed as text as shown in FIG. 7, or the work content may be displayed on the terminal device 3 based on the processing flow shown in FIG.

[0073] [Inspection item: Transformer oil temperature] In the inspection information generation table E11, the oil temperature as an inspection item of the transformer as an inspection point is linked to the inspection of the rise in the transformer oil temperature as an inspection method. The rise in oil temperature is measured using a temperature label or a thermometer. The abnormal condition of the transformer oil temperature is determined based on the rank indicated by the measurement information C1. If the temperature indicated by the temperature label or thermometer as the measurement information C1 indicates a "warning level," the transformer oil temperature is determined to be abnormal. Here, if the temperature as the measurement information C1 is 80 degrees or higher, it is classified as a "warning level." If the temperature as the measurement information C1 is classified as a "warning level" and an oil change has not been performed ("(e) Oil change not performed"), work procedure information is generated indicating that a deterioration diagnosis should be performed using the furfural method. On the other hand, if the temperature as the measurement information C1 is classified as a "warning level" and an oil change has been performed ("(f) Oil change performed"), work procedure information is generated indicating that an insulating paper deterioration diagnosis should be performed.

[0074] [Inspection item: High-pressure SC or SR body deformation] In the inspection information generation table E11, the body deformation as an inspection item of the high-pressure SC or SR as an inspection point is judged as an abnormal condition according to the rank indicated by the sensory information B1. The abnormal condition is judged by the inspector visually whether or not the body of the high-pressure SC or SR is bulging. If the sensory information B1 indicates an abnormality regarding the bulging of the body, it is judged that there is an abnormality in the body deformation of the high-pressure SC or SR.

[0075] In the inspection information generation table E11, as a method of dealing with abnormal deformation of the main body of a high-voltage SC or SR, work procedure information is generated indicating that the equipment should be replaced with equipment with a higher harmonic tolerance if a power outage occurs and the alarm contact output of the equipment is confirmed and an alarm is detected. Replacement with equipment with a higher harmonic tolerance indicates replacement of a 6% specification, 5th tolerance 35% product with a 6% specification, 5th tolerance 55% product. On the other hand, replacement with equipment with a higher harmonic tolerance indicates replacement of a 6% specification, 5th tolerance 55% product with a 6% specification, 5th tolerance 13% product.

[0076] In the inspection information generation table E11, the low-voltage leakage current as an inspection item for the Class B ground wire as an inspection point is linked to the measurement of leakage current using a leakage clamp as an inspection method. The low-voltage leakage current of the Class B ground wire is determined to be an abnormal condition based on the rank indicated by the measurement information C1. The low-voltage leakage current of the Class B ground wire is determined to be abnormal if the leakage current measurement value using the leakage clamp as the measurement information C1 and the insulation resistance value of the circuit with the power off indicate the "Caution level." Here, the leakage current measurement value as the measurement information C1 is classified as the "Caution level" if it is 50 mA or higher. The insulation resistance value of the circuit with the power off as the measurement information C1 is classified as the "Caution level" if it is less than 0.1 MΩ at 100 V, less than 0.2 MΩ at 200 V, or less than 0.4 MΩ at 400 V.

[0077] In the inspection information generation table E11, the corrective action to take when there is an abnormality in the low-voltage leakage current of a Class B grounding conductor is to identify the circuit with low circuit insulation resistance, identify the circuit that is causing the problem, remove the circuit that is causing the problem, and re-measure the circuit insulation resistance (6).In the inspection information generation table E11, the corrective action to take when there is an abnormality in the low-voltage leakage current of a Class B grounding conductor is to, after taking the corrective action (6), measure the leakage current only when the equipment is operating, and if the measured value is 50 mA or higher, turn off the branch circuits of the target trunk line one by one while measuring the leakage current with the live line, and identify and remove the cause of the branch circuit where the leakage current has dropped (7).

[0078] As shown in the inspection information generation table E11, depending on the inspection object, inspection information D1 may be linked to both measurement information C1 and sensory information B1, inspection information D1 may be linked to only measurement information C1, or inspection information D1 may be linked to only sensory information B1.

[0079] Next, a specific example of the inspection item list D2 will be described with reference to Fig. 9. The inspection item list D2 shows work procedure information D31 for each inspection target determined to have an abnormality. The inspection item list D21 shown in the figure includes, in addition to the work procedure information D31, one or more of measurement information C1 and sensory information B1 as the results of the previous inspection.

[0080] The inspection item list D2 may include only the work procedure information D3 for each inspection target determined to have an abnormality. Furthermore, the inspection item list D2 may not include the work procedure information D3, but may include one or more of the measurement information C1 and the sensory information B1 as the results of the previous inspection. For example, one or more of the measurement information C1 and the sensory information B1 are included when the measurement information C1 or the sensory information B1 for a certain inspection item is ranked "C: Caution required." Before carrying out the inspection, the inspector can confirm that there was an abnormality in one or more of the measurement information C1 and the sensory information B1 for the inspection item in a past inspection.

[0081] An inspection item list D21 shown in Fig. 9 is an example of the inspection item list D2. In the inspection item list D21 shown in Fig. 9, an insulating part as an inspection item in a disconnecting switch as an inspection point is shown as an inspection target. In the inspection item list D21, work procedure information D31 is shown as a countermeasure.

[0082] In addition, in the inspection item list D21, the measurement information C11 ("Salt adhesion sensor judgment value: 0.06 mg / cm") is listed as the result of the previous inspection. 2 "), and sensory information B11 ("Smell of melted plating C: Caution required", "Tracking marks C: Caution required" are shown. By the current inspector referring to the sensory information B11, the sensory judgment of the previous inspector is shared with the current inspector. The measurement information C11 and sensory information B11 as the results of the previous inspection are not included in the inspection item list D21, but may be shared with the current inspector by referring to the database A1 from the terminal device 3.

[0083] 9 is a list generated by the cubicle management system 1 when it is determined based on the inspection information generation table E1 that an inspection target has an abnormality and that a power outage inspection needs to be carried out immediately. The inspection item list D2 notified at the time of regular inspection may include inspection methods and abnormality conditions for specified inspection targets in regular inspection other than the inspection target with an abnormality.

[0084] In the configuration of the cubicle management system 1 shown in FIG. 4, any one or more of the measurement information acquisition unit 11, the inspection information generation unit 13, and the notification unit 14 may be omitted.

[0085] As described above, the cubicle management system 1 according to this embodiment includes the sensory information acquisition unit 10 and the registration unit 12. The sensory information acquiring unit 10 acquires sensory information B1, which is information input by an inspector to the terminal device 3 regarding the inspection of the cubicle 2, and indicates the degree of judgment of the inspector regarding the inspection by a rank. The registration unit 12 registers the sensory information B1.

[0086] With this configuration, the cubicle management system 1 of this embodiment can register sensory information B1 that indicates the degree of judgment made by the inspector regarding the inspection of the cubicle 2 by ranking it, so that the results of the inspector's sensory judgment based on their experience can be referenced or shared.

[0087] In addition, in the cubicle management system 1 of this embodiment, the sensory information B1 is information input into the terminal device 3 by the inspector regarding the first inspection (in this embodiment, the inspection by the previous inspector) of the inspection target among the parts that make up the cubicle 2, and indicates the degree of deterioration of the inspection target by a rank.

[0088] With this configuration, the cubicle management system 1 of this embodiment can register sensory information B1 that indicates the degree of deterioration of the inspection object based on the inspector's sense of experience, using a rank, so that the results of the inspector's judgment of the degree of deterioration of the inspection object based on their sense of experience can be referenced or shared.

[0089] The cubicle management system 1 according to this embodiment further includes an inspection information generation unit 13. Based on the sensory information B1, the inspection information generation unit 13 generates inspection information D1 about a second inspection (in this embodiment, an inspection by a successor inspector) of an inspection target that will be performed later than the first inspection (in this embodiment, an inspection by a predecessor inspector).

[0090] With this configuration, the cubicle management system 1 of this embodiment can perform a second inspection based on inspection information D1 generated based on sensory information B1, so that the second inspection can be performed while referring to and sharing the results of the inspector's sensory judgment based on his or her experience.

[0091] Moreover, the cubicle management system 1 according to this embodiment further includes a measurement information acquisition unit 11. The measurement information acquisition unit 11 acquires measurement information C1 indicating the measurement results obtained by the measuring instrument in the first inspection. The inspection information generating unit 13 generates inspection information D1 based on the measurement information C1 and the sensory information B1.

[0092] With this configuration, the cubicle management system 1 of this embodiment can perform a second inspection based on the measurement information C1 and the inspection information D1 generated based on the sensory information B1, so that the second inspection can be performed while referring to and sharing the measurement results from the measuring instrument along with the sensory judgment results based on the inspector's experience.

[0093] Furthermore, in the cubicle management system 1 according to this embodiment, the inspection information D1 includes a list of inspection items in the second inspection according to the rank indicated by the sensory information B1 (inspection item list D2 in this embodiment). With this configuration, the cubicle management system 1 of this embodiment can perform the second inspection based on the list of inspection items for the second inspection, so that inspections can be performed on inspection items that reflect the inspector's judgment based on his or her experience and sense.

[0094] Furthermore, in the cubicle management system 1 according to this embodiment, the inspection information D1 includes work procedure information for the second inspection linked to the inspection item. With this configuration, the cubicle management system 1 of this embodiment allows inspectors to refer to work procedure information, so that a second inspection can be carried out based on work procedures that reflect the inspectors' judgment results based on their own sense of experience.

[0095] Moreover, in the cubicle management system 1 according to this embodiment, the inspection information D1 includes notification information D4 for notifying about the second inspection, and the system further includes a notification unit 14. The notification unit 14 notifies about the second inspection based on the notification information D4. With this configuration, the cubicle management system 1 of this embodiment allows the inspector to receive notification about the second inspection, and therefore the second inspection can be started based on the notification that reflects the inspector's judgment based on their own experience and sense.

[0096] In addition, in the cubicle management system 1 of this embodiment, the sensory information acquisition unit 10 acquires sensory information B1 entered by the inspector into a form (in this embodiment, radio boxes F11 to F14, radio boxes F21 to F24) that is entered by selecting from options in the input screen P1 displayed on the terminal device 3. With this configuration, the cubicle management system 1 according to this embodiment allows the sensory information B1 to be input by a simple operation of selecting from options on a form, thereby reducing the workload of inputting the sensory information B1.

[0097] Furthermore, in the cubicle management system 1 according to this embodiment, the sensory information acquisition unit 10 may acquire the sensory information B1 input as voice by the inspector to the terminal device 3 based on voice recognition. With this configuration, the cubicle management system 1 according to this embodiment allows the sensory information B1 to be input by voice, thereby reducing the workload of inputting the sensory information B1.

[0098] In this embodiment, the sensory information B1 is an example of information indicating the degree of deterioration of the inspection target by a rank, but is not limited to this. The sensory information B1 is information input to the terminal device 3 by the inspector based on the weather at the time of inspection of the cubicle 2, and may indicate the degree of the inspector's judgment on whether or not to inspect the cubicle 2 by a rank.

[0099] For example, an experienced inspector checks the weather forecast the day before an inspection. The inspector makes a decision based on experience and intuition on whether or not to carry out an inspection based on the weather, probability of precipitation, humidity, and other factors indicated in the weather forecast. The inspector inputs sensory information B1 into the terminal device 3 by selecting the result of his / her judgment from three ranks, for example, "A: Good weather for inspection," "B: Caution required," and "C: Inspection not possible." For example, if the humidity is predicted to exceed 85%, the inspector selects "B: Caution required" as there is a risk of electric shock.

[0100] The inspector who actually performs the inspection refers to the sensory information B1 registered in the cubicle management system 1 and confirms the degree of suitability of the inspection of the cubicle 2 as judged by the experienced inspector. The safety experience of the experienced inspector can be embodied by the rank indicated by the sensory information B1.

[0101] In this embodiment, an example has been described in which the inspection information D1 is generated from one or more of the measurement information C1 and the sensory information B1 based on the inspection information generation table E1, but this is not limiting. The inspection information D1 may be generated based on machine learning (AI). In this case, the inspection information generator 13 generates the inspection information D1 from one or more of the measurement information C1 and the sensory information B1 based on a trained model. The trained model is stored in advance in the storage unit 15. The trained model is a learning model that has been trained to output inspection information D1 when one or more of measurement information C1 and sensory information B1 are input. For training the learning model, for example, data such as that shown in the inspection information generation table E1 is used as training data.

[0102] (Second embodiment) The second embodiment of the present invention will be described in detail below with reference to the drawings. In the first embodiment, the cubicle management system 1 was described as generating inspection information D1 for one cubicle 2. In this embodiment, a case will be described in which inspection information D1 is shared between cubicles installed in neighboring areas. The cubicle management system according to this embodiment will be referred to as a cubicle management system 1a. The same components as those in the first embodiment described above are denoted by the same reference numerals, and the description of the same components and operations may be omitted.

[0103] FIG. 10 is a diagram showing an example of the configuration of a cubicle management system 1a according to this embodiment. Sensory information B1 about multiple cubicles installed close to each other is registered in the cubicle management system 1a. The number of multiple cubicles installed close to each other is two or more. FIG. 10 shows cubicles 2-1 and 2-2 among the multiple cubicles installed close to each other.

[0104] Measurement information C1-1 and sensory information B1-1 about cubicle 2-1 are input by an inspector of cubicle 2-1 using terminal device 3-1 and registered in cubicle management system 1a. Similarly, measurement information C1-2 and sensory information B1-2 about cubicle 2-2 are input by an inspector of cubicle 2-2 using terminal device 3-2 and registered in cubicle management system 1a.

[0105] [Functional configuration of cubicle management system 1a] FIG. 11 is a diagram showing an example of the functional configuration of a cubicle management system 1a according to this embodiment. The cubicle management system 1a includes a sensory information acquisition unit 10, a measurement information acquisition unit 11, a registration unit 12, an inspection information generation unit 13, a notification unit 14, an inspection information management unit 16a, and a storage unit 15. The inspection information management unit 16a is realized, for example, by a CPU loading a program read from a ROM into a RAM and executing processing in accordance with the program. Comparing the cubicle management system 1a according to this embodiment (FIG. 11) with the cubicle management system 1 according to the first embodiment (FIG. 4), the inspection information management unit 16a is different. Here, the functions of the other components (sensory information acquisition unit 10, measurement information acquisition unit 11, registration unit 12, inspection information generation unit 13, and notification unit 14) are the same as those of the first embodiment.

[0106] If the work procedure information D3 generated for a second cubicle installed near the first cubicle differs from the work procedure information D3 registered for the first cubicle, the inspection information management unit 16a newly registers work procedure information D3 for the second cubicle.

[0107] A database A1 is stored for each of the plurality of cubicles in the storage unit 15. In Fig. 11, the storage unit 15 shows a database A1-1 for the cubicle 2-1 and a database A1-2 for the cubicle 2-2 out of the databases A1 for each of the plurality of cubicles.

[0108] For example, if the work procedure information D3-2 included in the inspection information D1-2 generated for the cubicle 2-2 differs from the work procedure information D3-1 included in the inspection information D1-1 registered for the cubicle 2-1, the inspection information management unit 16a adds the work procedure information D3-2 included in the inspection information generation table E1-2 for the cubicle 2-2 to the inspection information generation table E1-1. Here, the inspection information management unit 16a adds the inspection target, inspection method, and abnormal condition linked to the work procedure information D3-2 included in the inspection information generation table E1-2 to the inspection information generation table E1-1, along with the work procedure information D3-2. In other words, the inspection information management unit 16a adds the data of the row including the work procedure information D3-2 included in the inspection information generation table E1-2 to a new row of the inspection information generation table E1-1.

[0109] The inspection information management unit 16a may inquire of the inspector of the cubicle 2-1 whether or not it is necessary to add the work procedure information D3-2 to the inspection information generation table E1-1. In this case, the inspection information management unit 16a inquires of the inspector via the terminal device 3-1 whether or not it is necessary to add the inspection information D1-2, and when receiving a reply from the inspector that it is necessary to add it, adds the work procedure information D3-2 to the inspection information generation table E1-1.

[0110] The inspection information management unit 16a may include the number of times inspection information D1-2 was generated for the cubicle 2-2 in a predetermined period or the time when the inspection information D1-2 was generated in the database A1 and store this in the storage unit 15. The number of times inspection information D1-2 was generated in a predetermined period corresponds to the frequency of inspection of the cubicle 2-2 installed near the cubicle 2-1. The time when the inspection information D1-2 was generated corresponds to the time when the inspection of the cubicle 2-2 was carried out. The frequency of inspection and the time when the inspection was carried out are used, for example, to generate notification information D4 for a second inspection of the cubicle 2-1.

[0111] In addition, the inspection information management unit 16a may prioritize the number of times that inspection information D1, inspection information D1-2 for a cubicle that is installed closer to the installation location of cubicle 2-1 in the database A1 compared to other cubicles, as well as the time when inspection information D1-2 was generated for that cubicle.

[0112] An inspector of cubicle 2-1 can check the inspection frequency or inspection time of cubicle 2-2 installed near the cubicle 2-1 that he / she manages in database A1. Multiple cubicles installed near each other are considered to have similar environments. For example, it is considered that salt is more likely to adhere to the equipment stored in cubicles installed in areas close to the coast. By checking the inspection frequency or inspection time of the nearby cubicle 2-2, an inspector of cubicle 2-1 can refer to whether or not it is necessary to carry out the same inspection as cubicle 2-2 for the cubicle 2-1 that he / she manages.

[0113] As described above, in the cubicle management system 1a according to this embodiment, the cubicle 2 is the first cubicle (in this embodiment, the cubicle 2-1), and further includes the inspection information management unit 16a. If the work procedure information D3-2 generated as inspection information D1-2 for a second cubicle (in this embodiment, cubicle 2-2) installed near a first cubicle (in this embodiment, cubicle 2-1) differs from the work procedure information D3-1 registered for the first cubicle (in this embodiment, cubicle 2-1), the inspection information management unit 16a newly registers the work procedure information D3-2 for the second cubicle (in this embodiment, cubicle 2-2) as inspection information D1-1.

[0114] With this configuration, in the cubicle management system 1a of this embodiment, the inspection information D1 generated for a second cubicle installed nearby can be used as the inspection information D1 for the first cubicle, so that the inspection of the second cubicle installed nearby with a similar installation environment can be reflected in the inspection of the first cubicle.

[0115] Note that parts of the cubicle management system 1, 1a in the above-described embodiment, such as the sensory information acquisition unit 10, the measurement information acquisition unit 11, the registration unit 12, the inspection information generation unit 13, the notification unit 14, and the inspection information management unit 16a, may be implemented by a computer. In this case, a program for implementing these control functions may be recorded on a computer-readable recording medium, and the program may be loaded into a computer system and executed. Note that the "computer system" here refers to a computer system built into the cubicle management system 1, 1a, including an operating system (OS) and hardware such as peripheral devices. Furthermore, the "computer-readable recording medium" refers to portable media such as a flexible disk, a magneto-optical disk, a ROM (Read Only Memory), or a CD-ROM (Compact Disc-Read Only Memory), as well as storage devices such as a hard disk built into the computer system. Furthermore, the term "computer-readable recording medium" may include a medium that dynamically stores a program for a short period of time, such as a communication line when transmitting a program via a network such as the Internet or a communication line such as a telephone line, or a medium that stores a program for a certain period of time, such as a volatile memory within a computer system that serves as a server or client in such a case. The program may also be one that realizes part of the above-mentioned functions, or one that can realize the above-mentioned functions in combination with a program already stored in the computer system. Furthermore, part or all of the cubicle management systems 1 and 1a in the above-described embodiments may be realized as an integrated circuit such as an LSI (Large Scale Integration). Each functional block of the cubicle management systems 1 and 1a may be individually implemented as a processor, or part or all of them may be integrated into a processor. Furthermore, the integrated circuit implementation method is not limited to LSI, and may be implemented using a dedicated circuit or a general-purpose processor. Furthermore, if an integrated circuit implementation technology that can replace LSI emerges due to advances in semiconductor technology, an integrated circuit based on that technology may be used.

[0116] One embodiment of the present invention has been described in detail above with reference to the drawings, but the specific configuration is not limited to that described above, and various design changes and the like are possible within the scope that does not deviate from the gist of the present invention. [Explanation of symbols]

[0117] 1, 1a... cubicle management system, 2... cubicle, 3... terminal device, 10... sensory information acquisition unit, 12... registration unit, B1... sensory information

Claims

1. a sensory information acquisition unit that acquires sensory information that is input into a terminal device by an inspector regarding an inspection of a cubicle, the sensory information indicating the degree of judgment of the inspector regarding the inspection by a rank; a registration unit that registers the sensory information; A cubicle management system equipped with:

2. The sensory information is information input by the inspector to the terminal device regarding a first inspection of an inspection target among the parts constituting the cubicle, and indicates the degree of deterioration of the inspection target by a rank. The cubicle management system according to claim 1.

3. an inspection information generation unit that generates inspection information regarding a second inspection of the inspection target to be performed at a later time than the first inspection based on the sensory information; The cubicle management system according to claim 2 , further comprising:

4. a measurement information acquisition unit that acquires measurement information indicating a measurement result by a measuring instrument in the first inspection; The inspection information generating unit generates the inspection information based on the measurement information and the sensory information. The cubicle management system according to claim 3.

5. The inspection information includes a list of inspection items in the second inspection according to the rank indicated by the sensory information. The cubicle management system according to claim 3.

6. The inspection information includes work procedure information for the second inspection linked to the inspection item. The cubicle management system according to claim 5.

7. the inspection information includes notification information for notifying the user of the second inspection; The system further includes a notification unit that issues a notification regarding the second inspection based on the notification information. The cubicle management system according to claim 3.

8. The cubicle is a first cubicle, The inspection information management unit further includes an inspection information management unit that, when work procedure information as the inspection information generated for a second cubicle installed near the first cubicle differs from the work procedure information registered for the first cubicle, newly registers the work procedure information for the second cubicle as the inspection information. The cubicle management system according to claim 3.

9. The sensory information is information input by the inspector to the terminal device based on the weather at the time of the inspection, and indicates the degree of the inspector's judgment on whether or not the inspection can be carried out by a rank. The cubicle management system according to claim 1.

10. The sensory information acquisition unit acquires the sensory information input by the inspector into a form that is input by selecting from options on an input screen displayed on the terminal device. The cubicle management system according to claim 1.

11. The sensory information acquisition unit acquires the sensory information input as voice by the inspector to the terminal device based on voice recognition. The cubicle management system according to claim 1.

12. a sensory information acquisition step of acquiring sensory information that is information input by an inspector into a terminal device regarding the inspection of the cubicle, the sensory information indicating the degree of judgment of the inspector regarding the inspection by a rank; a registration step of registering the sensory information; A cubicle management method having the above structure.

13. On the computer, a sensory information acquisition step of acquiring sensory information that is information input by an inspector into a terminal device regarding the inspection of the cubicle, the sensory information indicating the degree of judgment of the inspector regarding the inspection by a rank; a registration step of registering the sensory information; A program to execute.

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