JP2005215998A - Support system for hazard prevention related to vibration of building, and computer program for support of hazard prevention related to vibration of building - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide excellent-operability support technology for a vibration control of a building, and to provide excellent-operability technology for supporting exhibition of an evacuation route according to disaster such as an earthquake. <P>SOLUTION: An earthquake indoor risk degree diagnostic system 301 derives visualization 331 of a risk area by a turnover of a machine, a display commodity, furniture or the like, a remedy guide 332 of a danger point, visualization 333 of a risk degree of the evacuation route, display 334 of a loss amount, countermeasure cost and improvement effect, comparison and display 335 of improvement plans having the different loss amounts, countermeasure cost and improvement effect, a room assignment plan 336, and an evacuation guidance system 337, from layout (plan) information 302, building information 321, user information 309 and equipment/furniture arrangement information 318. <P>COPYRIGHT: (C)2005,JPO&NCIPI

Description

  The present invention relates to a technique for supporting risk countermeasures related to vibration of a building. For example, the present invention relates to a technique for predicting the degree of danger due to the collapse of furniture in the event of an earthquake.

As a technology related to a support system for risk countermeasures against vibrations of buildings, for example, earthquakes, there are the following technologies (see, for example, Patent Document 1).
In Patent Document 1, “a computer is used to create shape data of a building having a desired structure, and a CG (Computer Graphics) image generated based on the building is used to build a building on a display device attached to the computer. When displaying the inside and outside of an object as a moving image or a still image, the above-described computer calculates the shaking of the building when a vibration having a predetermined magnitude is applied to the building. The shaking of the building is displayed on the display device as a moving image of a CG image.
JP 2001-60214 A (paragraphs 0006, 0015 to 0018, 0027 to 0029, FIGS. 3, 4, and 9)

The problem to be solved by the present invention is to provide support technology for vibration countermeasures for buildings with excellent operability.
This issue will be explained with specific examples. The technology for calculating the risk of building shake due to earthquakes and other disasters taking into account the user's ability to avoid disasters, etc., or the design and furniture of the building and floor plan desired by the user It is to provide a technique with excellent operability that supports the examination of the arrangement of the machine.
Furthermore, another problem to be solved by the present invention is to provide a technique with excellent operability that supports providing an evacuation route according to a disaster such as an earthquake.

  One of the solutions according to the present invention provides a technique for taking in information related to building vibration into the system, calculating the danger level due to the shaking of the building during vibration by the system, and creating and displaying a furniture layout plan desired by the user. It is that.

  Specifically, information such as the layout of indoor furniture and the user's ability to avoid disasters is taken into the system, and the risk level due to the shaking of the building due to a disaster such as an earthquake is calculated by the system. Furthermore, the system supports the layout design desired by the user and the creation of a furniture arrangement plan. Furthermore, the system provided a technology for estimating the assumed damage situation and creating furniture arrangement plans and displaying the results.

  In addition, another solution according to the present invention is to provide a technique for presenting and displaying an evacuation route according to a disaster situation or a refugee state when a building shakes due to a disaster such as an earthquake. It is.

ADVANTAGE OF THE INVENTION According to this invention, the technique with the outstanding operativity for the assistance of the diagnosis with respect to the vibration of a building can be provided.
For example, as an example using the present invention, as a very familiar use, safety can be improved by reexamining a room layout based on the embodiment of the present invention. In the present invention, for example, based on conditions such as a layout designated by a user, the indoor danger level and damage situation at the time of an earthquake can be estimated and displayed. In addition, it is possible to create a plan of furniture layout with high safety according to the purpose of use of the user's room by the system. As a result, the user can actually perform the layout of the furniture in the room with a high degree of safety suitable for the purpose of use of the room.

  Further, for example, the estimated damage amount for the room of the building at the time of the occurrence of an earthquake or the like is calculated by the system according to the method of the present invention from the layout and resident information, so the user performs planning and budgeting for disaster countermeasures. It becomes easy.

  In addition, according to the embodiment of the present invention, a safer evacuation route plan in the event of an earthquake or the like can be created by the system, which is useful for evacuation route guidance in a facility such as a hospital, for example. Can do.

An embodiment of the present invention will be described in detail with reference to the drawings.
FIG. 1 and FIG. 2 show one form of a system configuration of a computer system to which the present invention is applied, FIG. 3 shows processing data in one embodiment of the present invention, FIG. 4, FIG. 15, FIG. 34 shows a processing flow in one embodiment of the present invention. Other drawings are an image screen of the system according to the present embodiment. Hereinafter, it demonstrates in order.

  FIG. 1 shows a configuration example of a risk diagnosis system in a building or its room when an earthquake occurs, which is an embodiment to which the present invention is applied. A system based on the method provided by the present embodiment (hereinafter, abbreviated as the present system) includes, for example, a server 101 storing an earthquake risk diagnosis system and information terminals 102 to 105 used by clients. . Information terminals used by clients include a notebook PC 103, a PDA 104, and a mobile phone 105 that can be easily carried in addition to the PC 102 as a workstation. The server and the client terminal are connected to each other via a network 106 such as the Internet, LAN, or WAN, so that the latest software can be used regardless of time and place. It is also possible to perform all operations of the software on the Web browser. In this case, it is possible to eliminate the need to install unique software on the client terminal. Furthermore, after collecting data necessary for earthquake risk diagnosis using a portable information terminal, it is also possible to connect to a network and upload information to the server 101 side to perform risk diagnosis. .

  Alternatively, it can be downloaded from the server in advance via the network so that it can be used even in environments that are not connected via a network, and data or programs can be downloaded or read directly from an external storage medium such as a DVD or CD for diagnosis. It is. In this case, the earthquake risk diagnosis system can be used as a stand-alone.

  FIG. 2 shows an example of service provision relating to an earthquake risk diagnosis which is one of the systems based on the present invention. The server 201 that provides an earthquake risk diagnosis service is, for example, a public corporation, country, prefecture, municipal construction, fire prevention, medical welfare, information center of an educational research institution, or a private company that provides services. Installed. For example, a diagnosis service for the risk of earthquake at home 202, workplace, or public facility 203 can be provided by a public organization or a private company for a fee or free of charge. In addition, by using a system connected to the network 204 such as the Internet, LAN, or WAN, the information service providing side can install a server and provide an earthquake risk diagnosis service. Furthermore, a facility management company, insurance company, transportation company, medical corporation, architectural design company, consultant company, furniture sales company, information equipment sales company, software company installs a server, or the sales information terminal 205 or the like in advance. By installing it, it is possible to provide an earthquake risk diagnosis service as part of customer service enhancement.

  Other than the companies described above, if the system provided in the present embodiment is used, asset management and layout management can be performed together, and the building or the interior of the building against a disaster caused by the vibration of the building due to the occurrence of an earthquake, etc. Risk diagnosis can be easily performed. In addition, it is very useful for users because it can obtain information on estimated damages and safety measures during earthquakes, etc. from this system. Information on safety measures provided by the system includes the layout of furniture, floor plans, risk assessment results in the event of an earthquake for each building condition, calculation results of damage (human damage and property damage), and evacuation There is route information. Details will be described later.

  FIG. 3 shows an example of input / output of an earthquake risk diagnosis system which is one of the systems based on the method of the present invention. Damage caused by the fall of machinery, large display products, furniture, etc., or damage caused by scattering of glass, chemicals, tableware, etc., is a physical damage. Furthermore, human damage occurs due to the presence of people in places where they have fallen or scattered. With this system, it is possible to diagnose the comprehensive earthquake risk, focusing not only on physical damage but also human damage. An example of the input / output of this system is shown in FIG. First, the input data of the earthquake risk diagnosis system 301 is listed.

  The layout (room layout) information 302 is data that designates the position and size of a room in a building. In this system, the image data 303 and the building design data 304 can be used as input data. The image data 303 is a design drawing, a flyer advertisement, a drawing published in a sales brochure, a handwritten drawing, a paper drawing 305 such as a drawing created and printed by a PC or the like, and an information device 306 such as a scanner, a copy, a FAX, or a digital camera. This data can be used in this system.

  In addition, when calculating the risk level in the event of an earthquake, it is necessary to consider data related to the structure of the building itself, such as wall peeling and falling, glass scattering, and window frames and doors coming off. The building information 321 is data on the structure of the building, the material of the wall, and the material of the window frame / door. The building information 321 can be selected not only on the screen 322 but also the architectural design data 304. As the architectural design data 304, it is possible to use electronic data 308 such as files and data output by the design software 307 and electronic drawing files created by a PC or the like. By automating the input of these data, the system makes it very easy to create layout information used for risk diagnosis in the event of an earthquake.

  The user information 309 is information related to a building user who is a target of earthquake risk diagnosis. In this system, in order to simplify the user's information registration work and broaden the usage, it is intended to cooperate with various system data. The larger the facility, the greater the risk that human damage will increase as the number of users increases, so it is more necessary to promote safety measures with this system. Large facilities include, for example, public facilities such as government offices and educational and cultural facilities, transportation facilities such as office buildings and stations, customer facilities such as theaters, supermarkets, restaurants and restaurants, and medical welfare facilities. Accurate registration of information on people (users) related to these facilities leads to accurate earthquake risk diagnosis. Specific information registered as user information is listed below.

  The personnel data 310 is information on the employees of the facilities described above, and the information on the employees of the facilities can be obtained by using the data of the personnel management system (for example, automating data input by the system). It is. Furthermore, by using the data of the personnel management system in this way, it is possible to accurately and labor-saving information update due to personnel changes. The facility user data 311 is user data for libraries, cultural halls, theaters, and the like. By using the data of the library user registration system, the ticketing system for cultural halls, theaters, etc., and the ticket sales management system, for example, the number of users can be reduced without performing complicated input operations. Data for diagnosing the seismic risk in a situation where it is estimated that the maximum value is obtained. The student / student data 312 is data managed by an educational information system such as student management, course management, and grade management, which has been introduced in educational institutions. The medical welfare information data 313 is data in which a medical condition of an inpatient is recorded. By using data from medical and welfare information systems such as electronic medical records, information updates corresponding to changes in medical conditions (including the need for assistance) that have a significant impact on the ability of patients to avoid behavior in the event of a disaster are accurate. In addition, labor can be saved.

  The sales customer management data 314 is user data of department stores, supermarkets, mass sales stores, and the like. Particularly in these facilities, the age group of users varies greatly depending on the time of day and the sales floor. Since the age of the user is greatly related to the ability to avoid disaster, more accurate diagnosis results can be obtained by performing a diagnosis of the degree of risk that correctly reflects these data. Further, by using data of an information system for sales management or customer management, it becomes possible to perform a risk diagnosis that flexibly and efficiently responds to changes in these user groups. The ticket gate data 315 is user data of the station. The image analysis data 316 is data on the number of existing users by video analysis of a surveillance camera or the like. The area / facility is not particularly limited, but the inhabitant data 317 is data used for safety management of public facilities and private facilities serving as shelters.

  These pieces of information have a direct interface with related systems. It is also possible to input the information of each system by using a delimiter such as a comma and outputting the information to a delimited text file as data. Furthermore, the equipment / furniture arrangement information 318 includes asset management data 319, product management data 320, catalog data 330, and the like, and can be used as data of the risk diagnosis system 301 at the time of the occurrence of an earthquake.

  The risk diagnosis system 301 in the event of an earthquake outputs a layout plan for furniture or the like under various input conditions. In the above-described system, the following output data can be provided based on the information obtained by creating the layout information. The output data of the risk diagnosis system 301 at the time of earthquake occurrence is listed. Output data includes information on visualization 331 of dangerous areas due to the fall of equipment, display products, furniture, etc., information on improvement measures for dangerous places 332, information on visualization of risk of evacuation routes 333, loss amount, countermeasure costs, and improvement effects 334 information, loss amount, countermeasure cost, information on comparison display 335 of improvement plans having different improvement effects, information on room layout plan 336, information transmitted to evacuation guidance system 337, and the like.

  FIG. 4 assumes the use of the user when using the earthquake risk diagnosis system which is one of the systems according to the present invention. Numbers beginning with alphanumeric “S” represent steps in the process flow. Consider the major flow when earthquake countermeasures and actual earthquake occurrence are assumed. Assuming that an earthquake occurs, the response at the time of occurrence of the earthquake is indicated by the time of the earthquake 412, the pre-earthquake pre-earthquake measure is indicated by the pre-earthquake 411, and the post-earthquake occurrence is indicated by the post-earthquake 413.

  The work flow before the earthquake 411 is step S401 to step S407. The work contents are shown below. In step S401, floor plan design or furniture selection is performed, and information on a building or a room to be simulated is input. Such information is performed by a method described below, and is performed according to a display provided from the system. In step S402, a furniture arrangement plan is created and is performed according to the display provided by the system by the method described below. In step S403, the above-described input conditions, for example, an earthquake simulation for the furniture installed by the above-described method, is executed using the system according to the method provided below. In addition to the layout of furniture (mainly described later in part of FIGS. 7 to 17), the conditions at the time of the occurrence of the earthquake include the situation of the building (described later in FIG. 6) or the disaster avoidance ability of residents (described later in FIG. 12). Or there are conditions for the occurrence of the earthquake itself (described later in FIG. 29). If the result of the simulation is good in step S404, that is, if the content is desired by the user, the process proceeds to step S405 by the user's operation. On the other hand, if the content is unsatisfactory, that is, unsatisfactory, the process returns to step S402 by the user's operation. In step S405, a building or the like is enforced. Next, in step S406, the user actually arranges the furniture. However, since steps S405 and S406 are performed based on the data provided by the system, the system supports the work. In step S407, an evacuation route simulation is performed. Details of the simulation will be described later.

  The work flow at the time of the earthquake 412 is step S408. In step S408, evacuation, standby or safety confirmation is performed. This work is not directly related to the present invention. The work flow after the earthquake 413 is step S409. In step S409, damage data is accumulated. The data is used as data for the next simulation.

  FIG. 5 to FIG. 8 are diagrams relating to operation screens and function explanations related to the system according to the method provided by the embodiment relating to the floor plan design or furniture selection in step S401. First, FIG. 5 shows an example of an input method for creating a plan view (floor plan). FIG. 5 shows a procedure for creating a plan view of a building necessary for diagnosis of the degree of danger in the room when an earthquake occurs. A plan view can be created by operating the outline and opening of the room with a mouse. In the system of the present embodiment, in order to further simplify the work of creating a plan view, a design drawing at the time of building a building, a drawing published in a flyer advertisement and a pamphlet, and a handwritten drawing are captured by a scanner or a digital camera. Thus, it is possible to input (register) into the system of the present embodiment as the data 502 of the plan view of the earthquake diagnosis system. The file 503 output by the design software can also be input (registered) as plan view data.

  In Japanese houses, the size of the room is often expressed based on the size of the tatami mat. For this reason, in this system, data regarding the type and size of the room is prepared in advance, and a plan view is created by selecting and combining them from the menu 505 or the like. In this case, a plan view layout display area 506 is provided on the room selection screen 504, and a plan view can be efficiently created while viewing the display area 506. These plan views are displayed on the screen, and the size and position can be changed not only by the mouse operation but also by the pen-type input device 507.

  FIG. 6 is an example of a procedure for inputting and registering information on walls, doors, and windows (hereinafter referred to as registration). Not only is the risk of falling due to furniture falling and scattering of household goods, but the risk factors in the room at the time of the earthquake are collapsed walls, collapsed doors and window frames, and glass scattering. These are also subject to diagnosis. In the system shown in the present embodiment, by registering information on the wall material 602, the door material 603, the window frame material, and the presence / absence of glass scattering prevention measures 604, not only the degree of danger due to furniture falling over and scattering of household goods Diagnosis of the degree of danger according to the state of the wall, door and window becomes possible. In particular, the wall is not only the material of the wall, but the wall material is easily peeled off due to aging. In the system provided by the present embodiment, it is possible to perform a risk diagnosis in consideration of such a situation.

  Fig. 7 shows the registration and layout of furniture information (type, height, width, depth, weight, presence / absence and direction of glass window) necessary for diagnosis of the danger level in the event of an earthquake, especially for the indoor danger level. An example of the procedure to create is shown. In the manual operation 701, a list of furniture placed in the room is displayed by selecting the room information input menu. The furniture displayed as this list is selected with a mouse, and the position where the furniture is placed is specified, whereby the furniture arrangement information in the room is registered, and a furniture arrangement diagram is created based on this information. In the system of this embodiment, in order to further simplify the layout drawing creation work, furniture layouts are written on design drawings, flyer advertisements, pamphlets, etc. when building a building, or handwritten drawings 702 is taken in with a scanner or a digital camera and used as furniture layout data of the indoor risk diagnosis system when an earthquake occurs. This data can be entered by the system reading function and registered in the system. Also, the file 703 output by the layout design software can be registered in the system as the furniture layout drawing data by the reading function of the system.

  Apart from general households such as public institutions and companies, purchased home furnishings are often managed as assets. The number of furniture or fixtures covered by the asset is very large. Also, the floor area that is the subject of layout design is enormous. In the operation 701 by these input operations, a great amount of time is required for data registration. Therefore, the system 704 for asset management and product management and the data stored in the database 705 related to them are read by the function of this system, and the system of this embodiment uses this to read furniture information. User operations related to registration and creation of layout drawings can be saved.

  In this system, registration candidate furniture or fixtures can be searched from a lot of furniture information registered on the search screen 706. Code numbers and names are assigned to furniture or fixtures to be managed. On the search screen 706, it is possible to search for furniture or fixtures using these code numbers and product names as keywords. In the code number input field 707 or the name input field 716, a code number, a keyword, or the like to be searched is input, and a search button 708 is selected. By this operation, furniture and fixtures are searched based on the input condition, and the search result is displayed in a list format 709. In the list 709, the product name, code, height, width, and depth are displayed in the column direction, and a plurality of pieces of data for each item are displayed in the row direction. When the data on the list 709 is selected, the image information 710 of the furniture / equipment corresponding to the row is displayed on the same screen, so that the user can confirm with the image whether the furniture is to be registered. Therefore, the user can create a layout drawing while confirming furniture with images. When furniture / equipment that the user wants to register is found, the registration 711 button is selected. By this operation, furniture and fixtures designated by the system are arranged on the layout drawing by the system.

  Furthermore, the information can be acquired by the present system from a text file in which information is separated by a delimiter such as a comma by a read button 712. This makes it possible to easily register more furniture and fixture information with the function of this system without bothering the user. As described above, the read button 712 is a button that can register the data read from the CSV file as furniture information of the earthquake risk diagnosis system. The registered information can be retrieved at a later date. The registration button 711 is a button for placing the furniture selected in the search result list on the furniture layout diagram 713 of the main screen. The layout diagram 713 displayed on the screen can be changed in size and position not only by a mouse operation but also by a pen-type input device 714.

  In addition, a menu 715 of possible fall prevention measures is displayed. The menu 715 of possible fall prevention measures is selected by the extraction function of the present system when the user registers the execution conditions in advance. For example, if a user lives in an apartment and there are restrictions such as screws that cannot be embedded in the wall, a fall prevention measure that satisfies this restriction can be obtained from a database previously held by the system or via a communication line A search is made by connecting to a planned database in advance, and it is presented on the display screen. The user can try various fall prevention measures on the menu 715, and can create a furniture layout drawing while confirming the effects of the fall prevention measures. As described above, in particular, in a residence of a rental contract, there is a case where a furniture fall prevention measure that requires a hole in the wall is not desired. The menu 715 makes it possible to know better fall prevention measures that match the circumstances of the residence. The device 716 is a speaker installed on a PC or the like. This is a device for assisting the user with voice as needed.

  FIG. 8 shows that in this system, for example, when the furniture is set in the layout diagram 713 by pressing the registration button 711 or when the furniture icon is moved to another room on the layout diagram, the furniture or equipment can be installed. It is a figure for demonstrating the method of recognizing by a system whether it can install in another room mentioned above. For example, when furniture 802 is installed in a room as furniture or equipment, it is necessary to pass through an entrance 801. In this case, when the width W2 of the furniture 802 is larger than the width W1 of the door 801, it is necessary that the depth D2 of the furniture is smaller than the width W1 of the door and the height H2 of the furniture is smaller than the height H1 of the door. Furthermore, the allowance α of about 1 to 2 cm is also required in consideration of the carry-in of furniture. Formulas representing this relationship are Formulas 1 to 3. In Expression 1, it means that the height H1 of the door 801 is larger than the height H2 of the furniture 802 with a certain clearance α. In the expression 2, it means that the width W1 of the door 801 is larger than the depth D2 of the furniture 802 with a certain clearance α. In the expression 3, it means that a certain space α is a positive value. When these relationships of Formulas 1 to 3 are satisfied, the system determines that the furniture 802 can pass through the door 801 and can be placed in a room therein. If the installation is possible, the installed layout is displayed. If the installation is not possible, a display indicating that the installation is difficult is displayed. Therefore, the user can reduce troubles such as furniture not entering the room. Moreover, it is very convenient because it is not necessary to carry out a troublesome investigation on the size of the furniture and the size of the room.

  9 to 30 are explanatory diagrams regarding screens and functions of the present system relating to steps S402 to S404 (preparation of furniture arrangement plan and earthquake simulation for installed furniture) and step S407 (simulation of evacuation route). FIG. 9 shows an example of the main screen of the earthquake diagnosis system. The basic concept of the furniture layout algorithm and the search method for all patterns of evacuation routes was announced at the Architectural Institute of Japan Convention (September 2001), but specific operations and details were announced. It has not been. The operation procedure will be specifically described below. FIG. 9 is a main screen of the earthquake risk diagnosis system. File operation and calculation can be performed with the menu bar 902. The toolbar 903 has an edit menu for creating a layout of indoor furniture or indoor equipment on the layout display area 904. The button group 905 is used to create a plan view of the layout described above, register a building user, for example, register resident information and furniture information or facility information, and calculate a risk level. A button 908 is used when calculating an evacuation route. Data on earthquakes is set at 910 and 911. With the above-described functions, a plan view and furniture layout map are created on the layout display area using the buttons on the toolbar 903 by user operation (indicated in the description of this specification as manual work), and the risk diagnosis and evacuation are performed. Perform route calculation.

  In the system of the present embodiment, the following functions are further possible in addition to the functions described above. Automatic layout creation by the automatic layout button 906 (the system obtains the layout), calculation of damage amount and countermeasure cost to be executed by pressing the damage amount calculation button 907, and calculation for obtaining a layout capable of efficient evacuation by the safe evacuation placement button 909 It is. The system according to the method provided by this embodiment can also perform these processes. Furthermore, by using the detailed setting button 911, not only the seismic intensity of the earthquake but also the direction in which the seismic waveform is captured and shaken, the type of ground (geology, embankment, etc.) and the earthquake resistance of the building itself, that is, in the building The influence of earthquakes, such as setting the degree of shaking, can be reflected more specifically in the calculation.

  Specific functions of the buttons on the earthquake room risk assessment screen shown in FIG. 9 will be described. When a plan view creation button of the button group 905 is pressed, a plan view creation area is displayed in the area 904 of FIG. 9 and a plan view can be created. In addition, lifestyles such as those shown in FIGS. 10 and 11 can be set. When the resident information setting button of the button group 905 is pressed, the resident information screen shown in FIG. 12 is displayed, and information regarding the resident can be input. If the furniture information setting button of the button group 905 is pressed, the furniture information as shown on the screen 706 in FIG. 7 can be registered. When the risk diagnosis button of the button group 905 is pressed, an earthquake simulation is performed on the installed furniture and the like, and the results shown in FIGS. 20 and 21 are obtained. If the automatic layout button 906 is pressed, the result of automatic layout of furniture and equipment by the system is output. The automatic layout is displayed as a screen 2101 or a screen 2105 in FIG. 21, for example, based on conditions (FIGS. 13 and 14) set by the user. Earthquake simulations for installed furniture and the like can be performed both for automatic layouts and layouts created by users. When the damage amount calculation button 907 is pressed, the estimated damage amount for each room and floor as shown in FIGS. 23 to 26 can be displayed. If an evacuation route diagnosis button 908 is pressed, an evacuation route as shown in FIGS. 27 and 28 can be displayed. If the safe evacuation arrangement button 909 is pressed, a layout is displayed as shown in a screen 2101 or a screen 2105 in FIG. The object of layout is an object that can be installed in a certain space such as furniture, equipment or equipment. By operating the button group 910, information on an earthquake assumed on a screen as shown in FIG. 29 can be set. In addition, menus and buttons for displaying a screen for performing operations related to functions described in the present embodiment other than those described above can be installed.

  FIG. 10 is a specific setting screen when selecting creation of a plan view of the button group 905 for the operation of FIG. 9, and an example of a screen for expressing and registering the commitment to the arrangement of furniture or equipment as a lifestyle It is. Furniture or equipment arrangement diagram 1001 displayed on the screen selects furniture or equipment that is particular about the arrangement, and sets the conditions on the lifestyle setting screen 1002. In the area 1003, furniture or equipment selected on the furniture or equipment layout diagram 1001 is displayed. Therefore, it is possible to reduce the need to view the layout drawing 1001 again on the lifestyle setting screen 1002, and to easily check the furniture or equipment to be set. Similarly, the list 1004 displays information related to the furniture selected by the above operation. Information about the arrangement of furniture or equipment is registered in the list of commitments 1005. If the check box at the left end of the list 1005 is checked, it is registered as a matter that sticks to it by pressing the OK button in this system. There may be one or more checks, or no further checks. Since the information registered here is used as an initial value for calculating the furniture layout by the system in order from the top, the up button 1006 is used for more important conditions, and the down button 1007 is used for other conditions. The priority can be set by adjusting the position by pressing. In addition, priorities are given to furniture arrangements, for example, if there are 3 points, an arrangement example that satisfies all 3 points, an arrangement example that satisfies the top 2 points, an example that satisfies only the top 1 point, and a plurality of examples A draft can also be output.

  FIG. 11 shows the specific contents of the processing based on the input based on FIG. 10, and is an example of a screen for registering the preference for the arrangement of furniture or equipment with a priority order. In FIG. 11, the top three points are selected from the list of content to be selected in the area 1005. When the automatic layout process is performed by the button operation of the automatic layout 906, a layout satisfying all three points is created by the system function, and the layout is displayed on the screen 1105. However, there are cases where it is not possible to create a layout that satisfies all of the particular content. In this case, in this system, layout proposals are created in order from the lowest priority, except for sticking designations. For example, a layout plan satisfying the priorities 1 and 2 is created, excluding the priority content “priority 3 is enough space to open and close the door”, and the screen 1106 is displayed. Furthermore, if the layout plan cannot be created even if the priority 3 priority content is removed, the priority 1 priority “placement (orientation)” except for the priority 2 priority content “specify the length of the work line”. A layout plan that satisfies only “Do not break the relationship” is created and its screen 1107 is displayed.

  Further, in the present system, the arrangement of arbitrary furniture or equipment in an arrangement drawing (referred to as a layout in this specification) 1003 can also be fixed. For example, if you want to fix the position of the sofa 1111 displayed in the upper left of the screen area 1003 without moving from the current position, select “Fix” from the menu 1102 displayed by selecting the icon indicating the sofa 1111 To do. By this operation. The upper left sofa 1111 does not move by subsequent operations such as automatic layout. In order to make the furniture once fixed movable, for example, an icon indicating the sofa 1112 that has been fixed is selected, a menu is displayed, and “Release” 1103 is selected and set. Thus, the sofa 1112 can be moved by an operation such as automatic layout. Note that the layout created by the system in this embodiment can be modified by the user, and the final layout can be determined by the user.

  FIG. 12 is a specific example when the resident information setting in the display 905 of FIG. 9 is selected, and is an example of a screen for registering information of a person who uses a building. As a user of a building, for example, a resident living in a house has a function of registering resident information, and in addition to that, the system shown in this embodiment can set users of various facilities, for example, It is possible to register information such as hospitalized patients. As information to be registered, there are age 1215, genders 1216 and 1217, occupation 1214, disease name and medical condition 1202, need for assistance 1203, wake-up times 1201 and 1218, and use or room time zone 1219. Age, gender, occupation and wake-up time are the basic setting conditions of the system. In this system, in addition to these conditions, for example, considering the use in a medical or welfare institution, condition settings relating to a disease name / condition 1202 and necessity of intervention 1203 are provided as additional functions. These conditions are indispensable information for greatly affecting the disaster avoidance capability 1204, and can be registered in the system using the method provided by this embodiment. When the above additional conditions are entered, they are preferentially handled in the judgment process as important conditions in earthquake countermeasures. On the other hand, if there is no additional condition, the determination process is performed based on the basic condition.

  The information registered by the above input is displayed in a list format in the display area 1205. The contents are age, occupation, gender, disease name, self-gait, and assistance, and the information is displayed in the row direction. If you can walk on your own, it is marked with a circle. Whether to walk on its own is registered (not shown), but what can be determined from the disease name or the like is determined by the system and the result is displayed.

  The registered contents are confirmed based on the display contents, and if the contents are different, the user as the operator specifies the corresponding display line in the display area 1205 with an input means such as a mouse and displays the information in the display area 1200. Then, the contents can be directly corrected by re-entering each field of the area 1200. It is very troublesome to register the information 1200 one by one when there are a large number of unspecified users, such as educational institutions and customer collection facilities. Therefore, by selecting a row displayed on the list in the area 1205 and pressing the copy button 1206, user information having the same attribute can be easily duplicated and registered. When duplicated, the same row as the designated row is added to the bottom row of the list in the area 1205. Since the list 1205 and the information 1200 are linked to each other, when the bottom row is selected, the information is displayed in the area 1200. Further, the copied data can be modified only in different parts by changing the area 1200. Moreover, it is also possible to input information on the users (including residents) shown in FIG. 12 by specifying the facility name. For example, if a facility is designated as a library, it is possible to register accurate user information by inputting standard user data.

  With the read button 1207, information can be acquired by the system from a text file in which information is separated by a delimiter such as a comma. With these functions, it is possible to easily perform indoor risk diagnosis at the time of the occurrence of an earthquake even in a facility where more people gather, such as public facilities, department stores, and shops as described above.

  The disaster avoidance capability 1204 is calculated by this system based on the information displayed in the registered 1200 and 1205. The calculated disaster avoidance ability value 1213 is displayed together with the general value 1212 on the graph 1208 as a result of processing by the function of this system. From this graph, the user can understand the influence of the medical condition and necessity of assistance on the disaster avoidance ability. An axis 1210 on the graph 1208 indicates disaster avoidance capability. The disaster avoidance ability depends on age and gender, and the minimum value is 0 and the maximum value is 1.0. The axis 1211 is age. A standard value 1212 of a healthy person is displayed on the graph 1208. Along with this, a value 1213 that reflects conditions such as a medical condition and necessity of intervention is also displayed. With this display, the ability of a building user to respond to a disaster can be displayed for each building or for a specific place in the building, and the situation can be grasped visually.

  As described above, information such as the resident's medical condition, age, and sex is necessary for the present system used for risk diagnosis, and it is also important to accurately grasp the change of the medical condition and the entrance and exit of people. Therefore, information 1209 of each system such as a medical information system such as an electronic medical record, a resident information system, and a personnel database that manages changes in the illness of the resident is used as input data for the indoor risk diagnosis system when an earthquake occurs. May be. However, the information of each system described above can be used as input data of the diagnosis system for the degree of danger at the time of earthquake occurrence by manual operation as necessary.

  FIG. 13 is an example of the case where the automatic layout instruction display 906 of FIG. 9 is selected, and is an example of a screen for registering the standard of the room usage as the lifestyle or the facility usage style. On the plan view 1301 displayed on the screen of this system, a room whose usage is to be specified is selected from the building, and conditions are set on the lifestyle selection screen 1302. In a region 1303, a plan view of the building and the selected room are displayed so as to be visually distinguishable such as coloring. For this reason, it is not necessary to look again at the plan view 1301 of the building separately from the specified room, and the room layout can be confirmed on the same screen as the use designation screen for the setting operation target room. The room usage menu 1304 is used to specify the room usage. The usage of the room includes “child's room”, “bedroom”, “living room”, “old man's room”, and the like. More appropriate safety evaluation criteria (1306 to 1309) are selected by the system according to the application specified here, and the calculation for determining the furniture arrangement is performed by the system. In the manual designation 1305, the calculation for obtaining the furniture arrangement can be performed in accordance with the safety standard designated by the user's manual operation.

  The explanation of the safety evaluation criteria can be referred to by pressing the explanation button 1310. Safety standards are commonly used standards. The contents are shown below. The mini-max standard 1306 is a standard for determining the furniture layout so that the maximum risk due to a certain action is reduced, for example, minimized, and is suitable for a general room such as a living room. The Maximin standard 1307 is a standard for determining the furniture layout so that the minimum risk (zero risk) is the most frequent, and is suitable for a room with a user who cannot expect high disaster avoidance ability such as a bedroom or a living room for the elderly. Yes. The max-max criterion 1308 is a criterion for determining a furniture arrangement that maximizes the difference from the maximum danger in a certain state, that is, this criterion does not create an extreme danger space. The Laplace standard 1309 is used to calculate the furniture layout so that the probability of occurrence of a certain state is as equal as possible, and the furniture layout is such that the average value of the risk of furniture collapse or the like is reduced, for example, minimized. This is a standard for determining children's rooms.

  FIG. 14 shows an example when the automatic display layout 906 shown in FIG. 9 is selected, and is an example of a screen operation for registering a specific place of a facility, in this example, a use of a room as a lifestyle. When the child room 1401 is selected, the Laplace standard label 1309 is highlighted by means such as changing the color, so that it can be understood that the selection of the Laplace standard is the selection standard in the case of selection by the system. When the elderly room 1402 is selected, the Maximin standard 1307 in the manually designated standard column is highlighted. Therefore, it is very convenient for the user to know immediately that the Maximin standard 1307 is the standard standard when executing automatic layout in the room 140 for the elderly. In this way, standard criteria corresponding to the usage of the selected room can be easily understood in the present system or specified in a recommended sense, which is very convenient.

  FIG. 15 is an example of the case where the automatic layout 906 of FIG. 9 is selected, and is a flowchart relating to the furniture arrangement calculation process. This is an example of a process that is as safe as possible even when an earthquake occurs from an input initial condition and that handles as much as possible the convenience and comfort of the occupant, and an operation and process flow for calculating the most suitable furniture arrangement as much as possible. First, in step S1501, as described in FIG. 9 to FIG. 11 as initial conditions, plan view data relating to a specific place such as a room by creating a plan view is registered, and disaster avoidance capability and the like are explained as shown in FIG. Register information about the person, and specify furniture information, lifestyle, and so on. In the primary check in step S1502, the number of furniture that can be held from the viewpoint of safety is checked by the system according to the size of the entire building or the floor area of the diagnosis location. If there are too many pieces of furniture, the system will alert the user. In the secondary check in step S1503, the system checks the number of furniture that can be brought in from the viewpoint of safety according to the size of the room. If the number of furniture brought in is large, the system will alert the user. The check criteria are as described later with reference to FIG. 18 and FIG. In step S1504, the positional relationship between furniture satisfying lifestyle and user convenience / comfort set as initial conditions is treated as a furniture unit, and an indoor space in which the furniture unit can be arranged is searched. That is, a furniture unit is a set of one or more furniture.

  FIG. 16 is an explanatory diagram in which the system searches for a space where furniture units can be arranged. A thin shaded grid 1601 represents a furniture unit. The system searches for a dispositionable space while sequentially moving the furniture unit on the shaft 1602 and the shaft 1603. The shaded grid 1604 is an area that cannot be arranged due to initial conditions or the like, and the search by the system is performed excluding the area that cannot be arranged. At this time, the search for the arrangement space of the furniture unit is classified into a space that can be arranged as an area and a space that can be moved on the line. The vicinity of the lattice 1605 is a lattice that can be arranged as a space, and can move on the line from the lattice 1601 to the axis 1602 direction. The information classified in this way is stored in the memory by the system as information of the execution unit of arrangement in step S1505.

  Next, in step S1506, the system sequentially moves furniture and units for each room in the arrangementable space to search for a furniture arrangement pattern for the entire room. The search result is stored in the memory by the system in step S1507. Next, in step S1508, the indoor danger level at the time of earthquake is calculated by the function of the system for each of the furniture arrangement patterns stored in the memory. In step S1509, the system determines a furniture arrangement plan that is more suitable for the calculated risk information according to the needs of the room set by the user in the lifestyle.

  FIG. 17 is an embodiment of a search in the three-dimensional space for the arrangement pattern of furniture units. The furniture unit 1702 moves on the system in the three-dimensional space lattice 1701 while satisfying the conditions specified by the user and the restriction conditions registered in the system by the function of this system. Arrangement of furniture units that can be recognized and arranged by the system is performed in the three-dimensional space so that the condition is satisfied. An example in which the search on the two-dimensional plane described in FIG. 16 is expanded to a three-dimensional space is the example of FIG. In the present embodiment, the furniture includes a refrigerator, a washing machine, a dryer, a tableware dryer, a cooling / heating device, and the like in addition to the furniture such as a general chiffon. Therefore, the necessity for automatic layout in a three-dimensional space is high. For example, in FIG. 16, it is difficult to create a plurality of layout plans related to what is installed on a wall such as an air conditioner of a cooling / heating device and what is placed on a work table such as a tableware dryer. However, in the case of the three-dimensional layout shown in FIG. 17, the above-described layout creation can be easily performed because it can be automated by the system, and a more realistic layout is possible.

  FIG. 18 shows the results of an investigation based on statistics on the danger and safety of a room in the relationship between the number of furniture for a household and the minimum floor area of the room. FIG. 18 shows the relationship between the floor area of the building and the number of brought-in furniture in consideration of indoor safety during an earthquake. FIG. 19 shows the results of investigation on the risk and safety of the room in the relationship between the number of furniture for the room and the floor area of the room based on statistics. FIG. 19 shows the relationship between the size of the room and the number of furniture brought in, taking into account indoor safety during an earthquake. As shown in FIGS. 18 and 19, the upper limit of the number of furniture items that can be brought in is determined from the viewpoint of safety in the event of an earthquake, according to the size of the floor area of the building.

  If the floor area of the building is taken on the axis 1801 and the number of furniture is taken on the axis 1802, it is “safe” when the value is higher than the function 1803 from the correlation between the floor area and the number of furniture, and “hazardous” when the value is lower than the function 1804. It can be seen from the past statistics. Similarly, when the size of the room is taken on the axis 1901 and the number of furniture is taken on the axis 1902, “safe” is obtained when the value is higher than the function 1903 from the correlation between the size and the number of furniture, and when the value is lower than the function 1904, “ It can be seen from past statistics that it is “dangerous”. In this system, the number of furniture that can be safely brought in is calculated by these functions, and a warning sound by the device 716 can be emitted when registering furniture information. Alternatively, a warning message can be displayed on the screen instead of the warning sound.

  FIG. 20 is a specific example when the automatic layout display 906 and the risk diagnosis button of the button group 905 of FIG. 9 are selected, and a plurality of arrangement plans for furniture and equipment are obtained by the system. It is an example by which a simulation result is displayed comparatively. FIG. 20 is a diagram of a screen showing an example of evaluation of product and equipment layouts particularly in a store. For example, when automatic layout is performed by a function of the present system at a certain store, the evaluation can be performed by the present system. In the example of FIG. 20, three proposals for automatic layout are output: arrangement A2011, arrangement B2012, and arrangement C2013. Here, for example, when the user selects an arrangement B2012, an evaluation by the system for the arrangement B is displayed on the screen of the system. The evaluation index can be specified by the user. In the example of FIG. 20, comfort 2021, safety 2022, sales volume 2023, arrangement cost 2024, and arrangement ease 2025 are checked. The evaluation result is displayed in a radar chart format, for example. The radar chart is composed of evaluation axes of comfort 2001, safety 2005, sales volume 2004, arrangement cost 2003, and ease of arrangement 2002, and the evaluation value is displayed by a broken line 2006. A broken line 2007 is a reference value. Therefore, it can be seen from the example of FIG. 20 that the comfort / sales amount exceeds the reference value in the layout B. As described above, the layout evaluation is created by the system according to the index determined by the user, which makes it easy for the user to select a better arrangement, which is very convenient.

  FIG. 21 is a specific example for further improving safety in the case where the layout diagram of FIG. 9 is created and a simulation is performed. It is an example. After the furniture and facilities are arranged by the button group 905 or the automatic layout button 906 in FIG. 9 and the arrangement drawing is created, the user can select an arbitrary area on the layout plan view display screen 2101 after the risk diagnosis is completed. When 2102 is selected, the safety guide 2103 for the corresponding area is displayed by the system. The safety factor 2104 is specifically displayed on the safety guide 2103 described above. From this display, the user can easily know what is increasing the risk. With the function of this system, a layout diagram 2105 of improvement plan candidates for the specified area and an improvement point 2106 are displayed, so that the user can easily understand effective improvement measures while comparing with the current layout 1001. It becomes like this. Since a plurality of improvement plans are created by the system, it is possible to see the improvement plans before and after the reference 2107 before and the next reference 2108 many times. Further, the above-described improvement measures and the current layout can be displayed on the same screen at the same time, so that a comparative study can be easily performed.

  FIG. 22 shows an example of a flow chart relating to utilization of safety measures in medical or welfare related organizations as an application of an earthquake risk diagnosis system which is one of the systems based on the method of the present invention. Numbers beginning with an alphanumeric “S” represent each step in the flow. The flow relates to the processing of risk diagnosis in medical or welfare facilities. First, in step S2205, on-hand design drawing, data 2201 output by design software, personnel DB 2202 for managing staff movement, medical information DB (electronic medical record) 2203 held in a medical information system for managing patient medical conditions, Based on information in the asset management DB 2204 that manages assets, fixtures, appliances, and furniture in the facility, initial conditions necessary for earthquake risk diagnosis are input.

  As described above, a plan view of the facility is created in step S2205, information on the staff or patient is registered, information on equipment such as equipment and furniture in the facility is registered, and thus necessary for the diagnosis of the degree of risk. Register initial conditions, that is, necessary information. Based on this initial condition, the risk at the time of earthquake occurrence is calculated by the present system in step S2206. The conditions at the time of the earthquake include building conditions (explained in FIG. 6), furniture arrangement (mainly explained in part of FIGS. 7 to 17), and resident's disaster avoidance ability (explained in FIG. 12). In addition to this, there are conditions for the occurrence of the earthquake itself (described later in FIG. 29).

  In the risk level calculation step S2206, the system calculates the risk level (calculation of damage amount and countermeasure amount). Based on the calculation result, it is possible to clarify a highly dangerous place in the facility. By utilizing this result, in step S2207, the user of this system and related parties can create an indoor layout and improve the facility that can reduce the number of injured persons even when an earthquake occurs. In addition, in the risk calculation step S2206, information for realizing efficient investment for disaster prevention can be obtained by calculating the damage amount and the countermeasure amount together with the function of this system. This calculation processing of the damage amount and the like is executed by selecting the damage amount calculation button 907 in FIG.

  Further, in the risk level calculation step S2206, the risk level for each room, in other words, the safety level and the size of the safe space in the room can be clarified by the function of the present system. Furthermore, according to the function of this system, when the user designates a certain value that is considered to be safe for the degree of injury risk (degree of injury) 2104, the layout example 2105 that satisfies the value is designated as the system. Can also be created. The risk level is a risk level of injury to persons in the room, and is a real number between 0 and 1. Details will be described with reference to FIG. With these functions described above, the user can verify the appropriateness as a temporary evacuation site from a disaster such as a tsunami caused by an earthquake from the viewpoint of the number of people that can be accommodated. Next, in step S2208, by calculating the evacuation route and its safety by the function of this system, it is verified whether the user can evacuate smoothly after the earthquake occurs. In step S2209, a safe evacuation countermeasure plan is obtained. It is possible to formulate and promote safe evacuation measures.

  The above is an example of utilization in a medical welfare institution. However, if the medical information DB 2203 is a customer information management DB and the asset management DB 2204 is a sales / commodity management DB, it can be applied to retail stores and hotels. In addition, by coordinating information with other systems / DBs, it is possible to flexibly cope with movements of people, changes in patient conditions, changes in layout, and the like.

  FIG. 23 shows an example of a display screen related to the safety degree diagnosis result of this system. When the display screen of the safety degree diagnosis result is switched by a display switching combo box or the like 2300, a screen showing the safety degree diagnosis result regarding the switched data 2302 is displayed in an area 2301. In addition, information such as an estimated damage amount at that time is displayed in 2305. The data displayed in the display switching combo box 2302 includes “latest data” shown in FIG. 23, “history (reduced display)” shown in FIG. 24, or “history (list display)” shown in FIG. 26, “evacuation route” shown in FIG. 27, and “evacuation route (entire building)” shown in FIG. In FIG. 23, for example, the latest data of the diagnosis result of the safety degree against the collapse of furniture or the like in each room of the building is displayed in the area 2301.

  In the area 2301, a floor plan of the building is displayed. The numerical value displayed in association with each room is the overall risk level or safety level of each room. Based on this value, the display content of each room, for example, the color is determined. In this example, 1 represents the maximum safety degree and 0 represents the minimum safety degree real number. For example, one criterion determined by the system or user indicates that 1 is the safest and 0 is the least secure. In FIG. 23, the safety level is displayed, but the risk level may be displayed as necessary. The risk level is a value obtained by subtracting the safety level from 1. The room color is darker when the safety value is lower and the numerical value is smaller, and the room color is lighter when the safety value is higher and the numerical value is higher. On the screen of the area 2301, in the present system, for example, when the inner room 2303 in the displayed layout drawing is selected, that is, clicked, the appearance of the room can be displayed in another area or the area 2301. In the status bar at the bottom of the screen, the damage state of the entire building can be displayed in a telop format, or the estimated damage amount 2305 of the selected room can be displayed.

  FIG. 24 shows an example of a display screen of a diagnosis result relating to the safety level of the present system. In FIG. 24, the user operates the display switching combo box 2300 and the like, and the display of the combo box is switched to the data 2402, so that the system displays the diagnosis result of the safety degree against the collapse of the indoor furniture in the room of the building. An example of a screen in which the history is reduced and displayed in the area 2401 in the drawing is shown.

  A total of four drawings are displayed in the area 2401. The drawings are arranged from left to right in the top row, starting with the newest. For example, in the layout drawing 2410 in the upper left drawing, the estimated damage amount is displayed as 30 million yen 2403. In the layout diagram 2410, the shade of the color differs for each floor plan because the colors are classified according to the safety level of the floor plan. In the area 2403, an overall risk index of the building can be displayed in addition to the estimated damage amount. When the drawing 2410 at the upper left is selected and, for example, double-clicked, details of the selected drawing are displayed in the form of the drawing displayed in FIG. In the system, a screen (not shown) showing the details of the drawing can be output as a separate screen in front of the drawing of FIG. 24, or the screen of FIG. 24 can be switched to a screen showing details. it can.

  The information on the screen showing details shows the data creation date and time and the project name on the screen so that the history can be seen at a glance. Also, when the drawing 2410 at the upper left is right-clicked, for example, related information such as data creation date / time and project name related to the drawing is displayed. In the area 2401, the drawing can be reduced to increase the number of displays.

  FIG. 25 shows an example of a screen that displays a diagnosis result relating to the safety level of the present system. In FIG. 25, the user operates the display switching combo box 2300 and the like, and the display of the combo box is switched to data 2502, so that the system displays the diagnosis result of the safety degree against the collapse of the indoor furniture in the room of the building. An example of a screen in which history is displayed as a list in an area 2501 is shown.

  In the list, drawing icons, dates, estimated damage amount, estimated number of casualties and damage contents are displayed in the column direction as items of information, and a plurality of such data are displayed in the row direction. For example, in row 2503, the date is 2003/01/05, the estimated damage is 28 million yen, the estimated number of casualties is 16 for 38 people in the room, the damage content is a rack fall, server breakage, etc. Is displayed. The floor plan icon at the left end of the line may be a default icon, or may be an icon obtained by reducing the drawing color-coded according to the safety level of the floor plan. For example, when the row 2503 is double-clicked, a screen showing details is displayed in the same format as in FIG. 23, as described in FIG. In addition, when the row 2503 is right-clicked, for example, related information regarding the data, such as a creation date / time and a project name, is displayed.

  FIG. 26 shows an example of a display screen of a diagnosis result relating to the safety level of the present system. In FIG. 26, the user operates the combo box 2300 for switching the display, and the display of the combo box is switched to the data 2602, so that the system diagnoses the safety degree against the collapse of the furniture in each room in the entire building. Shows an example of a screen displayed in the area 2601.

  In the area 2601, the floor plan of each floor of the building is shown. For example, the floor plan of the room on 7F is displayed as indicated by 2603. The reason why the shades of colors differ for each floor plan is that the colors are classified according to the safety level of the floor plan. On the right side of the floor plan 2603, an assumed damage amount 2604 and damage statuses 2605 and 2606 for each room are specifically displayed. The estimated damage of the entire building can be aggregated and displayed by the system according to the user's designation to the system. In the area 2610, an outline, an image, and the like of the entire building are displayed.

  When the floor plan 2603 is double-clicked, for example, a screen showing details is displayed in the same format as in FIG. 23, as in the description of FIG. In addition, when the floor plan 2603 is right-clicked, for example, related information such as creation date / time and project name regarding the data is displayed.

  FIG. 27 shows an example of a display screen related to the evacuation route of this system. In FIG. 27, the user operates the display switching combo box 2300 and the like, and the display of the combo box is switched to data 2702, so that the evacuation route to the position (room in the building) designated by the user by the system is an area. An example of a screen displayed in 2701 is shown.

  In the area 2701, a floor plan similar to that described in FIG. 23 is displayed. The numbers displayed in each room are the safety level or the risk level as described with reference to FIG. The higher the degree of safety, the lighter the color shade. In this floor plan, the evacuation route determined by the system to be the safest under the limited conditions is displayed by this system. The display of the evacuation route can be switched according to the safety level (not shown), such as the route determined to be the safest by the system by the button operation on the toolbar and the route determined to be safe next.

FIG. 28 shows an example of a display screen related to an evacuation route of a risk diagnosis system at the time of occurrence of an earthquake, which is one of the systems based on the method of the present invention. In FIG. 28, an example of a screen in which an evacuation route for the entire building is displayed in the area 2801 by the system by the user operating the combo box 2300 for switching display and switching the display of the combo box to data 2802. Show. In area 2801, a safe evacuation route is displayed for each room in the entire building. Similarly, as described with reference to FIG. 27, the evacuation route can be determined by the user's button operation on the toolbar, the route that can be judged to be the safest as possible under the limited system conditions, the route that is judged as safe next, and the like. The display can be switched according to the degree.

  An area 2803 in the drawing is a floor plan of a certain floor. When this area 2803 is double-clicked, for example, a detailed drawing for the area 2803 of the drawing is displayed on another screen or the like in the same format as the drawing shown in FIG. For example, if the area 2803 is a 1F floor, information on the 1F floor, information on assumed damage, and the like are also displayed on the detailed screen.

  FIG. 29 shows an example of an earthquake occurrence condition setting screen of this system. In the list 2902 of the menu, the seismic intensity of the earthquake assumed when performing the simulation can be set. In area 2906, an earthquake occurrence time can be designated. In this system, based on the specified conditions described above, a simulation at the time of occurrence of an earthquake can be performed to diagnose the safety level / risk level in the room of the specified building.

  Hereinafter, a support function for the system user for the above-described condition setting will be described. First, when the seismic intensity class reference button 2903 is pressed, an overview of damage for each seismic intensity can be learned from the JMA seismic intensity class table. In the area 2915, as a condition for narrowing down the reference area of the assumed seismic intensity information based on hazard maps and damage assumptions published by local governments, selection from a postal code, a part of the address name, a map, a GPS terminal Can be specified, and the specified position information is registered. The region designation operation by “selection from a map” is performed by displaying a map and selecting a region to be designated from the map. In addition, an operation for acquiring position information based on “position information from a GPS terminal” is performed by designating a person or vehicle holding the GPS. When the search button 2905 is pressed after the above-described narrowing-down conditions are set, based on the above-mentioned narrowing-down conditions, the system displays the seismic intensity information based on the hazard map and damage assumption of the corresponding area. It is also possible to refer to the detailed information by displaying and clicking the hazard map.

  If the seismic waveform acquisition button 2904 is pressed, past seismic waveform data can also be acquired. The operation of importing seismic waveform data means that the system selects the type of earthquake to be performed in the simulation. “Earthquake type” means that, for example, the 1978 Miyagi-ken Oki earthquake (Sendai) or the 1995 Hanshin-Awaji earthquake (Kobe) can be selected as the “earthquake type” used in the simulation. This is because the components of vertical and horizontal shaking are different for each earthquake even at the same seismic intensity, and the effect on the indoor hazard level is different.

  In area 2906, the time and time at the time of occurrence of the earthquake in the simulation can be set. The graph of the area 2910 displays the number of building users changing according to the season and date. In the graph described above, the X axis 2912 represents time and the Y axis 2911 represents the number of people. Further, when the move button 2907 is operated, the date of the target data of the graph can be changed. In the example of FIG. 29, August 10 is designated as the target month of the data on the number of users. In addition, on the above-described graph, data on the number of users by weather is displayed. For example, since it is expected that the number of users varies depending on the weather at the customer collection facility, changes in the number of users due to differences such as sunny and cloudy are displayed in several graphs. In the example of the graph described above, the number of users on a sunny day is displayed with a curve 2913, and the number of users on a rainy day is displayed with a curve 2914.

  There are three types of designation of earthquake occurrence conditions in the earthquake simulation. The first is a pattern that matches the earthquake occurrence time with the maximum predicted damage time, the second is the pattern that matches the earthquake occurrence time with the maximum number of users, and the third is the user specifies the earthquake occurrence time. It is a pattern. In a pattern 2921 that matches the first predicted maximum damage time, the system sets a time zone with the greatest damage from past data. In the pattern 2922 that matches the maximum time of the second number of users, the system searches the peak time zone from the graph 2910 and sets it as a generation condition. In the pattern in which the third user sets the occurrence time, the time is set by the following method or the like. In order to specify the earthquake occurrence time in the simulation, the user can specify an arbitrary position of the curves 2913 and 2914, the X axis 2912 and the Y axis 2911 on the graph, in addition to the method of directly inputting the time. You can also specify the time. For example, when the user designates point 2925 and point 2926, the present system determines that the start point of time is point 2927 and the end point is point 2928, the start point time is in time input area 2923, and the end point time is in time input area 2924. Can be set to

FIG. 30 shows an example of a report display screen of the safety diagnosis result of this system. The report display function shown in FIG. 30 is a function for displaying the indoor safety degree diagnosis results and the like described in FIGS. 23 to 26 in a report format for each assumed damage amount. In FIG. 30, a floor plan 3002 is displayed, and the safety level is displayed for each room. The lower the safety level, the darker the background color of the area showing the room. The report area 3001 displays a summary of damage, and the area 3003 displays the damage status of each room. As the contents of the damage 3003 for each room, the contents for the room selected in the area 3002 are displayed by this system. In addition, for the room selected in the area 3002 at that time, the furniture layout and the distribution display of the safety level according to the range in the room are displayed in FIG. In addition, in the screen of FIG. 30, a tag with an assumed damage amount of 28 million yen 3011 is selected, and a diagnosis result when the assumed damage amount is 28 million yen is displayed. If the tag of the assumed damage amount of 22 million yen 3012 is selected, the diagnosis result in the case of the assumed damage amount of 22 million yen is displayed by this system. If a tag with an assumed damage amount of 21 million yen 3013 is selected, the diagnosis result for the assumed damage amount of 21 million yen is displayed by this system.
The functions described above are not only useful for predicting the damage situation in the event of an earthquake, but are also very useful because they can be used effectively as budget and plan materials for earthquake countermeasures.

  FIG. 31 is a work flow diagram for performing an integrated seismic diagnosis including the inside and outside of a building to verify appropriateness as a shelter and necessity of seismic diagnosis. First, in step S3101, building / flooring information is registered. The above-mentioned information includes drawing data 3121, layout image data, architectural design software data, word profile data, and the like 3121. Paper data drawings are converted into electronic data by a scanner or the like and imported into the system. Layout image data, architectural design software data, word profile data, and the like are converted into the data format of the system, and are taken into the system. The operation screen image of the system is as described in FIGS.

In step S3102, resident / user information is registered. The above-mentioned information is taken in from the facility user DB, HR DB, customer / sales management DB, student / student DB, resident DB, resident DB 3122, and the like. The operation screen image of the system is as described in FIG. In step S3103, the furniture and indoor equipment information is registered. The above information is taken in from the asset / article management DB, the merchandise management DB, the catalog DB, the Web catalog 3123, and the like. The operation screen image of the system is as described with reference to FIG.

  In step S3104, an arrangement plan for furniture and indoor parts is created. The operation screen image of the system is as described with reference to FIGS. In step S3105, a damage summary (expected damage amount, damage status, risk / safety level, etc.) is calculated by the indoor risk diagnosis function at the time of occurrence of an earthquake of the present system. The degree of injury and the like can be calculated from information such as the degree of danger / safety and the residents. The operation screen image of the system is as described with reference to FIGS.

  In step S3106, if the result of the diagnosis is good, the process proceeds to step S3107, and if not, the process proceeds to the step of the earthquake resistance countermeasure examination simulation in steps S3108 to S3121. In step S3107, the user determines an optimal earthquake resistance measure that meets customer needs, and the process of FIG. 31 ends.

  In the step of the earthquake resistance countermeasure examination simulation, the following steps S3108 to S3112 are performed. In step S3108, the arrangement of furniture and indoor equipment is changed (the operation shown in FIGS. 9 to 11 is performed), and in step S3109, a fall prevention measure is registered in the system by the operation shown in FIG. In step S3110, prevention of dangerous substance leakage (measures are implemented with floor plans and members). In step S3111, the construction material is changed, and in step S3112, the floor plan is changed by the operations shown in FIGS. After the above-described earthquake resistance countermeasure examination simulation step is completed, the process returns to step S3105 again, and the subsequent operations and processes are continued.

FIG. 32 is a work flow diagram for formulating and verifying an evacuation plan for floods, tsunamis, storm surges, fires that occur after an earthquake, and the diffusion of dangerous substances. First, in step S3201, building / flooring information is registered. The above-mentioned information includes drawing data, layout image data, architectural design software data, word profile data, and the like 3221. Paper data drawings are converted into electronic data by a scanner or the like and loaded into the system. Layout image data, architectural design software data, word profile data, and the like are converted into the data format of the system, and are taken into the system.

  In step S3202, resident / user information is registered. The above-mentioned information is taken in from the facility user DB, human resources DB, customer / sales management DB, student / student DB, resident DB, resident DB 3222, and the like. In step S3203, registration of furniture and indoor equipment information is performed. The above information is taken in from the asset / article management DB, the merchandise management DB, the catalog DB, the Web catalog 3223, and the like. The operation screen image of the system is the same as that described in FIG.

In step S3204, the capacity of personnel in the safety space in the building and the time required for evacuation to the safety space are calculated by the function of this system. The operation screen image of the system is as described with reference to FIGS. The capacity of the safety space in the building can be calculated from the size of the room and the safety level, and the time required for evacuation to the safety space can be calculated from the calculated evacuation route and the building information. In step S3205, information on a decrease in behavioral power due to injury of the resident / user is taken into the system and reflected in the processing in step 3204. Information on the injuries of residents and users after evacuation is transmitted from step 3204 to step S3205 and stored in this system.

  In step S3206, the evacuation route recommendation plan and the safety diagnosis inside the building are performed by the method described with reference to FIGS. In step S3207, information is obtained by general flooding prediction such as tsunami, storm surge, flood, etc., dangerous substance diffusion prediction, and fire spread prediction, and provided to the diagnosis of step S3206 as diagnostic material. In step S3208, if the result of the above-described diagnosis is good, the process proceeds to step S3209, and if not, the process proceeds to a step of earthquake resistance countermeasure examination simulation in steps S3210 to S3215. In step S3209, the user determines the optimum earthquake resistance measure that can realize safe evacuation, and the process of FIG. 32 ends.

  In the step of the earthquake resistance countermeasure examination simulation, the following steps S3210 to S3215 are performed. In step S3210, the arrangement of furniture and indoor equipment is changed (operation of this system is performed), and in step S3211, a fall prevention measure is registered in this system by operation of this system. In step S3212, dangerous substance leakage prevention (measures are implemented with floor plans and members), building members are changed in step S3213, and floor plans are changed in step S3214 by operating the system. The above processing operations are performed in the same manner as in FIG. In step S3215, an evacuation route is newly established based on the contents of the result display screens of FIGS. 27 and 28 presented by the present system. After the above-described earthquake resistance countermeasure examination simulation step is completed, the process returns to step S3204 again, and the subsequent operations and processes are continued.

  FIG. 33 is a work flow diagram for a renovation, construction, housing, property and casualty insurance, furniture and earthquake-resistant article sales, and transportation company to use the indoor risk diagnosis function in the event of an earthquake for sales and service improvement activities. First, in step S3301, building / room arrangement information is registered. The above-mentioned information includes drawing data, layout image data, architectural design software data, word profile data, and the like 3321. Paper data drawings are converted into electronic data by a scanner or the like and loaded into the system. Layout image data, architectural design software data, word profile data, and the like are converted into the data format of the system, and are taken into the system.

In step S3302, resident / user information is registered. The above-described information is taken in from the facility user DB, human resources DB, customer / sales management DB, student / student DB, resident DB, resident DB 3322, and the like. In step S3303, registration of furniture and indoor equipment information is performed. The information described above is fetched from the asset / article management DB, the merchandise management DB, the catalog DB, the Web catalog 3323, and the like. The operation screen image of the system is the same as that described in FIG.

In step S3304, a request for usability is registered using the functions of this system shown in FIGS. 10, 11, 13, and 14. In step S3305, the arrangement plan for furniture and indoor parts is created by the system as shown in FIG. In step S3306, the damage summary (expected damage amount, injury degree, cost estimate) is calculated by the indoor risk diagnosis function at the time of the earthquake occurrence of this system. The image of the calculation result is as shown in FIGS. The degree of injury is calculated from resident information and risk / safety information.

  If it is determined in step S3307 that the result of the diagnosis is good, the process proceeds to step S3308, and if not, the process proceeds to a step of earthquake resistance countermeasure examination simulation in steps S3309 to S3314. In step S3308, the user presents and implements the optimal earthquake resistance countermeasure plan that suits the customer needs and the furniture layout change plan that suits the customer needs, and the processing in FIG. 33 ends.

  In the step of the earthquake resistance countermeasure examination simulation, the following steps S3309 to S3314 are performed. In step S3309, the arrangement of furniture and indoor equipment is changed (the operation of the system is performed), and in step S3310, a fall prevention measure is registered in the system by the operation of the system. In step S3311, prevention of dangerous substance leakage (measures are taken with floor plans and members), building members are changed in step S3312, and floor plans are changed in step S3313 by operating the system. The above processing operations are performed in the same manner as in FIG. In step S3314, a new emergency facility plan is created. Registration of emergency facility new plan creation information to the system can be performed by the floor plan change operation (operation of FIGS. 5 to 7) in step S3313. After the above-described earthquake resistance countermeasure examination simulation step is completed, the process returns to step S3306 again, and the subsequent operations and processes are continued.

FIG. 34 is a work flow diagram for formulating a room layout plan that can ensure safety even in the event of an earthquake in a medical welfare facility or the like in accordance with changes in the medical condition and care status of residents. First, in step S3401, building / flooring information is registered. The above-mentioned information includes drawing data, layout image data, architectural design software data, word profile data, and the like 3421. Paper data drawings are converted into electronic data by a scanner or the like and imported into the system. Layout image data, architectural design software data, word profile data, and the like are converted into the data format of the system, and are taken into the system.

Next, in step S3402, resident information is registered. The above-mentioned information is taken in from the facility user DB, HR DB, customer / sales management DB, student / student DB, resident DB, resident DB 3422, and the like. In step S3403, registration of furniture and indoor equipment information is performed. The above information is taken in from the asset / article management DB, the merchandise management DB, the catalog DB, the Web catalog 3423, and the like. The operation screen image of the system is the same as that described in FIG.

In step S3404, the medical condition and care necessity information are registered and changed using the system functions shown in FIG. Medical information 3424 is used as an information source as necessary. In step S3405, management efficiency improvement management information is extracted from medical information 3424 and the like. These pieces of information are referred to as input data for the processing in step S3406. In step S3406, the capacity of personnel in the safe space in the building, the time required for evacuation to the safe space, and the risk of injury are calculated, and a room plan is created. The system calculates the capacity of the safety space in the building according to the method shown in FIGS. 18 to 26 and the time required for evacuation to the safety space as shown in FIGS.

  If the result of the above-described diagnosis is good in the judgment processing by the user in step S3407, the process proceeds to step S3408, and if not, the process proceeds to the step of earthquake resistance countermeasure examination simulation in steps S3409 to S3415. In step S3408, the user performs room allocation, earthquake resistance measures, and the like, and the process of FIG. 34 ends.

  In the step of the earthquake resistance countermeasure examination simulation, the following steps S3409 to S3415 are performed. In step S3409, the arrangement of furniture and indoor equipment is changed (operation of this system is performed), and in step S3410, a fall prevention measure is registered in this system by operation of this system. In step S3411, prevention of dangerous substance leakage (measures are taken with floor plans and members), building members are changed in step S3412, and floor plans are changed in step S3413 by operating this system. The above processing operations are performed in the same manner as in FIG. In step S3414, the creation of a new emergency facility is created by the same method as described in FIG. In step S3415, the system creates a care support staffing plan from injury risk, resident information, floor plan information, and the like. Note that the plan created by the system in this embodiment can be modified by the user, and the final plan can be determined by the user. After the above-described earthquake resistance countermeasure examination simulation step ends, the process returns to step S3406 again, and the subsequent operations and processes are continued.

  As described above, according to the method of the present embodiment, the user has described the safety level and the risk level in the room from the room layout information, furniture layout information, resident information, earthquake information, etc. By changing the information, it is possible to simulate the occurrence of an earthquake and to predict the disaster situation for each condition in advance. The above-mentioned simulation can diagnose the assumed damage amount. Therefore, by using the system having the method of this embodiment, the user can perform a safe room layout with less damage against disasters such as earthquakes. Further, since the user's preference can be reflected in the room layout, it is possible to provide not only a safe furniture layout but also a room layout desired by the user.

  In addition, according to the method of the present embodiment, it is possible to present a safer evacuation route when an earthquake or the like occurs, and thus, for example, it can be used for evacuation route guidance or the like in a facility such as a hospital.

  As described above, according to the method of the present embodiment, it is possible to diagnose the disaster situation at the time of occurrence of an earthquake or the like for each condition related to the building, furniture, occupants, and earthquakes presented by the user, and to present a safe evacuation route. It becomes easy to plan countermeasures against disasters such as earthquakes.

BRIEF DESCRIPTION OF THE DRAWINGS It is a whole block diagram of the structural example of the indoor danger level diagnostic system at the time of the earthquake occurrence which is one Embodiment to which this invention is applied. It is a figure which shows an example of the service provision in the indoor danger level diagnosis system at the time of the earthquake occurrence which is one Embodiment of this invention. It is a figure which shows an example of the input / output of the indoor danger level diagnosis system at the time of the earthquake occurrence which is one Embodiment of this invention. It is a figure which shows an example of the user's work flow at the time of utilization of the indoor danger level diagnosis system at the time of the earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the procedure which produces the top view of the building required for the indoor risk diagnosis at the time of the earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the procedure which registers the information regarding a wall, a door, and a window in one Embodiment of this invention. An example of a procedure for registering furniture information (type, height, width, depth, weight, presence / absence and direction of glass window) and creating a layout diagram necessary for indoor risk diagnosis at the time of earthquake occurrence in an embodiment of the present invention FIG. It is a figure which shows an example of the arrangement | positioning judgment method in the room of the furniture in one Embodiment of this invention. It is a figure which shows an example of the main screen of the indoor danger level diagnosis system at the time of the earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the screen which expresses the commitment to furniture arrangement | positioning in one Embodiment of this invention as a lifestyle, and is registered. It is a figure which shows an example of the registration screen with priority order of the commitment to furniture arrangement | positioning in one Embodiment of this invention. It is a figure which shows an example of the screen which registers the information of the person in one Embodiment of this invention. It is a figure which shows an example of the screen which registers the use of the room in one Embodiment of this invention as a lifestyle. It is a figure which shows an example of screen operation which registers the use of the room as lifestyle in one Embodiment of this invention. It is a flowchart of operation and processing regarding calculation processing of furniture automatic arrangement in one embodiment of the present invention. It is a figure which shows an example which searches the space which can arrange | position the furniture unit in one Embodiment of this invention. It is a figure which shows the example of a search in the three-dimensional space of the arrangement pattern of the furniture unit in one Embodiment of this invention. It is a figure which shows an example of the result of having investigated the danger and safety | security of the room in the relationship between the number of furniture with respect to the household in one Embodiment of this invention, and the minimum floor area of a room based on statistics. It is a figure which shows an example of the result of having investigated the danger and safety | security of the room in the relationship between the number of furniture with respect to the room in one Embodiment of this invention, and the floor area of a room based on statistics. It is a figure which shows an example of the screen which shows the example of evaluation of the layout of the goods and equipment in the store in one Embodiment of this invention. It is a figure which shows an example of the search assistance screen of the pursuit support of the cause which is raising the risk in one Embodiment of this invention, and its improvement measure. It is a flowchart of the process regarding the utilization to the safety measure in a medical welfare organization as an application of the indoor risk diagnosis system at the time of earthquake occurrence in one embodiment of the present invention, and work. It is a figure which shows an example of the safety degree diagnostic result display screen of the indoor danger level diagnosis system at the time of earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the history display screen of the safety degree diagnostic result of the indoor danger level diagnosis system at the time of the earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the log | history list display screen of the safety degree diagnostic result of the indoor danger level diagnosis system at the time of the earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the safety degree diagnostic result display screen of the whole building of the indoor danger level diagnosis system at the time of earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the evacuation route display screen of the indoor danger level diagnosis system at the time of the earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the evacuation route display screen of the indoor danger level diagnosis system at the time of the earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the earthquake occurrence condition setting screen of the indoor danger level diagnosis system at the time of earthquake occurrence in one Embodiment of this invention. It is a figure which shows an example of the report display screen of the safety degree diagnostic result of the indoor danger level diagnosis system at the time of earthquake occurrence in one Embodiment of this invention. It is a flowchart of operation and processing which verifies the necessity of an appropriate seismic diagnosis as an evacuation center and an integrated seismic diagnosis including the inside and outside of a building in one embodiment of the present invention. FIG. 4 is a flowchart of operations and processes for formulating and verifying an evacuation plan for floods, tsunamis, storm surges, fires that occur after an earthquake, and the diffusion of dangerous substances in an embodiment of the present invention. Flow diagram of operation and processing for renovation / construction / housing, sales of non-life insurance / furniture and earthquake-resistant equipment, and transportation company using indoor risk diagnosis function for sales / service improvement activities in one embodiment of the present invention It is. It is a flowchart of operation and a process which formulate the room plan which ensures safety according to the medical condition of a resident in the medical welfare institution etc. of one embodiment of the present invention, and the change of the care situation.

Explanation of symbols

101 Server of Risk Diagnosis System in Embodiment 102 Client 709 of Risk Diagnosis System in Embodiment List of Furniture Registered by User to System 1001 Layout Layout of Furniture in Floor Plan 1005 User's Commitment to Furniture Layout 1205 Residence List of person information 1213 A graph representing a resident's ability to avoid disaster 1401 A drawing representing a child's room in the floor plan 1309 A Laplace standard 1702 which is one of the criteria for diagnosing the degree of risk A set of one or a plurality of furniture Furniture unit 2006 Example of evaluation value of evaluation graph for layout 2301 Indoor safety evaluation result for floor plan 2704 Example of evacuation route in floor plan

Claims (19)

It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device. The storage device stores data on a screen that supports data input and data on the building, and the building is operated based on the data on the building by an operation. The influence on the vibration of the is configured to be displayed on the input / output device,
In the input operation of data related to the building, a search screen is displayed on the input / output device, and the search screen has a column for displaying the name or code of furniture or equipment and a search display for instructing a search,
If the name or code is entered in the field and a search is indicated by the search display, a figure showing furniture or equipment is displayed, and if the registration instruction is given, the illustrated furniture or equipment is held,
When an input operation or reception of the placement information of the equipment is performed, a placement map is displayed on the input / output device based on the placement information and the furniture or equipment information,
A risk countermeasure support system related to building vibration, wherein an influence on vibration is displayed on the input / output device based on the displayed layout diagram. A risk countermeasure support system for building vibration according to claim 1,
In the data input operation regarding the building, the possibility of installing furniture or equipment is processed, and the result is displayed on the input / output device. It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device. The storage device stores data on a screen that supports data input and data on the arrangement of furniture or equipment in the building, and the building is operated by an operation. The influence on the vibration of the building is displayed on the input / output device based on the data about
An area for displaying the arrangement of furniture or equipment and a display area for operation are displayed on the display screen of the input / output device, and an operation for setting the arrangement of furniture or equipment is displayed in the display area for the operation. A display, a display for setting operations related to residents, a display for instructing diagnosis processing, and a display for setting earthquake information,
Based on the information on the arrangement of furniture or equipment and the user of the building and the earthquake set based on the display, the instructed diagnostic processing is performed,
A risk countermeasure support system related to building vibration, wherein the processing result is displayed on the input / output device. It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device. The storage device stores data on a screen that supports data input and data on the arrangement of furniture or equipment in the building, and the building is operated by an operation. The influence on the vibration of the building is displayed on the input / output device based on the data about
The display of furniture or equipment is displayed on the display screen of the input / output device, and further display for operation is performed. In the display for operation, a display for specifying the furniture or equipment and conditions regarding the layout are set. Display is provided,
When an instruction for processing is given, the arrangement of other furniture or equipment is processed according to the conditions based on the arrangement based on the specified furniture or equipment,
A support system for risk countermeasures related to building vibration, wherein the processing result is displayed on the input / output device. It is a support system of the danger countermeasure regarding the vibration of a building of Claim 4, Comprising:
A plurality of furniture or equipment arrangements are output based on the arrangement conditions, a diagnosis process is performed on the arrangements from the viewpoint of danger, and the results are displayed on a display screen of the input / output device. Support system for risk countermeasures for building vibration. It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device. The storage device stores data on a screen that supports data input and data on the arrangement of furniture or equipment in the building, and the building is operated by an operation. The influence on the vibration of the building is displayed on the input / output device based on the data about
On the display screen of the input / output device, there is a display for inputting information of a person who uses a specific place in the facility or building, and the processing result of the user's disaster avoidance ability is displayed by the input based on the display. A support system for risk countermeasures related to building vibration. It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device, and the storage device holds screen data that supports data input and data related to the arrangement of furniture or equipment in the building,
The operation is configured so that the influence on the vibration of the building is displayed on the input / output device based on the data on the building.
Enter furniture or equipment to be arranged according to the display screen of the input / output device,
Check if the input furniture or equipment is the correct number, if too much, output an alarm,
A process of arranging the input furniture in a three-dimensional space,
A risk countermeasure support system related to building vibration, wherein the processing result is displayed on the input / output device. It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device, and the storage device stores data relating to a building and information relating to a display screen for inputting data,
A screen for inputting the data is displayed on the input / output device, and data relating to the arrangement of furniture or equipment input based on the display is held in the storage device,
Based on the stored data, perform diagnostic processing on the vibration of the building,
A plurality of arrangement plans for the furniture or equipment are stored in the storage device, and when the arrangement plan is selected, a diagnosis processing result and a risk factor for the arrangement plan are displayed on a screen of an input / output device. Risk countermeasure support system for It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device, and the storage device stores data relating to a building and information relating to a display screen for inputting data,
A screen for inputting the data is displayed on the input / output device, and data relating to the arrangement of furniture or equipment input based on the display is held in the storage device,
Based on the stored data, perform diagnostic processing on the vibration of the building,
The input / output device displays a floor plan of a building, and displays a risk level or damage status on the screen of the input / output device in association with a room of the floor plan, thereby supporting risk countermeasures related to building vibration system. It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device, and the storage device stores data relating to a building and information relating to a display screen for inputting data,
A screen for inputting the data is displayed on the input / output device, and data relating to the arrangement of furniture or equipment input based on the display is held in the storage device,
Based on the stored data, perform diagnostic processing on the vibration of the building,
Calculate the evacuation passage, calculate the safety level of the evacuation passage,
The input / output device displays a floor plan of the building;
An emergency countermeasure support system for building vibration, wherein an evacuation passage is displayed on the floor plan in accordance with the degree of safety. It is a support system for risk countermeasures related to building vibration,
The system includes an input / output device, a storage device, and a processing device, and the storage device stores data relating to a building and information relating to a display screen for inputting data,
A screen for inputting the data is displayed on the input / output device, and data relating to the arrangement of furniture or equipment input based on the display is stored in the storage device, and an earthquake occurrence time is set in the input / output device. An image is displayed, and it is possible to select a time item with a large damage or a time item with many users of the building on the display screen,
Diagnose the damage when an earthquake occurs at the time selected from the selection items displayed on the display screen,
A diagnostic support system for vibration related to a building, wherein the diagnosis result is displayed. A computer program for supporting risk countermeasures for building vibration,
A computer program comprising an input / output device, a storage device, and a processing device, wherein the storage device has the following functions for a system in which data relating to the building is held:
In the input operation of data relating to the building, a search screen is displayed on the input / output device, and a column for displaying the name or code of furniture or equipment and a search button for instructing search are displayed on the search screen,
When the name or code is entered in the field and a search is instructed by the search button, a figure showing furniture or equipment is displayed, and when the registration instruction is given, the furniture or equipment data shown in the figure is retained. And
Input or receive the information of the arrangement of the equipment, display a layout diagram on the input / output device based on the information of the arrangement and the furniture or equipment information,
The influence on the vibration is displayed on the input / output device based on the displayed layout. A computer program for supporting risk countermeasures for building vibration,
A computer program comprising an input / output device, a storage device, and a processing device, wherein the storage device has the following functions for a system in which data relating to the building is held:
An area for displaying the arrangement of furniture or equipment and a display area for operation are displayed on the display screen of the input / output device, and an operation for setting the arrangement of furniture or equipment is displayed in the display area for the operation. Display, display for operation of setting for residents, display for instruction of diagnosis processing, display for setting earthquake information,
Based on the information on the arrangement of furniture or equipment and the user of the building and the earthquake set based on the display, the instructed diagnostic processing is performed,
The processing result is displayed on the input / output device. A computer program for supporting risk countermeasures for building vibration,
A computer program comprising an input / output device, a storage device, and a processing device, wherein the storage device has the following functions for a system in which data relating to the building is held:
The display of furniture or equipment is displayed on the display screen of the input / output device, and further display for operation is performed. In the display for operation, a display for specifying furniture or equipment and a condition regarding the layout are set. Provide a display to
When an instruction for processing is given, other furniture or equipment is arranged according to the conditions based on the arrangement based on the specified furniture or equipment,
The processing result is displayed on the input / output device. A computer program for supporting risk countermeasures for building vibration,
A computer program comprising an input / output device, a storage device, and a processing device, wherein the storage device has the following functions for a system in which data relating to the building is held:
A display for inputting information on a person using a specific place in a facility or building is made on the display screen of the input / output device, and processing of the user's disaster avoidance ability is performed by an input based on the display,
The disaster avoidance capability that is the processing result is displayed. A computer program for supporting risk countermeasures for building vibration,
A computer program comprising an input / output device, a storage device, and a processing device, wherein the storage device has the following functions for a system in which data relating to the building is held:
When furniture or equipment to be arranged according to the display screen of the input / output device is input,
Check if the input furniture or equipment is the correct number, if too much, output an alarm,
A process of arranging the input furniture in a three-dimensional space,
The processing result is displayed on the input / output device. A computer program for supporting risk countermeasures for building vibration,
A computer program comprising an input / output device, a storage device, and a processing device, wherein the storage device has the following functions for a system in which data relating to the building is held:
A screen for inputting the data is displayed on the input / output device, and data relating to the arrangement of furniture or equipment input based on the display is held in the storage device,
Based on the stored data, perform diagnostic processing on the vibration of the building,
A plurality of arrangement plans of the furniture or equipment are stored in the storage device, and when the arrangement plan is selected, a diagnosis processing result and a risk factor for the arrangement plan are displayed on the screen of the input / output device. A computer program for supporting risk countermeasures for building vibration,
A computer program comprising an input / output device, a storage device, and a processing device, wherein the storage device has the following functions for a system in which data relating to the building is held:
A screen for inputting the data is displayed on the input / output device, and data relating to the arrangement of furniture or equipment input based on the display is held in the storage device,
Based on the stored data, perform diagnostic processing on the vibration of the building,
The input / output device displays a floor plan of a building, and displays a risk level or damage status on the screen of the input / output device in association with the room of the floor plan. A computer program for supporting risk countermeasures for building vibration,
A computer program comprising an input / output device, a storage device, and a processing device, wherein the storage device has the following functions for a system in which data relating to the building is held:
A screen for inputting the data is displayed on the input / output device, and data relating to the arrangement of furniture or equipment input based on the display is held in the storage device,
Based on the stored data, perform diagnostic processing on the vibration of the building,
Calculate the evacuation passage, calculate the safety level of the evacuation passage,
The input / output device displays a floor plan of the building;
An evacuation passage is displayed on the floor plan corresponding to the safety level.

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