JP4599230B2 - Program and mobile terminal for building damage investigation - Google Patents

Description

  The present invention relates to a technique for investigating building damage.

  For example, when conducting a survey of earthquake insurance covered houses after an earthquake disaster, the investigator fills in a predetermined survey form, takes a picture, calculates the amount of insurance money, etc. In many cases, there is a problem such that it is difficult to take an early response when damage such as an earthquake occurs over a wide area.

On the other hand, Japanese Patent Laid-Open No. 2002-123678 discloses a technique for enabling such work to be performed promptly and accurately even if the person who performs the work such as summation of the building damage amount is a beginner. Is disclosed. Specifically, when building damage accumulation is performed, a plurality of check items prepared in advance are divided into cells and displayed on the display means. Of the plurality of check items displayed on the display means, the number of tatami mats of the item in which building damage has occurred is output from the input means in response to a user instruction. Then, based on the length of the tatami mats prepared in advance, the number of tatami mats output from the input means is converted into an area value having a unit of square meters. Further, the building damage amount is calculated by multiplying the unit price per square meter prepared in advance by the area value converted by the conversion means. However, drawings that need to be attached to the survey form cannot be handled, and there is a limit to reducing the amount of office work.
JP 2002-123678 A

  As described above, the conventional technique has a problem that the amount of office work is limited, and when a large-scale earthquake or the like occurs, appropriate insurance payment cannot be made promptly.

  Accordingly, an object of the present invention is to provide a technique for enabling the creation of a plan view and the necessary data acquisition required for building damage investigation to be performed quickly.

  A program for investigating a building damage according to the present invention receives an input of a floor wall on a predetermined floor of a building to be investigated, and displays the floor wall on a display device as a plan view according to the input, When an input is received regarding the damage range of the outer wall, the step of storing the damage range of the outer wall is displayed on the plan view, the damage length data of the outer wall is stored in the damage data storage section, and the surveyed building exists. In the case of the conventional shaft construction method, data for specifying the wall height and the window frame area within the damaged range of the outer wall according to the input of the damaged range of the outer wall on the plan view (for example, the area itself or the window frame) A step of accepting the input of data for specifying the wall height and the window frame area within the damage range of the outer wall and storing it in the damage data storage unit, Calculating the damage area from the data for identifying the damaged length and wall height and the window frame area of the outer wall that is stored in over data storage unit, to perform the steps on a computer to be stored in the damage data storing unit.

  In this way, not only the plan view is completed, but also the three-dimensional data necessary for identifying the damage is input separately from the plan view, but linked to the data in the plan view. Can be handled. In other words, if the user concentrates on the damage investigation and inputs, the basic data for calculating the insurance money can be automatically generated. In addition, insurance data can be easily calculated if basic data is collected.

  In addition, when an input of a floor wall in a predetermined floor of the survey target building is received, a floor area is calculated and stored in the building data storage unit, and when the input of the floor wall in all floors of the survey target building is completed, the building data storage is performed. Calculating the total floor area from the floor area stored in the department and storing it in the building data storage section; the total floor area stored in the building data storage section; and the total floor area stored in the insurance contract data storage section The computer may further execute a step of displaying a warning on the display device when there is a difference of a predetermined ratio or more as compared with the area.

  When there is a discrepancy between the contract contents and the substance, the user (for example, an investigator) is requested to confirm. In this way, the user can check the contents of the contract without considering it, and thus can concentrate on the investigation and input work.

  Further, when an input is received regarding the range of roof damage in the plan view, a step of displaying the roof damage range on the plan view in such a manner that the roof damage range can be specified is calculated, and an area on the plan view related to the range of the roof damage is calculated. The step of calculating the roof damage area using the area on the plan view and the slope coefficient of the roof and storing it in the damage data storage unit may be further executed by the computer. Since only the plan view is handled in this way, when a numerical value relating to a three-dimensional structure is required, the calculation is automatically performed so that the user can concentrate on the investigation and input work.

  The program according to the present invention is stored in a storage medium or storage device such as a flexible disk, a CD-ROM, a magneto-optical disk, a semiconductor memory, or a hard disk. In some cases, digital signals are distributed over a network. Note that data being processed is temporarily stored in a storage device such as a computer memory. Moreover, if this program is executed by a portable terminal, it will be possible to efficiently conduct surveys and input operations at the site of the survey.

  ADVANTAGE OF THE INVENTION According to this invention, preparation of a top view required in the damage investigation of a building and required data acquisition can be performed rapidly.

  FIG. 1 shows a system outline diagram according to an embodiment of the present invention. For example, in a network 1 such as an intranet, a server 9 that manages a contract DB 91 that stores contract data, a key terminal 5 that is a personal computer and executes main business processing at a base, and a personal computer that is operated by an investigator, for example. Is connected to the investigator terminal 7. There is no limit to the number of key terminals 5 and investigator terminals 7.

  The key terminal 5 is connected to the printer 51 and can output various reports. Further, the storage device 52 of the key terminal 5 stores various data necessary for survey data 521 including survey target building data (including contract data of the survey target building), survey result data, and the like. Various input master data 522 including data and business application A are stored. The business application A is executed by the key terminal 5 and is a data management unit that manages survey data and the like, a data output unit that causes the printer 51 to output a report and the like, and data for performing editing processing of survey data and the like And editorial department. The key terminal 5 has a built-in memory card reader / writer or is connected to the reader / writer, and among the survey data 521 that has not been surveyed, data related to a portion that one investigator is responsible for and various necessary input masters Data 522 is written to the memory card 2. Which data is assigned to which investigator is managed by the data management unit of the business application A.

  The investigator terminal 7 stores the business application B in the storage device 71 and executes the business application B. The business application B is an application program associated with the business application A, but does not have a data management unit and a data output unit, and has a data editing unit for editing the survey data stored in the memory card 2. Have. That is, the investigator terminal 7 has a built-in reader / writer of the memory card 2 or is connected to the reader / writer, and the data (survey data) in the memory card 2 is transferred to the business application B according to a user instruction. Editing may be performed by the data editing unit.

  As described above, the memory card 2 stores the partial data of the survey data 521 handled by one investigator and various necessary master data 522 for input. Then, it is installed in a slot of a PDA (Personal Digital Assistant) 3 and processed by the business program C of the PDA 3. The PDA 3 is built in the camera, or as shown in FIG. 1, a camera card 4 that can be mounted in the slot of the PDA 3 is mounted as necessary.

  For example, the data editing unit of the business application A executed in the key terminal 5 accepts the input of the survey basic data from the operator, stores it in the storage device 52 as the survey data 521, and contracts the server 9 as necessary. The contract data of the survey target building is read from the DB 91 and stored in the storage device 52 as the survey data 521. When the input of each item of the survey basic data is completed, the data management unit of the business application A stores the survey data 521 for one surveyor and various necessary master data 522 for input into one memory card 2 by the reader / writer. Write. Further, the data management unit of the business application A records which survey data is output to which investigator's memory card 2. The memory card 2 is handed over to the investigator in charge and installed in the slot of the PDA 3. The investigator in charge holds the PDA 3 and goes to the site of the surveyed building to perform survey and input work. Before and after the survey, the memory card 2 is inserted into a reader / writer built in the investigator terminal 7 or connected to the memory card 2 by the data editing unit of the business application B in the surveyor terminal 7. The survey data may be referred to or edited.

  When the investigation by the investigator is completed, the memory card 2 is collected, the investigation data (including image data) and the like are read out by the key terminal 5 and stored in the storage device 52 of the key terminal 5. When the survey data is read, all the survey data in the memory card 2 is deleted. In addition, the data management unit of the business application A registers the collection of the survey data from the memory card 2. Then, the operator causes the data editing unit of the business application A in the key terminal 5 to display and check the survey data read from the memory card 2 and make necessary corrections. Then, the report 51 of a predetermined format is printed on the printer 51 by the data output unit of the business application A. The output can be output as a file in various formats.

  Next, a functional block diagram of the PDA 3 is shown in FIG. The PDA 3 stores and executes a business application C related to the business applications A and B and executed in the PDA in its own storage device. The PDA 3 has a memory card 2 mounted in its slot. The memory card 2 includes a survey data storage unit 32 and a master data storage unit 33. The business application C includes a control unit 311, a drawing creation unit 312, a building / ground survey input unit 313, a household property survey input unit 314, a survey result processing unit 315, and a photographing processing unit 316. The survey data storage unit 32 includes a damage data storage unit 321, an image data storage unit 322, a contract data storage unit 323, and a building data storage unit 324.

  Next, the processing of the PDA 3 will be described with reference to FIGS. When the business application C is activated in the PDA 3, the control unit 311 of the business application C performs user authentication (step S1). That is, the user is prompted to input an ID and password, receives an input of the ID and password from the user, and compares the ID and password with a pre-registered ID and password. If they match, the process proceeds to the next process. If they do not match, the process returns to the initial screen without shifting to the next process.

  If the user authentication is successful, the control unit 311 displays a status list on the display device (step S3). For example, a screen as shown in FIG. 4 is displayed. In the screen example of FIG. 4, the contract data (securities number, contractor name, status) stored in the contract data storage unit 323 is listed, an end button for ending the process, and a new case registration is performed. A new button for deleting the item, a delete button for deleting the item, and an input button for performing input processing for a specific item. Here, it is assumed that a specific item is selected and the input button is pressed. That is, the control unit 311 accepts a selection input for a specific case from the user (step S5), and activates the drawing creation unit 312.

  The drawing creation unit 312 performs a drawing creation process (step S7). This process will be described with reference to FIGS. First, the drawing creating unit 312 displays a screen as shown in FIG. 6 on the display device. In the screen example of FIG. 6, a drawing input field 201, a related numerical value display column 202, a floor wall button, a foundation damage button, and a column damage button (in the case of a conventional shaft assembly method, damage in the case of a framed wall method) Corner button), roof damage button, wall damage button, single face damage check box, UNDO button to undo the operation once, partial erase button to clear only the selected part, clear input for one floor Delete all button, display magnification selection combo box, floor designation combo box, floor area display column of designated floor, total floor area display column, survey result display button, drawing creation button, building button, , Including mobile property buttons. It should be noted that the drawing creation button, the building button, and the movable property button indicated by dotted lines cannot be selected.

  First, the user clicks the floor wall button to shift to the floor wall input mode. First, the user inputs the outer wall. That is, the drawing creation unit 312 receives input of outer wall data from the user and displays it on the display device (step S21). At this time, in this embodiment, it is assumed that the outer wall is straight, and even if the point 201b is selected after selecting the point 201a, the point 201a and the point 201b are not directly connected. As shown in FIG. 7, the straight line 204 along the grid starting from the point 201a is specified and displayed on the display device. This is because it is difficult for the user operating the PDA 3 at the site of the survey to indicate an accurate point. The difference between the point 201a and the point 201b is represented by an arrow 203a in the horizontal direction and by an arrow 203b in the vertical direction. Therefore, the long arrow 203b is adopted as the direction and the length of the outer wall. 203a is ignored as an error. The length of the arrow 203b is displayed in the related numerical value display column 202 as the length of the outer wall. In this case, since it is 1 m, the outer wall has a length of 21 m. By looking at the related numerical value display column 202, the user does not have to count each cell.

  By repeating such an operation, the input of the outer wall 205 on the first floor of the survey target building is completed in the drawing input field 201 as shown in FIG. When the floor wall button is clicked, the floor wall button is replaced with the floor surface button, and when the inside of the frame closed by the outer wall 205 is clicked, the inside of the outer wall 205 is filled. That is, when the floor creation input is received from the user, the drawing creating unit 312 displays the floor surface as shown in FIG. 9 (step S23), calculates the floor area within the painted area, It is displayed in the display field (step S25). By automatically calculating the floor area in this way, the user does not have to calculate the floor area, and the work can be completed by creating a drawing. In addition, data such as the floor area and outer wall length of the input floor (here, the first floor) is temporarily registered in the building data storage unit 324 in association with the security number.

  Then, the user clicks the foundation damage button to shift to the foundation damage input mode. Then, as shown in FIG. 10, the user designates a foundation damage start point 206a and a foundation damage end point 206b. That is, the drawing creation unit 312 receives an input of the basic damage range from the user, specifies the basic damage range, and displays it on the display device (step S27). That is, as shown in FIG. 11, the basic damage range 207 is displayed in a color different from the color of the outer wall. Further, the drawing creation unit 312 acquires the length of the basic damage range 207 from the drawing input field 201 and temporarily registers it in the damage data storage unit 321 (step S29). For example, length data is temporarily registered in association with an ID (such as a serial number) of a basic damage range. In addition, the basic damage range ID and position data are stored. Further, the value of the length of the basic damage range 207 is displayed in the related numerical value display column 202. The processing shifts to the processing in FIG. In this way, the user does not have to calculate the length of the basic damage range.

  Next, the user clicks the wall damage button to shift to the outer wall damage input mode. Then, the user inputs a range where the outer wall is damaged. That is, the drawing creation unit 312 receives an input of the outer wall damage range from the user, and displays the outer wall damage range as shown in FIG. 13 (step S31). In the example of FIG. 13, damage to the outer wall occurs in the ranges 208a, 208b, and 208c. In addition, the start point and the end point may be specified, and the space between them may be set as the outer wall damage range, or may be specified once more. Further, the drawing creation unit 312 acquires the outer wall damage length from the drawing input field 201 and temporarily registers it in the damage data storage unit 321 (step S33). The length data is temporarily registered in association with the ID (serial number or the like) of the outer wall damage range. Further, the ID and position data of the outer wall damage range are stored. Since the construction method of the survey target building is registered in the contract data storage unit 323, the drawing creation unit 312 determines whether the construction method included in the contract data related to the survey target building is a conventional shaft construction method. (Step S35). In the case of the conventional shaft construction method, since it is necessary to specify the wall height and the window frame area, the drawing creating unit 312 displays an input pop-up window of the wall height and the window frame area (step S37). The input pop-up window is displayed after designating one outer wall damage range, for example. The user inputs the wall height and window frame area in the input pop-up window. The drawing creation unit 312 receives input of the wall height and window frame area from the user, and temporarily registers it in the building data storage unit 324 (step S39). The input data is provisionally registered in association with the ID of the corresponding outer wall damage range of the outer wall. Further, the outer wall damage area is calculated from the wall height and window frame area temporarily registered in the building data storage unit 324 and the wall damage length temporarily registered in the damage data storage unit 321, and is temporarily stored in the damage data storage unit 321. Register (step S41). The outer wall damage area is calculated by (wall height × wall damage length−window frame area). The outer wall damage area is temporarily registered in association with the ID of the corresponding outer wall damage range of the outer wall.

  Further, the user clicks a column damage button to shift to a column damage input mode. The column damage button is present in the case of the conventional shaft assembly method. That is, the contract data storage unit 323 includes construction method data for the surveyed building, and the drawing creation unit 312 displays a column damage button based on the data or a damaged corner button in the case of a framed wall method. Decide whether or not to display. Here, it is assumed that a column damage button is displayed. When entering column damage input mode, click on the position of the damaged column. That is, the drawing creation unit 312 receives a column damage input and displays the column damage position on the display device (step S43). For example, as shown in FIG. 14, “X” or “*” is displayed in the column damaged portions 209a, 209b, and 209c. * Is displayed instead of x when overlapping with the wall damage range. Further, the drawing creation unit 312 acquires the number of column damages from the column damage location in the drawing input field 201, and temporarily registers it in the damage data storage unit 321 (step S45). And it transfers to the process of FIG.

  On the other hand, in the case of the framed wall construction method instead of the conventional shaft construction method, the outer wall area is not necessary for specifying the damage scale, so the mode shifts to the corner input mode. The user presses a displayed damage corner button instead of the column damage button, and clicks the corresponding place in the drawing input field 201. If the damaged corner button is clicked again, it becomes a normal corner button, and the corresponding place is clicked in the drawing input field 201. Therefore, the drawing creating unit 312 receives the input of the damaged corner and the normal corner, and displays the damaged corner and the normal corner at the corresponding location (step S51). Further, the numbers of damaged corners and normal corners are acquired from the drawing input field 201 and temporarily registered in the damage data storage unit 321 (step S53). And it transfers to the process of FIG.

  Next, the user clicks on the roof damage button to enter the roof damage input mode. In this embodiment, the roof damage range is specified by a rectangle, and the rectangle is specified by specifying one of the vertices and the opposite vertex. Therefore, as shown in FIG. 16, the user designates the first vertex 210a and the diagonal vertex 210b of the roof damage range. Then, the drawing creation unit 312 receives an input of the roof damage range from the user, and displays the corresponding range in the drawing input field 201 of the display device (step S55). For example, as shown in FIG. 17, the roof damage range is displayed with a frame line 211. Further, the area of the input roof damage range (area on the drawing input field 201) is acquired (step S57). Then, the drawing creation unit 312 reads the roof inclination coefficient (default value) registered in the master data storage unit 33, calculates the roof damage area from the roof inclination coefficient and the area of the input roof damage range, Temporarily registered in the damage data storage unit 321 (step S59). The roof damage area is temporarily registered in association with the ID (serial number or the like) of the roof damage range. Further, the roof damage range ID and position data are stored in association with each other. Calculated by the slope coefficient of the roof × the area of the input roof damage range. The drawing creation unit 312 displays the calculated roof damage area in the related numerical value display column 202.

  If the surveyed building is a one-story building, the second floor entry is not necessary, so the entry ends here if there is no particular problem. If it is necessary to input (or modify) the second floor, “second floor” is designated in the floor designation combo box. Here, when the user designates “second floor” in the floor designation combo box, the drawing creation unit 312 receives an instruction to switch back the floor from the user (step S61). If it is determined that the floor is switched, the drawing creating unit 312 displays the current floor as a mask if the destination floor is the upper floor (step S63). As shown in FIG. 18, a mask 212 is displayed to represent the first floor outline. This is because only the first floor and the second floor are displayed at the same time because it is expressed only in the plan view, and the input cannot be made accurately, and if it is left blank, it is difficult to understand the relationship with the lower floor. Then, the process returns to step S21 in FIG. That is, for the second floor, inputs such as outer walls and floors, wall damage, and column damage are performed. FIG. 18 shows a state in which the outer wall 213 on the second floor and the like are input.

  On the other hand, if floor switching is not detected in step S61, it is determined whether the recalculation button is clicked (step S65). If the recalculation button has not been clicked, the process proceeds to the corresponding step in order to perform correction / addition processing (step S67). Modify / add foundation damage, modify / add column damage, modify / add wall damage, modify / add roof damage. It moves to the step for that.

  When the recalculation button is clicked, the drawing creation unit 312 calculates the total floor area (step S69). The areas of all the floors are added and stored in the building data storage unit 324. Then, the contracted floor area of the surveyed building is read from the contract data storage unit 323 (step S71), and it is determined whether the difference between the calculated total floor area and the contracted total floor area is within a predetermined error range (step S71). S73). For example, it is determined whether it is within plus or minus 10%. If the difference between the calculated total floor area and the contracted total floor area is not within a predetermined error range, a warning is displayed on the display device (step S75). The warning is, for example, a message that the input total floor area exceeds the allowable range. In response to this, the user reviews the input content or, if there is no mistake, inputs the input content, for example. If the difference between the calculated total floor area and the contracted total floor area is within a predetermined error range, the process proceeds to step S77. Then, necessary recalculation is performed on the provisional registration data (for example, recalculation reflecting correction), and provisional registration is performed as necessary (step S77). Further, the plan view of each floor is also stored in the image data storage unit 322 separately.

  As described above, since the drawing creation unit 312 can not only create a plan view but also collect and calculate data necessary for damage assessment, the workload of the investigator who is the user is greatly reduced. A more appropriate investigation will be able to be done quickly.

Returning to the processing flow of FIG. 3, the user clicks the building button to activate the building / ground survey input unit 313. Then, the building / ground survey input unit 313 receives the building / ground survey input from the user and registers it in the damage data storage unit 321. FIG. 19 shows an example of a building / ground survey input screen. In the example of FIG. 19 (a), a combo box for selecting the type of residential land and a combo box for selecting the roof roof material and shape are included. As shown in Fig. 19 (b), the type of residential land is either a combined house or an old farmhouse, a one-story residential building, a two-story small residential building (50 m ² or less), or a three-story residential building. Is supposed to be selected. Further, as shown in FIG. 19 (c), the roof fence material and the types of shapes are as follows: metal plate fence (× 1.3), tile / straight fence (× 1.4), tile / straight fence (× 1. 5) One of the main building (complex roof) (× 1.6) is selected. In addition, (* 1.3) etc. show the inclination coefficient of a roof. When specified in this field, the roof damage area is calculated using the slope coefficient instead of the default slope coefficient.

  In addition, in the case of a secondary assessment of the building, input column for damaged inner wall length of inner wall, input column for total length of inner wall surface, input column for damaged floor area of floor assembly, and input of total floor area Column, display column of ratio (%) calculated by (damaged inner wall length / total length of inner wall surface × 100), and ratio (%) calculated by (damaged floor area / total floor area × 100) The display column is provided. In addition, in order to investigate damage to the ground, etc., the input fields for the embankment area and the height of the embankment / excavation, the input field for the excavation area and the height of the embankment / excavation, and the retaining wall A height input field and an input field for the collapse length (width) are provided. If there is a special note, enter the special note in the special note input field.

  Regarding damage certification, the damage data obtained in connection with the floor plan created by the partial drawing creation unit 312, the damage data entered in the secondary building assessment field, and the ground damage etc. column The investigation result processing unit 315 performs determination processing using the input damage data, the well-known damage recognition standard table, the well-known supplementary damage recognition standard table for the second assessment, and the well-known ground damage ratio table. The determination result is registered in the damage data storage unit 321 as damage recognition for a building or the like. This determination process is well known and will not be described further. The determination result is displayed in the “damage authorization” column. The data for the secondary building assessment may not be entered. If the building secondary assessment data is not entered, the damage data acquired in connection with the floor plan created by the drawing creation unit 312, the damage data entered in the field of damage such as ground, and known damage The investigation result processing unit 315 performs determination processing using the authorization standard table and the well-known ground damage ratio table (step S9).

  In addition, the user clicks on the movable property button and activates the movable property survey input unit 314 for daily use. The personal property survey input unit 314 receives a personal property survey input from the user and stores it in the damage data storage unit 321. For example, the daily life property survey input unit 314 displays a screen as shown in FIGS. 20 and 21 on the display device. In the example of the screen of FIG. 20, for each representative item of tableware, ○ when there is no damage, × when there is damage, a column for inputting “−” when there is no damage, a component ratio input column, and appliances For each of the representative items, there is also a field for inputting the presence or absence of damage and a composition ratio input field, and for each representative item of furniture, a field for inputting the presence or absence of damage and a composition ratio input field. Is provided. Note that “>>” in the column of electrical appliances and the column of furniture is a button for indicating options for replacing the representative item. When the “next page>” button is clicked, the screen example shown in FIG. 21 is displayed.

  In the screen example of FIG. 21, a field for inputting presence / absence or absence of damage and a composition ratio input field, a loss rate selection combo box for clothes bedding, and a composition ratio input field for the personal belongings and other representative items, application A contract display or selection field (either after January 1, 1996 or before December 31, 1995. Displayed based on data contained in the contract data storage unit 323) and a special note entry field are provided. It has been. Here again, the investigation result processing unit 315 calculates the loss rate from the damage data input on the screens of FIGS. 20 and 21 and further calculates the weighted loss rate, so that the total loss, half-loss is calculated according to a predetermined criterion. It is determined whether it is a loss, a partial loss, or irresponsibility, and the determination result on the personal property for daily life is stored in the loss data storage unit 321 (step S11).

  Then, the user clicks the survey result button. Then, the investigation result processing unit 315 uses the damage data and the determination result stored in the damage data storage unit 321, the contract data stored in the contract data storage unit 323, and the building data stored in the building data storage unit 324. Then, the survey result screen is displayed on the display device (step S13). For example, a screen as shown in FIG. 22 is displayed. In the example of FIG. 22, the column A mainly including data stored in the contract data storage unit 323, the column B displaying the determination result by the survey result processing unit 315, and the column for entering the agreement date with the contractor. And an input field for interviewers (such as investigators) with the contractor, a data display field for the camera, and a special note entry field.

  In column A, survey date, disaster date, company name, contractor name (building and movable property), location, security number, total floor area, building structure (conventional shaft frame, framed wall method, etc.), building floor number, building The earthquake insurance amount and insurance value are displayed for each of the number, roof shape, damage type (collapse, fire, flood, etc.), building, and household property. If there is a difference from a numerical value or the like input or calculated by the drawing creation unit 312 or the like, which is prioritized is set, and the prioritized one is displayed.

  In column B, the result of certification (total loss, half loss, partial loss, irresponsibility) and the amount of insurance claims paid are displayed for each building and household property. The paid insurance amount is calculated and displayed by the survey result processing unit 315 from the earthquake insurance amount, the insurance value, and the paid insurance money in accordance with a predetermined well-known formula.

  It is possible to correct numerical values on this display screen. When the registration button at the bottom is clicked, it is registered in the survey data storage unit 32 as confirmed data.

  If the camera button 302 is clicked, the photographing processing unit 316 is activated, and a photograph can be taken with the camera card 4 or the like. The number of shootable images is also displayed according to the remaining capacity of the memory card 2.

  Further, when the payment details button 301 is clicked, the survey result processing unit 315 displays a screen as shown in FIG. The screen example shown in FIG. 23 is a screen for displaying and inputting information when the insurance applied to the surveyed building is related to a plurality of insurance companies. In FIG. 23, XXXXX is the insurance company that requested the investigator who operates the PDA 3, and the other insurance companies are entered after confirming with the contractor such as the surveyed building. Specifically, column C is a list display portion, column D is an input column, one line of column C is selected, and the company name, security number, and earthquake insurance amount for that line are selected in column D. Enter. Then, the survey result processing unit 315 apportions the amount of the insurance money calculated using the damage data registered in the damage data storage unit 321 in a form that matches the insured entity, and pays the insurance money of each company. Determine and display the amount of money. Data on the calculated amount of insurance money paid is also registered in the damage data storage unit 321. When the input and calculation are completed, the screen returns to the screen of FIG. 22 with the return button.

  Then, when the user clicks the camera button 302, the shooting processing unit 316 is activated to take an image of a building or the like from a predetermined position and display the shooting result (step S15). Note that the captured image data is stored in the image data storage unit 322 in association with, for example, a security number.

  By using such a PDA 3, the investigator can input necessary information at the site of the investigation and necessary calculations are automatically performed, so that the work performed after returning to the base can be minimized.

  After such processing is executed in the PDA 3, the survey data stored in the memory card 2 may be corrected by the business application B of the investigator terminal 7, but finally the storage device 52 of the key terminal 5. Moved to. The operator confirms the contents by the business application A of the key terminal 5 and causes the data output unit to output a report from the printer 51. The output report is as shown in FIG. 24 and FIG. 25, for example, which has been used conventionally. The report shown in FIG. 24 is obtained by printing the contents shown on the screen in FIGS. 22 and 23. The plan view shown in FIG. 25 is data created by the drawing creation unit 312. Also, the outer wall damage area calculated as the damage data, the floor area and the total floor area calculated as the building data, and the external length of the building are read together with the image data and printed. The data output unit of the business application A displays the contents of a report as shown in FIGS. 24 and 25 on the screen, for example, and asks the user for confirmation.

  As described above, reports that have been used in the past can be created more efficiently, and a quick response can be made to the policyholder in the event of a large-scale disaster.

  Although one embodiment of the present invention has been described above, the present invention is not limited to this. That is, the functional block diagrams shown in FIGS. 1 and 2 are examples, and do not necessarily correspond to actual program modules. Also, the configuration of the devices connected to the network can be changed as necessary. Furthermore, although the example which uses PDA3 was shown, the portable terminal which has a communication function and a telephone function, for example may be sufficient.

  Since data stored in the memory card 2 includes important personal data, a program module or a semiconductor chip for confidentiality such as encryption may be used, but these are shown in FIGS. 1 and 2. Not. In the processing flow, the description thereof is omitted.

  Furthermore, the reports are not limited to those shown in FIGS. 24 and 25, and reports in other formats can be output.

  In FIG. 5, FIG. 12, and FIG. 15, if there is no damage, the steps related to it are skipped.

  The key terminal 5, the investigator terminal 7 and the server 9 are computer devices, and as shown in FIG. 26, a display connected to a memory 2501, a CPU 2503, a hard disk drive (HDD) 2505, and a display device 2509. A control unit 2507, a drive device 2513 for a removable disk 2511, an input device 2515, and a communication control unit 2517 for connecting to a network are connected by a bus 2519. An operating system (OS) and an application program for executing the processing in this embodiment are stored in the HDD 2505, and are read from the HDD 2505 to the memory 2501 when executed by the CPU 2503. If necessary, the CPU 2503 controls the display control unit 2507, the communication control unit 2517, and the drive device 2513 to perform necessary operations. Further, data in the middle of processing is stored in the memory 2501 and stored in the HDD 2505 if necessary. In the embodiment of the present invention, an application program for executing the processing described above is stored and distributed in the removable disk 2511 and installed from the drive device 2513 to the HDD 2505. In some cases, the HDD 2505 may be installed via a network such as the Internet and the communication control unit 2517. Such a computer device realizes various functions as described above by organically cooperating the hardware such as the CPU 2503 and the memory 2501 described above with the OS and necessary application programs.

  The PDA 3 may be provided with an HDD 2505, or the memory card 2 or the built-in flash memory may be used instead. Generally, a disk drive unit 2513 is not provided.

  In some cases, the PDA 3 may be implemented as a notebook personal computer. In that case, it has the same configuration as the computer apparatus shown in FIG.

1 is a system configuration diagram according to an embodiment of the present invention. It is a functional block diagram of PDA. It is a figure which shows the main processing flow. It is a figure which shows an example of a condition list screen. It is a figure which shows the processing flow of drawing creation processing. It is a figure which shows the example of the 1st step of drawing creation screen. It is a figure which shows the example of the 2nd step of drawing creation screen. It is a figure which shows the example of the 3rd step of drawing creation screen. It is a figure which shows the example of the 4th step of drawing creation screen. It is a figure which shows the example of the 5th step of drawing creation screen. It is a figure which shows the example of the 6th step of drawing creation screen. It is a figure which shows the processing flow of drawing creation processing. It is a figure which shows the example of the 7th step of drawing creation screens. It is a figure which shows the example of the 8th step of drawing creation screen. It is a figure which shows the processing flow of drawing creation processing. It is a figure which shows the example of the 9th step of drawing creation screen. It is a figure which shows the example of the 10th step of drawing creation screens. It is a figure which shows the example of the 11th step of drawing creation screens. It is a figure which shows an example of the damage investigation input screens, such as a building and the ground. It is a figure which shows an example of a life movable property investigation input screen. It is a figure which shows an example of a life movable property investigation input screen. It is a figure which shows an example of an investigation result screen. It is a figure which shows an example of a payment insurance claim details screen. It is a figure which shows an example of an earthquake insurance damage report. It is a figure which shows an example of the top view of an investigation object building. It is a functional block diagram of a computer.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Network 2 Memory card 3 PDA 4 Camera card 5 Key terminal 7 Researcher terminal 9 Server 311 Control part 312 Drawing preparation part 313 Building and ground investigation input part 314 Life property investigation input part 315 Investigation result process part 316 Photographing process part 32 Survey data storage unit 33 Master data storage unit 321 Damage data storage unit 322 Image data storage unit 323 Contract data storage unit 324 Building data storage unit

Claims (4)

A program for building damage investigation,
Receiving an input of a floor wall on a predetermined floor of the survey target building, and displaying the floor wall on the display device as a plan view according to the input;
When receiving an input about the damage range of the outer wall on the plan view, displaying the damage range of the outer wall on the plan view so as to be specified, and storing the damage length data of the outer wall in the damage data storage unit; ,
When the surveyed building is a conventional frame construction method, the wall height and the window frame area within the outer wall damage range are specified according to the input of the outer wall damage range on the plan view. Prompting the input of data, receiving the input of data for specifying the window frame area in the damage range of the wall height and the outer wall, and storing in the damage data storage unit;
Calculating a damage area from data for specifying the damage length of the outer wall and the wall height and the window frame area stored in the damage data storage unit, and storing the damage area in the damage data storage unit;
A program that causes a computer to execute. A floor area is calculated when an input of a floor wall in a predetermined floor of the survey target building is received, and stored in a building data storage unit;
When the input of the floor walls in all the floors of the survey target building is completed, calculating the total floor area from the floor area stored in the building data storage unit, and storing in the building data storage unit;
Comparing the total floor area stored in the building data storage unit with the total floor area stored in the insurance contract data storage unit, and displaying a warning on a display device if there is a difference of a predetermined ratio or more When,
The program according to claim 1, further causing a computer to execute. When receiving an input about the range of roof damage in the plan view, displaying the range of the roof damage on the plan view in such a manner that it can be specified;
Calculating an area on the plan view related to the range of the roof damage, further calculating a roof damage area using the area on the plan view and the slope coefficient of the roof, and storing the area in the damage data storage unit When,
The program according to claim 1, further causing a computer to execute.   A portable terminal comprising the program according to claim 1.

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