JP2022039740A - Program and information processing system - Google Patents

Abstract

To manage a condition of malfunction in a structure effectively.SOLUTION: A computer is allowed to function as: display control means 41 for displaying a drawing of a structure and displaying explanatory notes including various marks for each malfunction of the structure; marking means 42 for receiving a selection of a first mark according to an indication on a display area of the explanatory notes, receiving a drag and drop operation of the first mark on the drawing and displaying the first mark at a position where the first mark is dropped on the drawing, wherein the first mark is any mark among a plurality of the marks; and malfunction condition acquisition means 43 for acquiring a type of malfunction displayed by the first mark of which selection is received by the marking means 42, a quantity of malfunctions displayed by the first mark and a position coordinate on the drawing where the first mark is dropped as types and a quantity of actual malfunctions.SELECTED DRAWING: Figure 2

Description

The present invention relates to programs and information processing systems.

Conventionally, in repair work for repairing deteriorated parts of structures such as condominiums and houses, the parts requiring repair and the state of defects have been visually confirmed and then reflected in the drawings for management. The work of reflecting the visually confirmed defects in the drawings was complicated.

Regarding this, for example, Patent Document 1 discloses an information management device that inputs an input to an information management terminal while performing an on-site inspection by displaying an icon in a form corresponding to the type superimposed on a design drawing. ing.

Japanese Unexamined Patent Publication No. 2004-005380

However, Patent Document 1 does not describe how to efficiently manage the parts requiring repair and the contents of defects in the repair work of the structure.

The present invention has been made in view of such circumstances, and an object of the present invention is to provide a program and an information processing system capable of efficiently managing the status of defects in a structure.

In order to solve the above problems, in the program according to the present invention, for example, a display control means for displaying a drawing of a structure and displaying a legend including a plurality of different marks for each type of defect of the structure. , The selection of the first mark, which is an arbitrary mark among the plurality of the marks, is accepted according to the designation on the display area of the legend, and the operation of dragging and dropping the first mark onto the drawing is accepted. A marking means for displaying the first mark at a position where the first mark is dropped on the drawing, a type of defect indicated by the first mark whose selection has been accepted by the marking means, and a defect indicated by the first mark. The quantity and the position coordinates on the drawing on which the first mark is dropped are made to function as a defect status acquisition means for acquiring the actual defect type and quantity.

According to the program of the present invention, the actual defect of the structure can be obtained by simply selecting the first mark, which is an arbitrary mark among the plurality of marks included in the legend, and dragging and dropping it on the elevation view. The contents of can be easily recorded. This makes it possible to efficiently manage the status of defects in the structure.

The mark differs depending on the type and quantity of the defect, and the defect status acquisition means may acquire the quantity associated with the first mark as the quantity of the defect indicated by the first mark. In this way, even if the defects are of the same type, different marks are associated with each other according to the size of the defect, so it is possible to input the actual defect with one action regardless of the size of the defect. It's simple.

The display control means is adjacent to the first mark and displays a numerical value indicating the number of defects indicated by the first mark, and the defect status acquisition means receives an input and is associated with the first mark. You may edit the quantity. This is convenient because it is not necessary to replace the mark when only the quantity of defects is to be corrected.

The marking means may be changed to a second mark different from the first mark associated with the edited numerical value among the plurality of marks. As a result, even when the quantity of defects is corrected, it is easy to grasp the position and quantity of defects from the mark displayed on the elevation view.

The computer is acquired by the storage means for storing the drawing in association with the type and quantity of defects assumed in the structure, the type and quantity of defects assumed in the structure, and the defect status acquisition means. It may further function as an increase / decrease comparison table generation means for generating an increase / decrease comparison table in which the types and quantities of the actual defects that have been made are expressed in parallel. According to this configuration, the expected defect status and the actual defect status can be compared by the increase / decrease comparison table, so that the state of deterioration such as the structure being deteriorated more than expected can be easily grasped.

In the storage means, the unit price of the repair cost according to the type of defect is stored, and in the increase / decrease comparison table generation means, the estimated amount of the repair cost according to the assumed defect and the actual amount are based on the unit price. The actual amount of the repair cost according to the defect and the difference between the assumed amount and the actual amount may be stored in the increase / decrease comparison table. According to this configuration, the estimated amount of repair and the actual cost incurred can be grasped by the user at a glance.

The computer program can be stored in various data-readable recording media and provided, or can be provided for download via a network such as the Internet.

In order to solve the above problems, the information processing system according to the present invention is, for example, a display control means for displaying a drawing of a structure and displaying a legend including a plurality of different marks for each type of defect of the structure. , The selection of the first mark, which is an arbitrary mark among the plurality of the marks, is accepted according to the designation on the display area of the legend, and the operation of dragging and dropping the first mark onto the drawing is accepted. A marking means for displaying the first mark at a position where the first mark is dropped on the drawing, a type of defect indicated by the first mark whose selection has been accepted by the marking means, and a defect indicated by the first mark. It is characterized by comprising a defect status acquisition means for acquiring the quantity of the first mark, the position coordinates on the drawing on which the first mark is dropped, and the defect status acquisition means.

According to the present invention, it is possible to efficiently manage the state of defects in a structure.

It is a figure which shows the example of the hardware composition of the information processing apparatus which concerns on this embodiment, and the client terminal connected to the information processing apparatus schematically. It is a block diagram schematically showing an example of the functional means of the information processing apparatus. It is a flowchart which shows the flow of the recording process of a repaired part. It is a figure which shows an example of the input screen of the matter code which the said information processing apparatus displays on an input terminal. It is an example of the repair part input screen which the information processing apparatus displays on an input terminal, and is the figure which shows the example of the defect input screen. It is an example of the repair part input screen which the information processing apparatus displays on an input terminal, and is the figure which shows the appearance that the legend screen is displayed on the defect input screen. It is an example of the repair part input screen which the information processing apparatus displays on an input terminal, and is the figure which shows the state of the numeric keypad screen which inputs the number of defects with respect to one mark. It is a figure which shows an example of the increase / decrease comparison table generated by the information processing apparatus.

Hereinafter, embodiments of the present invention (hereinafter referred to as “the present embodiment”) will be described in detail with reference to the drawings.

<Hardware configuration>
FIG. 1 is a diagram schematically showing an example of a hardware configuration of an information processing device 10 and a client terminal 100 connected to the information processing device 10 according to the present embodiment. The information processing device 10 and the client terminal 100 constitute a repair work support system 1.

The repair work support system 1 accepts input of the position of the part requiring repair and the content of the defect to be repaired in the repair work for repairing the deteriorated part of the structure such as an apartment or a house, and manages the cost required for the repair. It is something to do.

As shown in FIG. 1, the information processing apparatus 10 and the client terminal 100 are connected to each other through a network NW. The information processing device 10 is, for example, a server. The information processing device 10 may be configured by a single hardware device or may be configured by a plurality of information processing devices distributed on a communication network. Further, the information processing apparatus 10 may be composed of a group of computers having a part or all of its functions operated on the cloud service. Further, FIG. 1 shows only a part of the main hardware configurations of the information processing apparatus 10, and the information processing apparatus 10 can include other configurations generally provided by a computer.

The network NW is a wireless communication means such as a mobile communication network, Wi-Fi, infrared communication, Bluetooth (registered trademark), ZigBee (registered trademark), and NFC. The network NW may have an appropriate configuration capable of transmitting and receiving information such as a wired communication means such as a USB connection.

The information processing device 10 includes a control device 20, a communication device 26, and a storage device 28. The control device 20 is a computer mainly including a CPU (Central Processing Unit) 22 and a memory 24.

In the control device 20, the CPU 22 functions as various functional means by executing the management program 28A stored in the storage device 28 or the like. Details of this functional means will be described later.

The communication device 26 is composed of a communication interface or the like for communicating with an external device.

The storage device 28 is composed of a hard disk or the like. The storage device 28 stores various programs and various information necessary for executing the process in the control device 20, including the management program 28A according to the present embodiment, and information on the process result.

The client terminal 100 is a portable terminal, for example, a smart phone or a tablet terminal. The client terminal 100 includes a display unit 101, an input unit 102, a control device 120, a communication device 126, and a storage device 128. The display unit 101 and the input unit 102 may be composed of a touch panel display.

In the control device 120, the CPU 122 executes a program stored in the storage device 128 or the like. The communication device 126 is composed of a communication interface or the like for communicating with an external device. The storage device 128 is composed of a hard disk or the like.

In addition, a part or all of the functions of the information processing apparatus 10 may be realized by the configuration of the client terminal 100. That is, for example, various functional means executed by the control device 20 may be executed by the control device 120. Further, when the information processing apparatus 10 executes all the functions, the client terminal 100 may have only the display unit 101 and the input unit 102.

<Functional means>
FIG. 2 is a block diagram schematically showing an example of functional means of the information processing apparatus 10. The information processing apparatus 10 mainly includes a storage means 40, a display control means 41, a marking means 42, a defect status acquisition means 43, an increase / decrease comparison table generation means 44, and an output means 45. The storage means 40 is realized by one or more storage devices 28. Functional means other than the storage means 40 are realized by the control device 20 executing the management program 28A stored in the storage device 28 or the like.

The storage means 40 mainly stores drawing data 40A, unit price data 40B, and assumed value data 40C. The drawing data 40A is a drawing of a structure to be repaired. The drawing of the structure is composed of a plurality of elevations for one structure, and is composed of, for example, four elevations viewed from each of the north, south, east and west. The drawing of the structure may be acquired from a server or a recording medium different from the information processing apparatus 10.

The unit price data 40B is a data table to which repair costs are associated with each type of defect and unit. Here, the unit is a concept including the size (area), number, and shape of defects, and is represented by a quantity. For example, when the area of the defect is 5 m ² , the unit is the area and the quantity is 5.

The assumed value data 40C is a data table in which the assumed defects of the structure are associated with the identification information of the structure. The assumed value data 40C is stored, for example, by the administrator inputting the estimated number of defects for each type and quantity of defects. The information processing device 10 or a device connected to the information processing device 10 has the function of the marking means 42, receives input of the type, quantity, and position of the assumed defect, and stores the input in the assumed value data 40C. May be.

The unit price data 40B and the assumed value data 40C are referred to by the increase / decrease comparison table generation means 44 and reflected in the increase / decrease comparison table T100 (see FIG. 8).

The display control means 41 has a function of controlling the display of the connected client terminal 100. As shown in FIGS. 5 and 6 (detailed later), the display control means 41 causes the display unit 101 of the client terminal 100 to display the elevation view G111 of the structure. Further, the display control means 41 displays a legend screen G200 to which a different mark is associated with each type of defect and the quantity (for example, size) of the defect.

The marking means 42 has a function of marking information on defects on the elevation view G111 of the structure displayed on the display unit 101. As shown in FIG. 6 (detailed later), the marking means 42 accepts the selection of the mark according to the designation on the display area of the legend screen G200. The marking means 42 accepts an operation of dragging and dropping the mark onto the drawing of the structure, and displays the mark at a position on the drawing where the dropping operation is performed.

The defect status acquisition means 43 has a function of acquiring the defect status marked by the marking means 42. The defect status acquisition means 43 acquires the type and quantity of the defect according to the mark selected by the marking means 42, associates it with the position coordinates on the drawing of the mark, and records it as the actual type and quantity of the defect. .. Further, the defect status acquisition means 43 counts and records the marked number for each type and quantity of defects. The defect status acquisition means 43 may count the number of marks included in a plurality of elevations of the structure for each type and quantity of defects, or may count for each elevation. According to the configuration of counting for each elevation, it becomes clear which surface has what kind of defect, and it becomes easy to estimate the work man-hours on each surface of the structure.

The increase / decrease comparison table generation means 44 has a function of generating an increase / decrease comparison table T100 (see FIG. 8, detailed later) that lists expected defects and repair costs corresponding to the defects, and actual defects and repair costs. Have.

The output means 45 has a function of outputting the increase / decrease comparison table T100. The output means 45 displays the increase / decrease comparison table T100 on an appropriate display connected to, for example, the client terminal 100 or the information processing device 10. Further, the output means 45 may transmit the increase / decrease comparison table T100 to another device via an appropriate communication line. The output means 45 may print the increase / decrease comparison table T100 by an appropriately connected printing machine. For example, the information processing apparatus 10 or another device may be provided with a format of a quotation or a breakdown, and the quotation or the breakdown may be displayed and printed by inserting the data of the increase / decrease comparison table T100. .. According to this configuration, it is easy to submit a document to the customer.

The communication control unit 46 acquires necessary data from the storage means 40 based on the input from the input unit 102, and transfers the data from the information processing device 10 to the client terminal 100 or from the client terminal 100 to the information processing device 10. Send.

<Processing flow>
Here, the flow of the recording process of the repaired portion will be described together with an example of a screen displayed on the client terminal 100. FIG. 3 is a flowchart showing the flow of recording processing of the repaired portion. 4 to 7 are examples of screens displayed on the client terminal 100 according to the recording process. The contents and order of the following steps can be changed as appropriate.

(Step S1)
The display control means 41 displays the matter code input screen G100 on the display unit 101. FIG. 4 is a diagram showing an example of the case code input screen G100. When the matter code is input by the input unit 102 on the input screen G100, the communication control unit 46 transmits the drawing data 40A of the structure corresponding to the matter code to the client terminal 100.

Further, the communication control unit 46 transmits the assumed value data 40C and the unit price data 40B associated with the drawing data 40A of the structure corresponding to the matter code to the client terminal 100.

(Step S2)
The display control means 41 displays the defect input screen G110 on the display unit 101 based on the drawing data 40A acquired in step S1. FIG. 5 is a diagram showing an example of a defect input screen G110 for inputting a repaired portion. The display unit 101 displays the defect input screen G110 including the drawing received in step S1. On the defect input screen G110, an elevation view G111 of the structure, an arrow button B112 for switching the displayed elevation view (an arrow button B112a for switching to the elevation view on the left side, and an arrow button B112b for switching to the elevation view on the right side) are displayed. ), A plurality of marks G113 indicating a defect, a legend display button B114 for displaying the legend of the mark G113, a pen / handwriting button B115, and the like are displayed.

The mark G113 input to the defect input screen G110 is input in step S3 described below. The mark G113 has different marks G113a to G113f depending on the type of defect. Further, the mark G113d and the mark G113e have the same type of defect, but differ in quantity (here, size). The number displayed adjacent to the mark G113 indicates the number of defects.

(Step S3)
When the legend display button B114 is selected on the defect input screen G110, the display control means 41 displays the legend screen G200 on the display unit 101. FIG. 6 is a diagram showing a state in which the legend screen G200 is displayed on the defect input screen G110. In the example shown in FIG. 6, the legend screen G200 is partially superimposed on the defect input screen G110 and displayed.

The legend screen G200 includes a mark G113 that can be displayed on the elevation view G111. On the legend screen G200, the type of defect indicated by the mark G113 is displayed adjacent to the mark G113.

Further, the legend screen G200 includes the type and quantity of defects indicated by the mark G113 for some defects. In the example shown in FIG. 6, in the type of defect "repair of defective concrete / mortar", different marks G113 are associated with "slightly", "small", "medium", and "large". Here, the size of the associated mark G113 is different, and the larger the size of the defect, the larger the mark G113. As described above, according to the configuration in which different marks G113 are associated with each other according to the size of the defect in the same type of defect, the magnitude of the defect can be grasped only by looking at the mark G113.

(Step S4)
Next, the marking means 42 accepts the input of the mark G113 of the legend screen G200 based on the input from the input unit 102. Then, the defect status acquisition means 43 acquires the type of defect and the quantity of defects in response to the input of the mark G113 received by the marking means 42, and associates these with the position coordinates on the drawing of the mark. Hereinafter, the process of step S4 will be described in detail.

The marking means 42 accepts an input for selecting a mark G113 to be attached on the elevation view G111 in the display area of the legend screen G200. It also accepts clicks or taps on the input areas G210 to G216 including each mark G113, and drag-and-drop operations on the elevation view G111. That is, the legend screen G200 is a display area showing the meaning and content of the mark G113, and is an input controller for the mark G113. Then, the position coordinates on the elevation view G111 where the mark G113 is dropped are set as the position of the defect of the dropped mark G113, and the defect is associated with the position.

In FIG. 6, for some defects, different marks G113 are associated with each other according to the size of the defect, so that defects of various sizes can be input with one action, which is convenient. be.

Further, depending on the type of the mark G113, it is possible to input drawing with a virtual pen instead of the drag-and-drop operation of the mark G113. The drawing input is an input method in which after selecting the mark G113 on the legend screen G200, by sliding while selecting on the elevation view G111, the defective area (position and size) is specified by the slid locus. be. According to this configuration, the shape of the defective region can be input more intuitively on the elevation view G111. The defect status acquisition means 43 acquires the position and size of the defect based on the position coordinates of the defect area on the drawing.

The mark G113 capable of drawing input and the mark G113 of drag-and-drop operation input may be displayed differently on the legend screen G200. For example, in the example shown in FIG. 6, the mark G113 having a circular shape on the legend screen G200 can input the size of a defect by a drag-and-drop operation, and the mark G113 having a rectangular shape on the legend screen G200. , The size of the defect can be input by drawing input.

Further, depending on the type of the mark G113, in addition to the drag-and-drop operation of the mark G113, the input of the quantity of defects may be accepted numerically by a numeric keypad or the like. FIG. 7 is a diagram showing a state of the numeric keypad screen G300 for inputting the number of defects for one mark.

When the display control means 41 selects the mark G113g displayed on the elevation view G111, the display control means 41 displays the numeric keypad screen G300 on the display unit 101. In the example shown in FIG. 7, the numeric keypad screen G300 is partially superimposed on the defect input screen G110 and displayed.

The input unit 102 can input the value of the quantity of defects at the position of the mark G113g on the numeric keypad screen G300. The unit stored in the unit price data 40B is applied to the input quantity. Further, the numerical value input by the numeric keypad screen G300 may indicate the area of the defect. According to this configuration, when inputting a plurality of defects in a certain area, it is sufficient to input a numerical value without repeating the drag-and-drop operation of the mark G113, which is convenient.

(Step S5)
Based on the operation received in step S4, the marking means 42 displays the operated mark G113 on the elevation view G111 at a position where the drop operation is performed on the elevation view G111. In the example shown in FIG. 5, a plurality of marks G113a to G113f are displayed on the elevation view G111. According to this configuration, the type of defect can be easily selected, and the repaired part can be intuitively input and displayed.

Further, the marking means 42 displays the number of defects received by the drag-and-drop operation of the mark G113 and the number of defects received numerically adjacent to each mark G113.

By selecting the mark G113 on the elevation view G111, the number of defects may be editable by using a numeric keypad or the like. For example, the display control means 41 displays the numeric keypad screen G300 on the display unit 101 when the mark G113 is selected by the input unit 102. When a numerical value is input by the input unit 102, the marking means 42 displays the input numerical value adjacent to the selected mark. Further, the defect status acquisition means 43 edits the quantity of defects at the position of the mark G 113 by overwriting the input numerical value. The display control means 41 displays the edited numerical value adjacent to the mark.

At this time, if the magnitude of the defect after editing is associated with another mark G113 in the legend, the marking means 42 associates the mark G113 on the elevation view G111 with the mark G113 after editing. You may change it to another mark. According to this configuration, when it is desired to correct only the number of defects, the operation of replacing the mark is unnecessary and it is convenient. Further, even when the quantity of defects is corrected, it is easy to grasp the position and quantity of defects from the elevation view G111.

(Step S6)
Next, the defect status acquisition means 43 records the type and quantity of the defect acquired in step S4 and the position coordinates associated with them in the storage means 40. The processes from step S3 to step S6 are repeated until all the defects are input.

(Step S7)
Next, the increase / decrease comparison table generation means 44 generates the increase / decrease comparison table T100 with reference to the unit price data 40B, the assumed value data 40C, and the acquired defect status.

FIG. 8 is a diagram showing an example of an increase / decrease comparison table. The increase / decrease comparison table T100 is associated with information T110 regarding a defect, information T120 regarding an assumed value, information T130 regarding an actual defect, and information T140 regarding an increase / decrease. The defect information T110 includes the defect name T111, the defect repair specification T112, the unit price T113, and the unit T114.

The name T111 has "defect name (part, size, shape, etc.)" as "repair of defective concrete / mortar", "repair of floating mortar", "repair of old soil film peeling on wall surface" and "old coating of ceiling surface". The types of defects are listed, such as "Repairing steps where the film is peeled off." Then, the specification T112 of the relevant portion and the unit price T113 are linked and displayed for each type of defect.

In addition, regarding "repair of defective concrete / mortar", the size of the defect is divided into "a little", "small", "medium", and "large", and the specific numerical values indicated by the indication of the size of the defect are combined. It is displayed. Furthermore, the unit price of repair is displayed for each size of this defect. The repair unit price is generated with reference to the unit price data 40B. Usually, even if the type of defect is the same, the repair cost differs depending on the size of the defect. Further, even if the total area of defects is the same, the repair cost differs depending on whether there are many small defects or one large defect. Therefore, according to the configuration in which the repair unit price is linked and displayed for each defect quantity, the repair cost can be calculated more accurately.

The information T120 regarding the assumed value is a breakdown quantity of the assumed value included in the assumed value data 40C. This assumed value is generated with reference to the assumed value data 40C. The information T130 regarding the actual defect is the implementation quantity acquired by the defect status acquisition means 43.

In this way, in the increase / decrease comparison table T100, the assumed type and quantity (size and number) of defects and the actual type and quantity of defects acquired by the defect status acquisition means are represented in parallel. There is. For example, in the example shown in FIG. 8, "repair of defective concrete / mortar (slightly)" has a repair unit price of 1000 yen, and the estimated quantity is 60, while the actual quantity is 50. Is clear from the increase / decrease comparison table T100. The increase / decrease comparison table T100 makes it possible for the user to easily grasp the type of repair and the estimated cost.

The information T140 regarding the increase / decrease is the breakdown amount T141 obtained by multiplying the unit price T113 and the information T120 regarding the assumed value, the implementation amount T142 obtained by multiplying the unit price T113 and the information T130 regarding the actual defect, and the breakdown amount T141 and the implementation amount T142. The increase / decrease amount T143, which is the difference from the above, is included.

The increase / decrease comparison table generation means 44 has an estimated amount of repair cost (breakdown amount T141) according to the assumed defect and an actual amount of repair cost according to the actual defect (implemented amount) based on the unit price T113 of the repair cost. T142) is calculated for each defect, and the difference between the estimated amount and the actual amount is stored in the increase / decrease comparison table T100 as the increase / decrease amount T143. In the example shown in FIG. 8, it can be seen that the estimated repair cost for "repair of defective concrete / mortar (slightly)" is 60,000 yen, but the actual repair cost is 50,000 yen. According to this configuration, the estimated amount of repair and the actual cost incurred can be grasped by the user at a glance.

The increase / decrease comparison table generation means 44 aggregates the defect status for each elevation for a plurality of elevations associated with one structure, and calculates the number of defects and the repair cost. It may be represented in the increase / decrease comparison table T100. According to this configuration, it is possible to compare the types or numbers of defects for each wall surface of the structure, and to efficiently formulate a work plan assuming the work man-hours for each wall surface.

(Step S7)
The output means 45 outputs the increase / decrease comparison table T100 to the display unit 101 of the client terminal 100, the connected external device, the connected printing device, and the like.

According to the present embodiment, by selecting a pre-registered legend and performing a drag-and-drop operation on the elevation view, it is possible to record the status of defects in the structure. In addition, the status of the defect and its position can be associated and stored.

Further, according to the present embodiment, since the increase / decrease comparison table is generated based on the unit price data, the assumed value data, and the input actual defect data, it is possible to save the trouble of generating the increase / decrease comparison table. In addition, the increase / decrease comparison table makes it possible to easily compare the assumed defect status with the actual defect status, and to grasp the forecast of repair costs on the spot where the defect is input.

In the present embodiment, the assumed value data 40C is not displayed on the elevation view G111, but the mark G113 based on the assumed value data 40C may be displayed on the elevation view G111. In that case, the display control means 41 displays the numeric keypad screen G300 on the display unit 101 by selecting the mark G113a on the elevation view G111, and when the input unit 102 inputs a numerical value, the defect status acquisition means 43 By overwriting the input numerical value, the type and quantity of the actual defect at the position of the mark G113a may be acquired.

1: Repair work support system 10: Information processing device 20: Control device 22: CPU
24: Memory 26: Communication device 28: Storage device 28A: Management program 40: Storage means 40A: Drawing data 40B: Unit price data 40C: Assumed value data 41: Display control means 42: Marking means 43: Defect status acquisition means 44: Increase / decrease Comparison table generation means 45: Output means 46: Communication control unit 100: Client terminal 101: Display unit 102: Input unit 120: Control device 122: CPU
126: Communication device 128: Storage device

Claims (7)

Computer,
A display control means for displaying a drawing of a structure and displaying a legend including a plurality of different marks for each type of defect of the structure.
The selection of the first mark, which is an arbitrary mark among the plurality of the marks, is accepted according to the designation on the display area of the legend, and the operation of dragging and dropping the first mark onto the drawing is accepted, and the operation is accepted. A marking means for displaying the first mark at the position where the first mark is dropped on the drawing.
The type of defect indicated by the first mark, the quantity of the defect indicated by the first mark, and the position coordinates on the drawing in which the first mark is dropped are the actual defects of the defect, which are selected by the marking means. Defect status acquisition means to be acquired as type and quantity,
A program to function as. The mark differs depending on the type and quantity of defects.
The program according to claim 1, wherein the defect status acquisition means acquires the quantity associated with the first mark as the quantity of the defect indicated by the first mark. The display control means displays a numerical value indicating the number of defects indicated by the first mark adjacent to the first mark.
The defect status acquisition means receives an input, edits the quantity associated with the first mark, and edits the quantity.
The program according to claim 1 or 2, wherein the display control means displays the edited numerical value. 3. The marking means according to claim 3, wherein the marking means is changed to a second mark different from the first mark associated with the edited numerical value among the plurality of marks. program. The computer
A storage means for storing the drawings in association with the type and quantity of defects assumed in the structure.
An increase / decrease comparison table generation means for generating an increase / decrease comparison table in which the type and quantity of defects assumed in the structure and the type and quantity of actual defects acquired by the defect status acquisition means are represented in parallel.
The program according to any one of claims 1 to 3 for further functioning as. In the storage means, the unit price of the repair cost according to the type of defect is stored.
In the increase / decrease comparison table generation means, based on the unit price, the estimated amount of the repair cost according to the assumed defect, the actual amount of the repair cost according to the actual defect, the estimated amount and the actual amount. The program according to claim 5, wherein the difference between the two and the above is stored in the increase / decrease comparison table. A display control means for displaying a drawing of a structure and displaying a legend including a plurality of different marks for each type of defect of the structure.
The selection of the first mark, which is an arbitrary mark among the plurality of the marks, is accepted according to the designation on the display area of the legend, and the operation of dragging and dropping the first mark onto the drawing is accepted, and the operation is accepted. A marking means for displaying the first mark at the position where the first mark is dropped on the drawing, and
Defect status for acquiring the type of defect indicated by the first mark, the quantity of defects indicated by the first mark, and the position coordinates on the drawing in which the first mark is dropped, which are selected by the marking means. Acquisition method and
An information processing system characterized by being equipped with.

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