JP6293104B2 - Building integration system and program - Google Patents

Description

  The present invention provides an estimate for a building with walls, joinery, foundations, roofs, and other building elements, or a part thereof, a cost accounting sheet or a part thereof, or other building-related forms or a part thereof. In relation to building integration systems and programs configured by computers to be created, for example, estimates, cost calculations, and execution budgets for various buildings that are constructed after creating a plan such as a floor plan showing a floor plan It can be used to create construction-related forms such as purchase orders and invoices.

  Generally, in building estimation and costing, etc., it is necessary because the building is composed of several building elements such as foundations and roofs, and each building element is composed of various members. The procurement of such members and the amount of money required to perform various constructions using these members (in simple terms, the unit price of the member to be used) is integrated. This operation requires a great deal of time and labor if it is performed manually.

  For this reason, in order to reduce the labor of construction contractors, etc., conventionally, a system has been developed that creates accumulated data from CAD design data of buildings and creates estimated cost data based on the accumulated data. Yes. For example, strengthening the linkage between the CAD system and the estimate creation processing system, and before the creation of the integrated data on the CAD system side, a hearing process is conducted by dialogue with the customer (constructor, etc.), and the customer needs There is known a building estimate creation processing system that acquires information on integration specifications to be performed, narrows down the integration specifications only to those required by the customer based on the information, and creates efficient integration data (see Patent Document 1). ). This building estimate creation processing system presents a layered selection screen to the customer, so that the required specifications can be easily selected from various building specifications for each item for which accumulated data is created. Based on the specified specifications, the CAD design data is picked up.

JP 2007-65806 A

  As mentioned earlier, if all the work for estimating the building and calculating the cost is done manually, it takes a lot of time and labor. There is a problem that there is a risk.

  In addition, when integrating using CAD design data, accurate integration is possible, but CAD design data also includes data that is not necessary for integration for estimation, cost calculation, etc. As a result, it takes time and effort to extract necessary data, and the work time is not reduced so much, and the work is not reduced so much. Furthermore, even if the CAD system is improved or an automation is made by developing an estimate creation system that performs integration by reading design data (not image data but numerical data) output from the CAD system, the original data to be handled is Since it is complicated, there is a problem that costs associated with system improvement and development increase.

  An object of the present invention is to provide a simple and inexpensive construction integrating system and program capable of realizing a reduction in labor of a contractor and the like, reduction in work time, and suppression of occurrence of work mistakes.

The present invention provides an estimate for a building with walls, joinery, foundations, roofs, and other building elements, or a part thereof, a cost accounting sheet or a part thereof, or other building-related forms or a part thereof. A building integration system configured by a computer to be created,
The unit price of a member constituting a building element, and the maximum length, area, or volume of the member alone, or the length, area, or volume of the building element that the member can constitute alone. Member data storage means for storing member single unit specification information in association with member identification information;
The plan data showing the floor plan or other blueprints is read and the blueprints are displayed on the screen. At the same time, the user inputs and specifies the two coordinate positions on the blueprints displayed on the screen. A conversion information setting means for executing a process of receiving a setting input of conversion information between the dimension on the screen display coordinates for the design drawing and the actual dimension by receiving an input of a numerical value indicating an actual dimension between,
Use member selection reception processing for receiving selection input of members to be used for configuring the building element by the user from among the members stored in the member data storage means, and further, a design drawing is displayed on the screen using the image data. The coordinate data specified by the drawing line input operation along the line indicating the building element by the user on the design drawing displayed on the screen or the input operation of the drawing section formed surrounded by the drawing line In addition to these used member selection reception processing and drawing reception processing, numerical data related to building elements by the user as non-coordinate data that is not specified by the drawing line or drawing section input operation is executed. Building element registration / placement means for executing non-coordinate data receiving processing for receiving input,
Use the coordinate data received by the building element registration / placement means and the conversion information accepted by the conversion information setting means, or in addition to these coordinate data and conversion information, non-coordinate data accepted by the building element registration / placement means The length, area, or volume according to the actual dimensions of the building element is converted and calculated, and the length, area, or volume obtained by the conversion calculation is associated with the member identification information about the member to be used. The quantity of the member to be used is calculated by dividing by the component single unit specification information stored in the member data storage means or performing an operation equivalent to division, and the calculated quantity is stored in the member data storage means. By multiplying the unit price, the amount for the member to be used is calculated, and the estimated quantity or amount is calculated using the calculated quantity and amount. Some, cost statement or a portion thereof, or is characterized in that it comprises an integrating means for executing processing for creating or other construction-related document or portion thereof.

  Here, the “building elements” in the present invention are “walls, joinery, foundations, roofs, and others”, but the building is defined according to the definition of terms defined in the Act of Article 2 of the Building Standards Act. The building is not divided into elements, but the building is divided into elements so as to be suitable for creating building-related forms such as an estimate and a cost accounting document.

  In addition, the “dimensions on the coordinates” are not the numerical values such as inches and cm in the design drawing displayed on the screen, but the dimensions calculated using the coordinate data (pixels or pixels). It is a numerical value that does not depend on the size of the screen of the display device, the size of the pixels, and the display magnification of the design drawing on the screen.

  Furthermore, the “quantity” of the member to be used refers to the number of members or the number of members described in the construction-related form such as an estimate or a cost calculation document.

  The “member single unit specification information” is the “length, area, or volume of the member as a single unit” or “length, area, or volume of a building element that the member can be configured as a single unit” in the present invention. Is the numerical value that can be used to calculate and calculate the “quantity” described in the building-related form. The latter “maximum value of a building element that can be composed of a single member” refers to a case where the member is assembled to form a building element (as a result, it can be composed of one member). ), The maximum value of the range that the member can handle as a single member (one member). Note that “single component specification information” for all members does not have to meet these definitions (size information), and “single component specification information” for at least some members corresponds to size information. However, it is only necessary to be able to be used for calculation calculation of “quantity”.

  In addition, regarding “non-coordinate data reception processing for accepting input of numerical data related to building elements by the user as non-coordinate data that is not specified by the drawing line or drawing section input operation” in “building element registration / placement means” Does not mean that it is only numerical data (height, etc.) that is numerically input, but it is only necessary to be able to accept at least numerical data input as non-coordinate data, The non-coordinate data that receives input by the system may include text data (descriptive text, etc.), selection information, and the like in addition to numerical data.

  In the present invention, on the design drawing displayed on the screen, the drawing line or drawing section input operation along the line indicating the building element by the user is accepted and converted from the coordinate data designated by the input operation. Calculate the length, area, or volume according to the actual dimensions of the building element by performing calculations, and the length, area, or volume obtained by this conversion calculation, and the member used stored in the member data storage means The quantity of the used member is calculated using the single member specification information. Therefore, when the user performs a simple drawing operation on the design drawing displayed on the screen, the quantity of members necessary for integration for estimation, cost calculation, etc. is obtained, and this quantity is stored in the member data storage means. Based on the unit price, the amount of the used member is calculated, and a building-related form such as an estimate or a cost calculation form or a part thereof is automatically created.

  For this reason, since the user's operation is centered on the drawing operation, the labor of the user (constructor, etc.) is reduced and the working time is shortened. In addition, this drawing operation is a simple operation of drawing a drawing line along a line indicating a building element on the design drawing displayed on the screen or forming a drawing section surrounded by this drawing line. Occurrence of work mistakes is also suppressed. Furthermore, instead of using numerical data that is CAD design data, image data of a design drawing (including image data output from a CAD system and image data generated by reading a design drawing with a scanner) is read. Since it is used, it is possible to realize a simple and inexpensive system, and the object is achieved by these.

In addition, in the above-mentioned building accumulation system,
The accumulating means is
When the arrangement position of the wall overlaps with the arrangement position of the fittings provided on this wall, or when the arrangement position of other large and small building elements overlaps,
The building element registration / placement means for the smaller building element from the length, area, or volume obtained by converting the coordinate data received by the building element registration / placement means for the larger building element The actual construction of the larger building element without the occupied portion of the smaller building element by reducing the length, area, or volume obtained by conversion using the coordinate data received by By calculating the length, area, or volume according to the dimensions, the calculated length, area, or volume is associated with the member identification information about the member to be used and is stored in the member data storage means in the member data storage means. It is desirable that the processing for calculating the quantity for the member to be used is performed by dividing or performing an operation equivalent to division.

  Using the coordinate data of the smaller building element with the arrangement position overlapping in this way, the length, area, or volume according to the actual dimensions of the larger building element in a state excluding the occupied portion of the smaller building element (For example, when the construction is configured to calculate the actual length and area of the wall in the state where the opening for the fitting is provided using the coordinate data of the fitting) When performing a drawing operation on a larger building element (for example, a wall), the presence of the smaller building element (for example, joinery) is not considered, that is, the smaller building element (for example, joinery). The operation can be performed without worrying about the size and the arrangement position, and the user's labor and the work time can be further reduced. Note that the present invention can also be applied to a case where an opening for a skylight is provided on the roof.

Furthermore, in the building integration system described above,
Building element registration / placement means
As the non-coordinate data, it is configured to execute a process of accepting a selection input by the user about an arrangement method when arranging members constituting the building element on the building element,
The accumulating means is
Using the placement method accepted by the building element registration / placement means, calculate or determine the length, area, or volume of the member used to construct the building element, and calculate or determine the length, area, or volume. Is divided by the member single unit specification information stored in the member data storage means in association with the member identification information for the member to be used, or the number of the member to be used is calculated by performing an operation equivalent to division. It is desirable to have a configuration for executing processing.

  As described above, when the arrangement method is selected and input for the members constituting the building element and the integration is performed according to the arrangement method, it is possible to cope with the arrangement of various members. That is, the members constituting the building element may be arranged in the same state as the building element, or may not be arranged in the same state, and can correspond to the case where they are not arranged in the same state. For example, an architectural element called a wall is obtained from the horizontal dimension (length) obtained from the coordinate data specified by the drawing operation, and the height dimension (length) as non-coordinate data entered numerically. When a planar member such as a gypsum board that can be captured by the area is arranged as a member that constitutes the wall when captured by the area, the planar member is a building element called a wall. The members are arranged with the same area. On the other hand, when arranging an elongated member that can be grasped by length as a member constituting the wall, for example, a baseboard, the elongated member is arranged in the horizontal direction and in the vertical direction. In some cases, a plurality of arrangement methods are conceivable. When the elongated member is arranged in the horizontal direction, the dimension (length) of the elongated member is the horizontal dimension (length) obtained from the coordinate data specified by the drawing operation for the building element called the wall. In the case of arranging in the vertical direction, the dimension (length) of the elongated member is the dimension (length) in the height direction as non-coordinate data inputted numerically for the building element called the wall. Therefore, it is possible to execute processing by the integrating means according to the arrangement method selected and input by the user.

And in the building integration system described above,
In the member data storage means,
In addition to the member data about the member as the object constituting the building element, the member data about the virtual member that does not constitute the building element determined by regarding the work that generates the cost as the member is stored. In addition to the unit price of work, the material data includes the basis for calculation to calculate the cost of work,
The accumulating means is
A configuration that also executes a process of calculating the amount of work related to the virtual member using the unit price of the work by a predetermined calculation method corresponding to the basis of integration for the virtual member stored in the member data storage means It is desirable that

  In this way, when the work that generates the cost is registered as a virtual member, and the integration is performed, the cost is generated in addition to the work (particularly the price of the member itself) as well as the integration by the member as the object. It is possible to integrate the work). For this reason, when integration is performed in conjunction with the CAD system as in the prior art, if there is no member as an object, the necessary cost cannot be reflected in the integration. By registering as a virtual member, the necessary cost can be reflected in the integration even if there is no member as an object, and the usefulness of the integration is improved.

  In addition, the calculation processing of the amount of money for the work related to the virtual member is executed by a predetermined calculation method corresponding to the accumulation basis stored in the member data storage unit for the virtual member. It is not necessary to perform selection input of the arrangement method as described above, and arithmetic processing independent of the arrangement is realized.

Furthermore, the program of the present invention is for causing a computer to function as the building integration system described above.

  The above-mentioned program or a part thereof is, for example, a magneto-optical disk (MO), a read-only memory (CD-ROM) using a compact disk (CD), a CD recordable (CD-R), a CD rewritable (CD -RW), read-only memory (DVD-ROM) using digital versatile disk (DVD), random access memory (DVD-RAM) using DVD, flexible disk (FD), magnetic tape, hard disk, It can be recorded on storage media such as read-only memory (ROM), electrically erasable and rewritable read-only memory (EEPROM), flash memory, and random access memory (RAM) for storage and distribution. For example, LAN, MAN, WAN, Internet , An intranet, a wired network such as an extranet or wireless communications network, and further is capable of transmitting using a transmission medium such as a combination thereof, also can be delivered by placing the carrier. Furthermore, the above program may be a part of another program, or may be recorded on a recording medium together with a separate program.

  As described above, according to the present invention, on the design drawing displayed on the screen, the user accepts an input operation of a drawing line or a drawing section along a line indicating a building element, and coordinates specified by the input operation Uses data to calculate the number of parts required for estimation, costing, etc., and automatically creates construction-related forms such as estimates, costing sheets, etc. With such a system, there is an effect that it is possible to realize a reduction in labor for a contractor, a reduction in work time, and suppression of occurrence of work mistakes.

1 is an overall configuration diagram of a building integration system according to an embodiment of the present invention. Explanatory drawing which shows the content of the data of each memory | storage means of the said embodiment. The figure of the flowchart which shows the flow of the form creation process by the building integrating | accumulating system of the said embodiment. Explanatory drawing which shows the screen transition and screen system by the building integration system of the said embodiment. FIG. 3 is an exemplary diagram of a two-point designation drawing and a scale input screen for inputting conversion information according to the embodiment. The illustration figure of the reference point setting screen of the embodiment. The illustration figure of the division registration screen of the said embodiment. The illustration figure of the division arrangement | positioning screen of the said embodiment. The illustration figure of the wall registration screen of the said embodiment. The illustration figure of the wall arrangement | positioning screen of the said embodiment. The illustration figure of the fitting registration screen of the embodiment. The illustration figure of the fitting arrangement | positioning screen of the said embodiment. The illustration figure of another joinery arrangement | positioning screen of the said embodiment. The illustration figure of the basic registration screen of the said embodiment. The illustration figure of the basic arrangement | positioning screen of the said embodiment. The illustration figure of another basic arrangement screen of the embodiment. The illustration figure of the roof registration screen of the embodiment. The illustration figure of the roof arrangement | positioning screen of the said embodiment. The illustration figure of another roof arrangement | positioning screen of the said embodiment. The illustration figure of the equipment arrangement | positioning screen of the said embodiment. The illustration figure of the member arrangement | positioning screen of the said embodiment. The illustration figure of the cost accounting document screen of the embodiment.

  An embodiment of the present invention will be described below with reference to the drawings. FIG. 1 shows an overall configuration of a building integration system 10 of the present embodiment. FIG. 2 shows the data holding structure of each storage unit 71-80. FIG. 3 shows a flow chart of the form creation process by the building integration system 10. Further, FIG. 4 shows screen transitions and screen systems by the building integration system 10, and FIGS. 5 to 22 show examples of the screens 132 and the like.

  In FIG. 1, a building integration system 10 includes a system main body 20 constituted by a computer, display means 91 having a liquid crystal screen or the like as peripheral equipment, input means 92 such as a mouse and a keyboard, and a printing device 93. Configured. Note that the computer includes a tablet terminal having a high function, a personal digital assistant (PDA), a mobile phone, and the like.

  The system main body 20 includes processing means 20A for executing various processes relating to form creation, and storage means 70 connected to the processing means 20A for storing various data necessary for form creation processing.

  The processing unit 20A is a unit data registration unit 21, a company information registration unit 22, a user registration unit 23, a data management unit 24, and a business partner registration unit as a unit that performs processing common to each property (building). 25, and as means for performing individual processing for each property (building), property selection means 31, order destination registration means 32, member data input / output means 33, construction summary input means 34, and conversion The information setting means 40, the building element registration / placement means 50, and the integrating means 60 are included.

  The storage means 70 includes member data storage means 71, company information storage means 72, user information storage means 73, supplier information storage means 74, order destination storage means 75, construction summary storage means 76, The drawing data storage unit 77, conversion information storage unit 78, arrangement data storage unit 79, and total data storage unit 80 are configured. The storage unit 70 may be a file such as a CSV file or a database. The storage units 71 to 80 constituting the storage unit 70 may be combined into one file or one database, or may be distributed over several files or several databases.

  The member data registration unit 21 receives a user operation on the member registration screen 111 (see FIG. 4), and member data input by the user (a member data group including member data on a plurality of members that can be used in the form creation process). The member registration processing is executed to store all or part of the information in the member data storage means 71 (see FIG. 2). Further, the member data stored in the member data storage means 71 may be read by another computer in addition to the case where the member data registration means 21 inputs and registers.

  Here, in addition to the member name (member identification information), the estimated unit price, the execution unit price (cost), the member data includes member single unit specification information (length, area, volume, etc. of the single member) ( (See FIG. 2). In addition to the size information such as length (m, etc.), area (sqm, etc.), and volume (standing rice, etc.), for example, weight (kg, etc.) ), Physical quantity such as light quantity (lumen, lux, etc.), electric power / power quantity (kW, kWh, etc.), heat quantity (kcal, etc.). These physical quantities other than size information are mainly information that can be replaced with size information. For example, the weight and size information can be replaced by setting the density in advance or by the user. In addition, if a certain amount of light or heat is required for a space having a certain volume (size information), if the amount of light or heat that can be supplied by a single member is known, the quantity (number) of the necessary members can be calculated. Since it can be calculated, the size information is associated with the amount of light, the amount of heat, and the like. In the latter case, the relationship between the size information and the amount of light, the amount of heat, etc. does not have to be linear (proportional), and data indicating the corresponding relationship is stored in advance in the memory (storage means 70). Or just write it inside the program. The contents of the member data will be described in detail in the description of the member data storage means 71 described later.

  In addition, in the member data, in addition to member data on a member (a member constituting an architectural element) as an object, a virtual member (a member that does not constitute a building element) determined by considering an operation that generates costs as a member. There is also member data for. The member data for this virtual member includes the member name (member identification information), the estimated unit price and execution unit price (for example, price per unit length, price per unit area, price per unit volume, etc.), work The basis for accrual for calculating the cost is included. On the other hand, the member data for the member as the object also includes the basis for integration. In this case, the basis for the integration is executed by the integration unit 60 according to the arrangement method in which the selection input is received by the building element registration / arrangement unit 50. This is information indicating that it is to be performed. The basis of integration will be described in detail in the description of the member data storage means 71 described later.

  The company information registration unit 22 receives a user operation on the company information registration screen 112 (see FIG. 4), and executes a process of storing the company information input by the user in the company information storage unit 72 (see FIG. 2). Is. The contents of the company information to be registered will be described in detail in the description of the company information storage means 72 described later.

  The user registration unit 23 accepts a user operation on the user registration screen 113 (see FIG. 4), and stores information on the user's authority input by the user (the authority that the input user gives to other users). A process of storing the information in the user information storage unit 73 (see FIG. 2) is executed. The contents of information relating to the user authority to be registered will be described in detail in the description of the user information storage means 73 described later.

  The data management means 24 accepts a user operation on the data management screen 114 (see FIG. 4), and data relating to each property (each building) being created or created, or new property (data stored in the storage means 70) (Part of the above) such as backup, deletion, and new creation. If the data of each property (each building) is stored in a file, the file backup, deletion, new creation, etc. are executed. If it is stored in the database, the corresponding table or Executes processing such as record backup, deletion, and new creation.

  The supplier registration means 25 accepts the user's operation on the supplier registration screen 115 (see FIG. 4), and the supplier information storage means 74 (see FIG. 4) stores information on the supplier (supplier) entered by the user. 2) is executed. The contents of the supplier information of the business partner (supplier) to be registered will be described in detail when describing the business partner information storage means 74 described later.

  The property selection unit 31 receives a user operation on the property selection screen 121 (see FIG. 4), and executes a process of selecting a property (building) from which work related to form creation will be started. Specifically, the property selection unit 31 reads the selected file when data related to each property among the data stored in the storage unit 70 is stored in a file for each property, or A process of storing the name of the selected file and its storage location (path) in the memory (storage means 70 or main memory) is executed. Moreover, the property selection means 31 is the property name (property identification) about the selected property (building), when the data regarding each property of the data memorize | stored in the memory | storage means 70 are memorize | stored in the database. Information) is stored in a memory (storage means 70 or main memory).

  The supplier registration means 32 accepts the user's operation on the supplier registration screen 122 (see FIG. 4), and the supplier for each construction (subject) input by the user (the supplier (supplier) who orders each construction). The processing of storing the information of the supplier) in the supplier storage means 75 (see FIG. 2) is executed. The contents of the information related to the ordering party to be registered will be described in detail in the description of ordering party storage means 75 described later.

  The member data input / output means 33 receives a user operation on the member data input / output screen 123 (see FIG. 4) and executes input / output processing of the member data group. Specifically, the member data input / output unit 33, when the member data storage unit 71 is a file such as a CSV file, the file is connected to an external recording medium such as a USB memory or a memory card (connected via a communication line). Including other computers) to a predetermined storage location of the system main body 20 (folder that is mainly accessed by the system configuration program), and another storage location (save and save folders) from the external recording medium Reading, reading from another storage location to a predetermined storage location, copying from a predetermined storage location to another storage location, processing to write from a predetermined storage location to an external recording medium, another processing A process of writing from the storage location to the external recording medium is executed. The member data input / output means 33 also executes processing for selecting a file (member data group) to be used when there are a plurality of files (a plurality of member data groups). At this time, when there are a plurality of files in a predetermined storage location, the configuration may be such that a file to be used is selected from the files, and the file is stored in any storage location regardless of the predetermined storage location or another storage location. It is also possible to configure the file to be used by specifying the file path.

  Further, when the member data storage means 71 is a database, the member data input / output means 33 reads a member data group from an external recording medium (including a case where it is stored in a file such as a CSV file) and stores it in the database. A process of storing, a process of writing from an database to an external recording medium and saving (including a case of storing in a file such as a CSV file), and the like are executed. The member data input / output means 33 also executes processing for selecting a member data group to be used when a plurality of member data groups are stored in the database.

  The building summary input means 34 receives a user operation on the building summary input screen 124 (see FIG. 4), and executes a process of storing the building summary input by the user in the building summary storage means 76 (see FIG. 2). Is. The contents of the architectural summary to be input will be described in detail in the description of the architectural summary storage means 76 to be described later. For example, the input architectural summary includes the first floor height, the second floor height, the third floor. Height, foundation height, etc. are included. When these data such as the first floor height are used in the integration process by the integration means 60 as in the present embodiment, the data such as the first floor height is the “building element registration / arrangement” of the present invention. Since it corresponds to “non-coordinate data” in “means” (“architecture element registration / arrangement means” described in claims), the “architecture element registration / arrangement means” of the present invention is the architecture in this embodiment. The component registration / arrangement unit 50 and a part of the building outline input unit 34 are configured. On the other hand, the input of data such as the height of the first floor may be accepted by the building element registration / placement means 50 instead of the building summary input means 34 at the time of registration and placement of building elements. The “architecture element registration / arrangement means” of the present invention is constituted only by the architecture element registration / arrangement means 50. Further, the “architecture element registration / placement means” of the present invention may be constituted by means other than the building element registration / placement means 50 and the building summary input means 34, and the “non-coordinate data” necessary for the integration calculation may be configured. What name is used to accept the input is only a naming problem for each means in this embodiment.

  The conversion information setting means 40 accepts a user operation on the drawing data selection screen 131 (see FIG. 4), and the design to be processed from the image data of the design drawing stored in the drawing data storage means 77. An instruction to select image data (image data) in the figure is received, the selected image data is read into the work area (main memory), and the design drawing is displayed on the display device 91 using the read image data (FIG. 5). 5), the designation input of the coordinate position of the two points by the user is accepted on the design diagram displayed on the screen in the two-point designation screen 132 in FIG. 5, and the two points designated in the scale input screen 133 in FIG. By accepting numerical input of the actual dimensions and grid spacing, the conversion information between the dimensions on the screen display coordinates for the design drawings and the actual dimensions Accept the setting input of (information for obtaining the conversion ratio), rotate the specified two points while maintaining the distance on the coordinates, the entire image so that these two points are horizontal (straight side) on the screen 6 is used as a reference for displaying a grid on the reference point setting screen 134 in FIG. 6 and a reference for superimposing image data of design drawings on each floor for a multi-storey building (for example, The position of the reference point designated for the first floor plan and the second floor plan is superimposed.) The reference point setting input is received, and each received data and the obtained data are obtained. Conversion information (two designated coordinate data, actual dimensions between two points, grid interval, reference point coordinate data, conversion ratio, rotation angle) is stored in the conversion information storage means 78 (see FIG. 2). Let And executes the processing.

  The image data after the rotation correction by the conversion information setting means 40 may be stored by overwriting the original image data, may be stored as another image data, or the image data after the rotation correction is stored. Instead, it may be discarded after processing, and rotation correction may be performed using the information read from the original image data and stored in the conversion information storage means 78 (see FIG. 2) each time.

  The building element registration / placement means 50 includes a building element registration means 51 and a building element placement means 52.

  The building element registration means 51 is the member data in each registration screen 141,143,145,147,149,151 and member selection screen 160 (refer FIG.4, FIG.7, FIG.9, FIG.11, FIG.14, FIG. 17). A selection input of a member used to configure each building element (division, wall, joinery, foundation, roof, furniture, etc.) by the user from among the members stored in the storage unit 71 (see FIG. 2) is received. In addition to performing use member selection acceptance processing, numerical data (for example, pitches for arranging the component members, dimensions of the cross section of the foundation, etc.) and selection information (for example, pitches for arranging the component members) for each building element or its component members are selected. For example, if there is a component arrangement method, basic type, etc.) or text data (explanatory text, etc.), processing to accept those inputs is also performed, and each received data is And it executes a process of storing the location data storage unit 79 (see FIG. 2). The details of the processing contents by the building element registration means 51 will be described later together with the description of the flow of form creation processing using FIG.

  Here, the arrangement method (arrangement method) of the component member is an arrangement method when the members constituting the building element are arranged in the building element, and the arrangement method prepared by the system as a user option For example, “same length” indicating that the building element is arranged with the same length as the building element (for example, if the building element is a wall, it means the length specified by the drawing operation on the screen, and the building element In the case of, there is no particular meaning.) And “same width” indicating that the building elements are arranged with the same width (for example, in the case of walls, it means the wall thickness specified by numerical input in wall registration) However, in the case of a section, it has no particular meaning.) And “same height” indicating that it is arranged at the same height as the building element (for example, in the case of a wall, specify it by entering a numerical value in the property settings) In the case of a parcel, “ ”Well-floor height”) and “perimeter” indicating that the building element is arranged at the perimeter of the building element (for example, in the case of a wall, it has no meaning, and in the case of a section, the screen Means the perimeter of the section specified in the drawing operation above) and the “side area” indicating that it is arranged in the side area of the building element (for example, in the case of a wall, there is no particular meaning. In the case, it means the side of the section, and is selected as an arrangement method such as wallpaper, for example.) And “same area” indicating that the building element is arranged in the same area (for example, in the case of a wall, This means the area of the wall. In the case of a partition, it means the area of the partition specified by the drawing operation on the screen.) And “same volume” (for example, wall Means the volume of the wall, and in the case of a compartment, the area of the compartment is multiplied by "ceiling height-floor height". ”And“ Length direction pitch designation ”indicating that the building elements are arranged with the length direction pitch designation (for example, in the case of walls, input in the length direction designated by the drawing operation on the screen) "In the case of a wall, for example, in the case of walls" , Meaning the pitch arrangement entered in the wall thickness direction specified in the wall registration, and in the case of a section, it has no meaning.) "Specify pitch in the vertical direction" (for example, in the case of a wall, it means the pitch arrangement input in the height direction of the wall, and in the case of a section, it has no meaning), and the area pitch specification of the building element “Area pitch designation” (for example, a wall field) In this case, it means the pitch arrangement input by the area of the wall, and in the case of a section, it means the pitch arrangement input by the area of the section. ) And “Volume pitch designation” (for example, in the case of a wall, it means the pitch arrangement input by the volume of the wall, and in the case of a parcel, Pitch arrangement input by volume) and "fixed quantity" indicating arrangement by fixed quantity (meaning fixed arrangement regardless of length, width, height, etc.). .

  The building element arrangement means 52 is arranged on each arrangement screen 142, 144, 146, 148, 150, 152, 153 (FIGS. 4, 8, 10, 12, 13, 13, 15, 16, 18, 19). 20 and 21), the design drawing is displayed on the screen using the image data (the state after the rotation correction) of the design drawing read from the drawing data storage unit 77, and on the design drawing displayed on the screen. The drawing line input operation (trace the line indicating each building element or an operation equivalent thereto) or the input operation of the drawing section formed by the drawing line by the user In addition to performing drawing acceptance processing that accepts input of specified coordinate data, at this time, numerical data (for example, roof slope, etc.) and selection required for each building element or its constituent members for integration calculation If there is information (for example, basic type) or text data (descriptive text, etc.), processing for accepting the input is also performed, and each received data is stored in the arrangement data storage means 79 (see FIG. 2). The process to memorize | store is performed. The details of the processing contents by the building element arrangement means 52 will be described later together with the description of the flow of the form creation processing using FIG.

  Further, the numerical data received by the building element registration means 51 and the building element arrangement means 52 are data used for integration for estimation, cost calculation, etc. together with the coordinate data input and designated by the drawing operation. This is non-coordinate data that is not input specified by a drawing operation. For example, when the area is obtained with the coordinate data input and specified by the drawing operation, if the numerical value such as height is input as the non-coordinate data, the volume can be obtained, and the dimension of the data obtained by the drawing operation Can be increased. More generally speaking, as a case where the number of dimensions increases, the length data obtained by the drawing operation (one-dimensional data) is multiplied by one-dimensional non-coordinate data in a direction orthogonal to the line, Area data (two-dimensional data) is obtained. Further, volume data (three-dimensional data) can be obtained by multiplying area data (two-dimensional data) obtained by the drawing operation by one-dimensional non-coordinate data in a direction orthogonal to the surface. Furthermore, as a case where the dimension does not change, the data of the length obtained by the drawing operation (one-dimensional data) is given as the non-coordinate data as the angle of the oblique line (inclination angle, gradient) that forms an acute angle with the line. When trigonometric function computation (calculation of the hypotenuse from the base of the triangle) is performed, data of the length of the oblique line (one-dimensional data) is obtained. In addition, with respect to the area data (two-dimensional data) obtained by the drawing operation, the angle of the slope that makes an acute angle with the surface (inclination angle, slope: for example, the slope of the roof) is given as non-coordinate data, and the trigonometric function When calculation is performed, slope area data (two-dimensional data) is obtained. In addition, as a case of converting units, if density (linear density, surface density, volume density) is given as non-coordinate data, weight data can be obtained from length, area, and volume data obtained by a drawing operation. .

  The accumulating unit 60 includes a totaling unit 61 and a form creation unit 62.

  The totaling means 61 is received by the coordinate data and conversion information setting means 40 received by the building element registration / placement means 50 and stored in the placement data storage means 79 (see FIG. 2), and converted information storage means 78 (FIG. Conversion information (conversion ratio) stored in (2) is used, or in addition to these coordinate data and conversion information (conversion ratio), it is received by the building element registration / placement means 50 and the placement data storage means 79 Non-coordinate data stored in (see FIG. 2) (selection information such as the arrangement method of members, data inputted numerically) or received by the building outline input means 34 and building outline storage means 76 (see FIG. 2) Using non-coordinate data (floor height, etc.) stored in the table, the length, area, or volume according to the actual dimensions of the building element is converted and calculated. The length, area, or volume of the component member of the building element is calculated or determined according to the designated arrangement method, and the length, area, or volume obtained by conversion calculation is calculated or determined according to the arrangement method. Dividing or dividing the length, area, or volume by the member single unit specification information associated with the member name (member identification information) of the member to be used and stored in the member data storage means 71 (see FIG. 2) By performing an equivalent operation, the quantity (number) of the member to be used is calculated, and the estimated unit price or execution unit price (cost) stored in the member data storage means 71 (see FIG. 2) is calculated as the calculated quantity (number). ) To calculate the estimated amount and the execution amount for the member to be used, and further calculate the gross margin from the estimated amount and the execution amount, and the member data storage means 1 is executed to store the data acquired from 1 (estimated unit price, execution unit price, unit, etc.) and the calculated data (quantity, estimated amount, execution amount, gross margin) in the total data storage means 80 (see FIG. 2). Is.

  Further, when the arrangement position of the large and small building elements overlaps, such as the case where the arrangement position of the wall and the arrangement position of the fitting (opening for installing the fitting) provided on the wall overlap, Building element registration / placement for the smaller building element from the length, area, or volume obtained by converting and calculating the coordinate data received by the building element registration / placement means 50 for the larger building element The larger building element in the state excluding the occupied portion of the smaller building element by reducing the length, area, or volume obtained by conversion calculation using the coordinate data received by means 50 The length, area, or volume according to the actual dimensions of the member is calculated, and the calculated length, area, or volume is associated with the member identification information about the member to be used. Means 71 by performing either or division equivalent calculation dividing the member itself specification information stored in (see FIG. 2), calculates the number of the members to be used.

  At this time, the association between large and small building elements, for example, the association between the wall as the building element and the fitting as the building element may be described in the program constituting the counting means 61, or When registering or arranging a larger building element by the element registration / placement means 50, the user may specify and associate a smaller building element (a building element that has already been placed or a building element that is scheduled to be placed in the future). On the contrary, when the building element registration / arrangement means 50 registers and arranges the smaller building element, the user selects the larger building element (the building element that has already been arranged or the building element that is scheduled to be arranged). It may be specified and related. In addition, whether or not the arrangement positions of large and small building elements overlap is treated as if they are uniformly overlapped according to the internal description of the program as described above or the association between building elements specified by the user (the larger size). (The process of subtracting the smaller size information from the information), or whether or not the drawing lines and drawing sections actually overlap using the coordinate data specified by the drawing operation for each of the large and small building elements It may be determined (a certain amount of pixel shift is allowed), and the process (a process of subtracting the smaller size information from the larger size information) may be performed.

  For example, when calculating the actual size length or area of the wall in a state where the opening for joinery is provided, the counting unit 61 uses the coordinate data obtained by the drawing operation on the wall that is the larger building element. It is obtained by conversion calculation using the coordinate data obtained by the drawing operation about the fitting (or opening for the fitting) which is the smaller building element from the length and area obtained by the conversion calculation using By reducing the length and area, it is possible to calculate the length and area according to the actual dimensions of the wall in the state where the opening for joinery is provided.

  Furthermore, for the virtual member (for example, “unloading cost”), the counting unit 61 acquires the accumulation basis for the virtual member stored in the member data storage unit 71 (see FIG. 2), and according to the accumulation basis. , Calculate or acquire the length, area, volume, etc. (for example, 2F or more construction area, excavation volume, veranda area, etc.) related to the integration basis, and to the length, area, volume, etc. related to the integration basis calculated or acquired, Estimated unit price and execution unit price of the virtual member stored in the member data storage unit 71 (see FIG. 2) (for example, price per unit length, price per unit area, price per unit volume, etc.) To calculate the cost (estimated amount or execution amount) of the work related to the virtual member. At this time, the calculation or acquisition processing of the length, area, volume, etc. (for example, construction area of 2F or more, excavation volume, veranda area, etc.) related to the integration basis is accepted by the building element registration / arrangement means 50 and stored as arrangement data Coordinate data or non-coordinate data stored in the means 79 (see FIG. 2) or non-coordinate data (floor height etc.) received by the building outline input means 34 and stored in the building outline storage means 76 (see FIG. 2). Or a data acquisition process from these storage means 79 and 76. Details of the processing contents of the counting means 61 will be described later together with the description of the flow of the form creation processing using FIG.

  The form creation means 62 includes data (amount data etc.) stored in the total data storage means 80 (see FIG. 2), company information storage means 72, supplier information storage means 74, and order place storage means 75 ( Using the data (address, name, etc. address and sender data) stored in the data (see Figure 2), estimate or part of it, cost accounting or part of it, or other building-related forms or part of it Is executed. Details of the processing contents of the form creation means 62 will be described later together with the description of the flow of the form creation process using FIG.

  As shown in FIG. 2, the member data storage unit 71 includes a work (subject) -specific number (construction identification information), a member name (member identification information), an estimated unit price, an execution unit price (cost), and an accumulation basis. , A lot unit, component single unit specification information (length, area, volume, etc. of a single member) and a unit (m, square meter, standing rice, kg, etc.) are stored in association with each other.

  Here, in the present embodiment, member data such as a member name (member identification information), an estimated unit price, and an execution unit price (cost) are stored in association with the “number by construction (subject) (construction identification information)”. However, it is not associated with the “company name (customer identification information) of the supplier (supplier)”. Therefore, when the type of construction (subject) is determined, the estimated unit price and execution unit cost (cost) of the member having the member name (member identification information) are determined. No matter which business partner (vendor) is associated, the estimated unit price and execution unit cost (cost) will not change. In other words, regardless of the supplier (supplier), the estimated unit price and execution unit cost (cost) of each member are fixed, and the standard price (standard unit price) is registered. It will be. For this reason, the complexity of the system configuration is avoided and the registration work is facilitated. However, the member data is stored in association with “company name (customer identification information) of the supplier (supplier)”, and even if the same member has different suppliers (suppliers), You may make it become an execution unit price (cost).

  Further, the “lot unit” is a quantity (number) that becomes a trading unit (transaction unit), that is, a minimum quantity (number) that can be traded (traded). For example, when a certain member can be bought and sold (transacted) only in a box unit and there are 10 boxes, it is calculated that 15 members are required to construct a building element by integration calculation. In this case, 2 boxes = 20 pieces of sale (transaction).

  Further, the “integration basis” means that when the integration process by the integration means 60 is performed, (1) the building element registration / placement means 50 receives the selection input from the user and performs the integration process according to the designated member placement method. Or (2) whether the integration process is performed according to a method predetermined by the system without passing through the selection acceptance process of the arrangement method by the building element registration / placement means 50, and the latter (2) In this case, the information is information for determining which one of several predetermined methods to follow.

  More specifically, in the case of the former (1), the member data storage means 71 stores, for example, data of integration basis = “0 (based on arrangement basis)”. The member whose accumulation basis is “0” is a normal member as an object, and after the selection input of the user's arrangement method is received by the building element registration / placement means 50, the method of the accumulation process is determined. become.

  On the other hand, in the case of the latter (2), the member data storage means 71 stores, for example, the basis of integration = “1 (construction area)”, “2 (floor area)”, “3 (construction area of 2F or more)”, “4 (External wall area (excluding the second floor eaves)) "," 5 (Outer wall area for scaffolding) "," 6 (Shimoya scaffold area) "," 7 (Carenet area) "," 8 (Roof scaffold area) " ”,“ 9 (blowing area) ”,“ 10 (excavation volume) ”,“ 11 (capture volume) ”,“ 12 (remaining soil treatment) ”,“ 13 (crushed stone (under the foundation)) ”,“ 14 (crushed stone) (Under the soil)) ”,“ 15 (backfill) ”,“ 16 (total amount of concrete) ”,“ 17 (external formwork area) ”,“ 18 (upper formwork area) ”,“ 19 (pouch area) ” , “20 (veranda area)”, “21 (balcony area)”, “22 (garage area)”, “23 (shed area)”, “24 (exterior area)” , "25 (structural material)", "26 (feather pattern material)", "27 (attachment of hardware)", "28 (outer wall area (including the second floor eaves))", "29 (number of outer wall vertices (outside corner) )) "," 30 (eave area) "," 31 (1F outer circumference length) "," 32 (2F outer circumference length) "and the like are stored. The member for which the accumulation basis = data after “1” (data other than “0”) is not a member as an object, but an operation that costs money (cost required for the operation) is regarded as a member. It is a virtual member. The cost related to these virtual members, that is, the cost required for work is determined by the system in a predetermined method. For example, when the basis of integration = “1 (construction area)”, the integration means 60 uses the construction area. Calculated.

  Further, the member data storage means 71 may store a plurality of member data groups. For example, a plurality of member data groups corresponding to the type of building are prepared, and old and new member data groups are managed. A plurality of member data groups having different creators (providers) may be stored. At this time, when the member data storage means 71 is a file such as a CSV file, for example, the file name may be changed or a plurality of files may be managed by changing the file storage location (folder). When the data storage means 71 is used as a database, for example, a different table is prepared for each member data group, or a column of member data group identification information for identifying the member data group is provided in each record. The data of each member data group may be stored in association with the data group identification information.

  As shown in FIG. 2, the company information storage means 72 includes a company name, a postal code, an address, a TEL number, a FAX number, a representative name, and account information (bank name, branch name, current account / ordinary account, account Number) and the like are stored in association with each other. This company information is the information of the company that is the user of this system (the company to which the user who operates this system belongs), and is the information of the company that is described as the issuer in the estimate, invoice, purchase order, etc. is there.

  As shown in FIG. 2, the user information storage unit 73 has authority information for each operation item such as a user name, a password, and an input (for example, whether or not an architectural outline can be input or whether an estimate can be created or not. , Whether or not the supplier registration can be performed, whether or not the user registration can be performed, etc.), the fixed data release (for example, the fixed data release to change the amount of the estimate once fixed) The permission information is stored in association with each other. Note that a user who is given the authority to perform user registration by the system administrator can register the authority of other users in the same manner as the system administrator.

  As shown in FIG. 2, the supplier information storage means 74 associates the company name (supplier identification information), postal code, address, TEL number, FAX number, person in charge, etc. of the supplier (supplier). It is something to remember. These customer (supplier) information is information on a contractor who undertakes each work, and is information on a trader described as a destination on the purchase order.

  As shown in FIG. 2, the supplier storage means 75 includes a property name (property identification information), a number by construction (subject) (construction identification information), and a company name (supplier identification) of the supplier (supplier). Information) is stored in association with each other. However, when creating a file for each property, the file itself or the name of the file becomes the property identification information, so there is no need to store the property name in association with it. The company name (supplier identification information) of the supplier (supplier) is the supplier (supplier) selected by the user from the suppliers (supplier) stored in the supplier information storage means 74. ) Company name. Therefore, with regard to a certain property (building), temporary registration work is performed by business partner A, scaffolding work is performed by business partner B, foundation work is performed by business partner C, etc. Is remembered.

  As shown in FIG. 2, the building summary storage means 76 includes a property name (property identification information), a client name, a building location, a construction method (wooden frame construction method, etc.), and a type of foundation (cloth foundation, solid foundation, soil-like construction). In other words, the height of the foundation, the number of floors of the building, the height of the first floor, the height of the second floor, the height of the third floor, the carpentry work style, and the like are stored in association with each other. A part of the data stored here may correspond to “non-coordinate data” in the present invention (“non-coordinate data” described in claims). Here, as an example, it is assumed that up to the third floor height is input and stored by the building outline input means 34, but the height of the fourth floor or more may be input and stored, or 2 It may be up to the floor height.

  The drawing data storage means 77 stores image data (image data) of a building design drawing. For example, in the case of a two-story building, a plan view showing the floor plan of the first floor and each image data (image data) of the plan view showing the floor plan of the second floor are stored. The image data of the design drawing may be image data output from a CAD system, or image data generated by reading a design drawing printed on paper or the like with a scanner.

  As shown in FIG. 2, the conversion information storage means 78 is a property name (property identification information), two specified coordinate data, two actual dimensions, grid spacing, reference point coordinate data, conversion The ratio, the rotation angle, etc. are stored in association with each other. However, when creating a file for each property, the file itself or the name of the file becomes the property identification information, so there is no need to store the property name in association with it. Further, the image data after the rotation correction by the conversion information setting means 40 is overwritten and saved on the original image data or is saved as another image data, and the saved image data after the rotation correction is used from the next time. In this case, it is not necessary to store the rotation angle, and it is also necessary to store the rotation angle every time the rotation angle is calculated from the coordinate data of the two specified points to perform the rotation correction. There is no. Further, when the image data after rotation correction is stored and used from the next time, if the conversion ratio is stored, the specified coordinate data of the two points and the actual dimension between the two points are always stored. On the contrary, if the coordinate data of the two specified points is stored, and the actual dimension between the two points is stored, the conversion ratio is not necessarily stored.

  As shown in FIG. 2, the arrangement data storage unit 79 includes a property name (property identification information), building element type information (whether it is a building element such as a wall, foundation, or roof), building element identification information ( Individual names of building elements such as registered outer walls and fabric foundations), member names (member identification information when each member is placed in one building element), coordinates Data (data designated and input by a drawing operation), non-coordinate data (data inputted numerically, selection information such as a member arrangement method, text data such as an explanatory text) and the like are stored in association with each other. However, when creating a file for each property, the file itself or the name of the file becomes the property identification information, so there is no need to store the property name in association with it. For non-coordinate data, in the case of data accompanying a building element, it is stored in association with the building element identification information, and in the case of data accompanying each member arranged to constitute the building element, The building element identification information and the member identification information for each member are stored in association with each other.

  As shown in FIG. 2, the total data storage unit 80 includes a property name (property identification information), a member name (member identification information), a standard, a unit, an estimated quantity (number), an estimated unit price, an estimated amount, and an execution quantity (number). ), The execution unit price, the execution amount, the gross margin, and the like are stored in association with each other. However, when creating a file for each property, the file itself or the name of the file becomes the property identification information, so there is no need to store the property name in association with it.

  In the above, each means 21-25, 31-34, 40, 50, 60 included in the processing means 20A is the central processing unit (CPU) provided in the computer constituting the system main body 20, and this CPU. This is realized by one or a plurality of programs that define the operation procedure.

  Further, as described above, the storage unit 70 may store the data in an internal folder or an external recording medium as a file such as a CSV file, may be a database, and may be a hardware, for example, Although it is preferably realized by a hard disk or the like, a recording medium such as a disk such as a flash memory or a DVD-RAM may be employed as long as it does not cause a problem in storage capacity or access speed.

  In this embodiment, a form creation process is performed by the building integration system 10 as follows.

  In FIG. 3, first, a member registration process is performed as an operation common to each property (each building) (step S1). Specifically, the member registration screen 111 (see FIG. 4) is displayed on the display device 91 by the member data registration means 21. When the user operates the input unit 92 and sequentially inputs member data (member data group) for a plurality of members on the member registration screen 111, each input member data is stored in the member data registration unit 21. Thus, it is stored and registered in the member data storage means 71 (see FIG. 2). The member data may be acquired from an external recording medium (such as a USB memory or a disk) that has been input and created by an input agent using another computer, or may be acquired via a network such as the Internet.

  Next, the user performs registration processing of information related to his company (step S2). Specifically, the company information registration unit 22 displays the company information registration screen 112 (see FIG. 4) on the display device 91. When the user operates the input unit 92 to input company information on the company information registration screen 112, the entered company information is stored in the company information storage unit 72 (see FIG. 2) by the company information registration unit 22. To be registered.

  Then, the user (initially a system administrator) performs a registration process of information relating to the authority of the user who can operate the system (step S3). However, since this authority registration process may be performed when it is necessary to add a user who performs the work, it is not necessary to perform it at this timing, and is described here for convenience of explanation. Specifically, the user registration screen 113 (see FIG. 4) is displayed on the display device 91 by the user registration means 23. When the user operates the input unit 92 on the user registration screen 113 and inputs information regarding the user's authority (the authority given to the other user by the input user), the information regarding the input user's authority is input. Is stored and registered in the user information storage unit 73 (see FIG. 2) by the user registration unit 23.

  Subsequently, the user performs a registration process of information on a business partner (supplier) of his company (step S4). Specifically, the supplier registration unit 25 displays the supplier registration screen 115 (see FIG. 4) on the display device 91. When the user operates the input means 92 and inputs information on the supplier (supplier) on the supplier registration screen 115, the input information on the supplier (supplier) supplier is displayed. The destination registration means 25 stores and registers in the supplier information storage means 74 (see FIG. 2).

  Thereafter, a form creation process for the target property is started. First, if there are multiple existing properties that are being created or have already been created, select the target property for which you want to create a form from now, and if you want to create a new form, set for that Processing is performed (step S5). Specifically, the property selection means 31 displays the property selection screen 121 (see FIG. 4) on the display device 91. In this property selection screen 121, if there is one or more existing properties that are being created or have been created, their selection part is displayed (if there is a file of one or more existing properties) Since the names and icons of those files are displayed, the user operates the input means 92 to select and instruct the target property from which to create a form. On the other hand, when there is no existing property and a form is created for a new property, a file for the property is newly created by the property selection means 31, or the storage area for the data for the property is stored in the database. Created.

  Next, registration processing of an ordering party for each construction of the target property (building) (a supplier (a supplier) who orders each construction) is performed (step S6). Specifically, the supplier registration unit 32 displays the supplier registration screen 122 (see FIG. 4) on the display device 91. On this supplier registration screen 122, the company names of some suppliers (suppliers) stored in the supplier information storage means 74 (see FIG. 2) are displayed for each construction (subject). The user operates the input unit 92 to select and input a supplier (supplier) as an ordering party for each construction among them for each construction (subject). The company name (customer identification information) of the supplier (vendor) for each selected construction (subject) is stored and registered in the supplier storage means 75 (see FIG. 2) by the supplier registration means 32. Is done. As a result, with regard to the target property (building), the temporary information is registered by the customer A, the scaffolding work is performed by the customer B, the foundation work is performed by the customer C, and the selection information by the user is registered. Is done.

  Then, a member data input / output screen 123 (see FIG. 4) is displayed on the display device 91 by the member data input / output means 33. At this time, when a plurality of member data groups (a plurality of files when the member data is stored in a file such as a CSV file) are stored in the member data storage means 71 (see FIG. 2), Since the names and icons of a plurality of member data groups (a plurality of files) are displayed on the member data input / output screen 123, the user operates the input means 92, and the member data group to be used (from among them) ( A file to be used is selected (step S7).

  Subsequently, the user performs an input process of a building outline for the target property (step S8). Specifically, the building summary input screen 124 (see FIG. 4) is displayed on the display device 91 by the building summary input means 34. When the user operates the input unit 92 and inputs the building summary on the building summary input screen 124, the inputted building summary is stored in the building summary storage unit 76 (see FIG. 2) by the building summary input unit 34. To be registered.

  <Drawing Data Reading / Conversion Information Input Processing: FIGS. 5 and 6>

  Thereafter, the conversion information setting means 40 displays the drawing data selection screen 131 (see FIG. 4) on the display device 91. On this drawing data selection screen 131, the name and icon of the image data of the design drawing stored in the drawing data storage means 77 are displayed, so that the user operates the input means 92, from which the processing is performed. The selection input of the image data (image data) of the target design drawing is performed (step S9). When the selection input is performed, the conversion information setting unit 40 reads the image data selected by the user into the work area (main memory), and uses the read image data to generate a design diagram as shown in FIG. The displayed two-point designation screen 132 is displayed on the display device 91.

  On the two-point designation screen 132 in FIG. 5, the user operates the input unit 92 as a pointing device such as a mouse or a stylus pen, and coordinates of two points by a pointing operation such as a click operation on the design drawing displayed on the screen. Designation input of the positions 132A and 132B is performed (step S10). As the two points designated here, two points arranged horizontally on the screen (right side direction) are selected. When the image data is displayed in a slightly rotated state due to the influence of the reading of the scanner, the user is supposed to display the two points (ie, the image data in the slightly rotated state) that should be aligned horizontally on the screen. When displayed, select 2 points that are not exactly horizontal on the screen. In addition, on the design drawing displayed on the screen, in order to assist the user in specifying and inputting the two coordinate positions 132A and 132B, the conversion information setting means 40 uses the horizontal direction (horizontal direction) and a direction orthogonal thereto. An auxiliary line 132C extending in the (vertical direction) is displayed.

  Subsequently, since the scale input screen 133 as shown in FIG. 5 is displayed on the display device 91 by the conversion information setting means 40, the user can use the scale input screen 133 to display the actual two points specified. Numerical values of dimensions and grid intervals are input (step S10). As a result, the coordinate size between the two points in the image data specified by the pointing operation such as the click operation and the actual dimension between the two corresponding points (between the two points when the building is actually built) Therefore, conversion information between the coordinate dimension and the actual dimension can be obtained.

  Here, the conversion information setting means 40 rotates the line connecting the two points designated by the pointing operation such as the click operation while maintaining the distance between the two points on the coordinates so that these two points are horizontal on the screen ( Correction processing for rotating the entire image so as to be in the horizontal direction is executed.

  Furthermore, since the reference information setting screen 134 as shown in FIG. 6 is displayed on the display device 91 by the conversion information setting means 40, the user can use the pointing device such as a mouse or a stylus pen on the reference point setting screen 134. The reference point 134A is set and input by a pointing operation such as a click operation (step S10). The reference point 134A is a reference for displaying a grid (indicated by a dotted line in FIG. 6, but may be actually a solid line with a light color, for example), and a multi-story building. This is a reference point for superimposing image data of design drawings on each floor of an object. Therefore, for example, the positions of the reference points 134A respectively designated for the first floor plan and the second floor plan are overlaid.

  Then, each data set and inputted by the user by the conversion information setting means 40 and conversion information obtained from those data (designated coordinate data of two points, actual dimensions between the two points, grid interval, reference Point coordinate data, conversion ratio, rotation angle) are stored in the conversion information storage means 78 (see FIG. 2).

  Then, the building element registration / arrangement unit 50 (the building element registration unit 51 and the building element arrangement unit 52) performs registration processing and arrangement processing of each building element as follows (step S11).

  <Registration / arrangement of sections: FIGS. 7 and 8>

  When registering a section, the building element registration unit 51 displays a section registration screen 141 and a member selection screen 160 as shown in FIG. 7 on the display device 91. The input means 92 is operated to input a section name (for example, “children's room”) for the section to be registered and the section description as non-coordinate data (data not designated and input by the drawing operation). Enter the application type (general, porch, atrium, veranda, balcony, garage, etc.), floor height, ceiling height from FL (floor finish level), etc., and place them together in this section The member and the arrangement method of the member are selected on the member selection screen 160, and the selected member and the arrangement method (arrangement method) of the member are displayed on the partition registration screen 141. . Then, the data input on the section registration screen 141 and the member selection screen 160 (building element type information indicating that it is a section, section name of the registered section that is the building element identification information (for example, “child room”, etc.) ), Non-coordinate data such as member identification information about the arranged member, and the arrangement method of the member) are stored in the arrangement data storage unit 79 (see FIG. 2) by the building element registration unit 51. The member selection screen 160 displays all the members stored in the member data storage means 71 (see FIG. 2) or partially displays, for example, every construction.

  When the sections are arranged, the building element arranging means 52 displays a section arrangement screen 142 as shown in FIG. 8 on the display device 91. The section arrangement screen 142 includes a section registration screen 141 shown in FIG. Since the section name (for example, “children's room”) for the registered section is displayed, the user operates the input unit 92 to select and input the section to be arranged. In addition, when there is numerical data necessary for the integration calculation regarding each building element (each section) or its constituent members, the building element placement unit 52 also performs a process of receiving the input. Furthermore, since the design element is displayed on the screen of the display device 91 by the building element arrangement unit 52, the user can input an input unit as a pointing device such as a mouse or a stylus pen on the screen displayed on the screen. 92 to the line indicating the section selected on the section arrangement screen 142 (for example, a line on the design drawing of the outer edge portion of the section drawn so as to surround the section with the section name “child room”) Along the line, the drawing line is drawn. This drawing operation can be performed by drawing a line by continuing a pointing operation such as a click operation, or by enlarging, reducing, transforming, rotating, or moving a figure such as a square or rectangle prepared in advance. A line (enlarged / reduced / deformed / rotated / moved line generated by a drawing operation) along a line indicating a target section (a line on a design drawing of an outer edge portion of the target section) Regardless of the method of drawing operation, the drawing line may be finally drawn along the line indicating the target section or the drawing section may be arranged. Then, each piece of data received by the building element placement means 52 (coordinate data specified and input by the drawing operation, non-coordinate data not specified and input by the drawing operation) is stored in the placement data storage means 79 (see FIG. 2). Remember me.

  The area of the drawing section obtained from the coordinate data designated and input by the above drawing operation is used when calculating the construction area of 2F (second floor) or more in the integration process by the integration means 60. Specifically, the area (pixel × pixel) on the coordinates for each section on the second floor obtained by arranging each section on the second floor by drawing operation as described above is converted into an actual area, By summing up the actual areas, a construction area of 2F or more can be calculated.

  <Registration and arrangement of walls: FIGS. 9 and 10>

  When the wall is registered, the building element registration unit 51 displays a wall registration screen 143 and a member selection screen 160 as shown in FIG. 9 on the display device 91. , By operating the input means 92 and inputting the name of the wall to be registered (for example, “outer wall heat insulation”, etc.), as the non-coordinate data (data not specified by the drawing operation), the description of the wall, Enter the wall thickness, etc., and select the member to be placed on this wall and the placement method of the member on the member selection screen 160, and register the selected member and the placement method (placement method) of the member on the wall. It is displayed on the screen 143. Then, the data input on the wall registration screen 143 and the member selection screen 160 (building element type information indicating that the wall is a wall, registered wall name (for example, “outer wall”) that is building element identification information, arrangement The non-coordinate data such as the member name and the member arrangement method, which are the member identification information for the member, is stored in the arrangement data storage unit 79 (see FIG. 2) by the building element registration unit 51. The member selection screen 160 shown in FIG. 9 is the same as that shown in FIG.

  In the above wall registration, the user diverts part of the data (data saved by the building element registration means 51) stored in the arrangement data storage means 79 (see FIG. 2) for the already registered walls. can do. This diversion may be diversion of wall data used in another building (property), or diversion of data of another wall registered for use in the building (property) currently being processed. Also good. That is, when registering a wall, the data stored by the building element registration means 51, specifically, the member name (member identification information) of the member specified (arranged) as the constituent member of the wall or the member The input method such as the arrangement method, the name of the wall, the description of the wall, the wall thickness, and the pitch for arranging the members can be used as it is in other buildings (articles). Also, by changing some parts and data, and therefore changing other parts and data (usually most other parts and data) without changing other parts or data in the building (property) currently being processed. The name wall can be registered and the building (property) currently being processed by changing some parts and data of the wall data registered in the processing of other buildings (property) It is also possible to register a wall with a different name used in.

  And when registering a wall on the premise that the data of other buildings (property) will be diverted, the name of the wall is, for example, “National highway” so that it can be used in other buildings (property). It is preferable to give a generic name rather than a special name such as “Wall along the route”, but whether the user knows the content (structure) such as “The wall along the route” Or if you remember, in the process of other buildings (articles), only the name of the wall can be changed and diverted. Therefore, in FIG. 2, the data stored in the arrangement data storage means 79 is individual data for each property, but the registration of the wall on the premise that it is diverted to other buildings (articles) is performed. If it carries out, about the data preserve | saved by the building element registration means 51 (data which is not the data preserve | saved by the building element arrangement means 52) among the data memorize | stored in the arrangement data storage means 79, it is common to each property. It can be understood as data.

  In addition, a wall with another name can be registered by changing some members and data. For example, there is a wall named “outer wall A”, and the components of the wall are cloth, 9.5 mm thick gypsum board, 100 mm thick glass wool, 9.5 mm thick structural plywood, 0.2 mm thick polyethylene. Assume that a film, 16 mm thick outer wall siding, is placed. At this time, some members, for example, a 9.5 mm-thick gypsum board and a 12.5 mm-thick gypsum board are replaced, and a 16 mm-thick outer wall siding and a 14 mm-thick outer wall siding are replaced. Register a wall named "Outer Wall B" with 5mm thick plasterboard, 100mm thick glass wool, 9.5mm thick structural plywood, 0.2mm thick polyethylene film, 14mm thick outer wall siding be able to. At this time, all the constituent members of the wall named “outer wall B” may be input again from the beginning. However, the members already arranged as the constituent members of the wall named “outer wall A” are added / deleted. By performing the above, it is possible to arrange the structural member of the wall named “outer wall B”, that is, the name of the wall is changed from “outer wall A” to “outer wall B” and partly If the members can be exchanged, new wall registration work becomes easy. In the example of “outer wall A” and “outer wall B” described above, the cloth pasted on the indoor side is arranged as a constituent member of the wall (architectural element), but is arranged as a constituent member of the partition (architectural element). Such selection may be freely made by the user and may be arranged so as not to be doubled.

  And as mentioned above, it is possible to divert to other buildings (articles), and registration of building elements with different names (different building element identification information) by exchanging some members The same applies to the registration of building elements other than walls, including the case of registration of sections described above. Also, on the system, there may be differently named building elements (for example, “outer wall (north side)” and “outer wall (N)”) having the same structure (components are exactly the same). As long as the name is used as the building element identification information, a plurality of building elements do not exist (there are no building elements having the same name but different structures).

  When the walls are arranged, the building element arrangement means 52 displays a wall arrangement screen 144 as shown in FIG. 10 on the display device 91. The wall arrangement screen 144 includes a wall registration screen 143 shown in FIG. Since the name of the wall registered in (for example, “outer wall heat insulation”) is displayed, the user operates the input means 92 to select and input the wall to be arranged. Also, on the wall layout screen 144, as the non-coordinate data (data that is not the coordinate data specified and input by the drawing operation), the radius of the whole wall, the descending wall, the waist wall, and the R wall is input, and each other building When there is numerical data necessary for the integration calculation regarding the element (each wall) or its constituent members, the building element placement means 52 also performs a process of receiving the input. Furthermore, since the design element is displayed on the screen of the display device 91 by the building element arrangement unit 52, the user can input an input unit as a pointing device such as a mouse or a stylus pen on the screen displayed on the screen. 92 is operated to draw a drawing line along a line indicating the wall selected on the wall arrangement screen 144 (for example, a line on the design drawing of the wall labeled “outer wall heat insulation”). This drawing operation can be performed by drawing a line by continuing a pointing operation such as a click operation, or by enlarging, reducing, transforming, rotating, or moving a figure such as a square or rectangle prepared in advance. Such as placing a line (a line to be enlarged / reduced / deformed / rotated or moved by a drawing operation) along a line (a line on the design drawing) indicating the target wall, etc. Regardless of the method of drawing operation, the drawing line is drawn along the line indicating the target wall or the drawing section (the drawing section in the case of the wall is drawn not to be an area but to be closed). The perimeter of the drawing line is sufficient). Then, each piece of data received by the building element placement means 52 (coordinate data specified and input by the drawing operation, non-coordinate data not specified and input by the drawing operation) is stored in the placement data storage means 79 (see FIG. 2). Remember me.

  <Registration and placement of joinery: FIGS. 11 to 13>

  When registering the joinery, the building element registration unit 51 displays the joinery registration screen 145 and the member selection screen 160 as shown in FIG. 11 on the display device 91. The input means 92 is operated to input the name of the joinery to be registered (for example, “two-fold folding door”), and the description of the joinery as non-coordinate data (data that is not designated and input by the drawing operation). , Type (wooden / metal separate), dimensions (width W, height H), display type (single-open, double-open, parent-child open, single-draw, 2-draw, 4-draw, FIX, folding door, 2 Enter a separate folding door, etc.), installation height (lower end), etc., and further select a member to be placed together on this joinery and a placement method for the member on the member selection screen 160, and select the selected member and the member. Placement Law (way of the arrangement) to be displayed on the joinery registration screen 145. Then, the data entered on the joinery registration screen 145 and the member selection screen 160 (building element type information indicating that it is a joinery, the name of the registered joinery that is building element identification information (for example, “two-fold folding door”, etc. ), Non-coordinate data such as member identification information about the arranged member, and the arrangement method of the member) are stored in the arrangement data storage unit 79 (see FIG. 2) by the building element registration unit 51. The member selection screen 160 shown in FIG. 11 is the same as that shown in FIG.

  When placing the joinery, the building element placement means 52 displays a joinery placement screen 146 (146A) as shown in FIG. 12 on the display device 91. The joinery placement screen 146A displays the joinery shown in FIG. Since the name of the joinery registered on the registration screen 145 (for example, “two-fold folding door”) is displayed, the user operates the input unit 92 and selects and inputs the joinery to be arranged. In addition, in the joinery arrangement screen 146A, as the non-coordinate data (data that is not the coordinate data specified and input by the drawing operation), the type (wood or metal) is input, and other building elements (each joinery) or its When there is numerical data necessary for the integration calculation regarding the constituent members, the building element placement means 52 also performs a process of receiving the input. Furthermore, as shown in the joinery arrangement screen 146 (146B) of FIG. 13 on the screen of the display device 91 by the building element arrangement means 52, the design drawing is displayed. The input means 92 as a pointing device such as a mouse or a stylus pen is operated above, and a line indicating the joinery (or the opening of the joinery) selected on the joinery arrangement screen 146A (for example, a name “two-fold folding door” is attached). The drawing line is drawn along the line on the design drawing of the joinery. In the example of FIG. 13, fittings (or opening parts of the fittings) 146C, 146D, 146E, 146F, and 146G are arranged by drawing operations (thick line portions, but actually colored with a color other than black). The line is easy to see.) This drawing operation can be performed by drawing a line by continuing a pointing operation such as a click operation, or by enlarging, reducing, transforming, rotating, or moving a figure such as a square or rectangle prepared in advance. A line (a line to be enlarged, reduced, deformed, rotated or moved generated by a drawing operation) along a line (a line on the design drawing) indicating a target joinery (or opening of the joinery) Regardless of the drawing operation method, the drawing line is drawn along the line indicating the target joinery (or the opening of the joinery) or the drawing section is placed. That's fine. Then, each piece of data received by the building element placement means 52 (coordinate data specified and input by the drawing operation, non-coordinate data not specified and input by the drawing operation) is stored in the placement data storage means 79 (see FIG. 2). Remember me.

  <Registration and arrangement of foundation: FIGS. 14 to 16>

  When the foundation is registered, the building element registration means 51 displays the basic registration screen 147 and the member selection screen 160 as shown in FIG. 14 on the display device 91, so that the user can use the basic registration screen 147. , By operating the input means 92 and inputting the name of the foundation to be registered (for example, “cloth foundation”), as the non-coordinate data (data not designated and inputted by the drawing operation), the explanation of the foundation, the foundation Enter the type of fabric (solid foundation, solid foundation, soil concrete), the dimensions (a to j) of each part of the cross section of the foundation, etc., and the member to be placed together on this foundation and the method for arranging the member, The member is selected on the member selection screen 160, and the selected member and the arrangement method (arrangement method) of the member are displayed on the basic registration screen 147. And the data (the building element type information indicating that it is a foundation, the name of the registered foundation that is the building element identification information (for example, “cloth foundation”, etc.) The non-coordinate data such as the member identification information and the member arrangement method for the arranged member is stored in the arrangement data storage unit 79 (see FIG. 2) by the building element registration unit 51. The member selection screen 160 shown in FIG. 14 is the same as that shown in FIG.

  When placing the foundation, the building element placement means 52 displays a foundation placement screen 148 (148A) as shown in FIG. 15 on the display device 91, and the foundation placement screen 148A includes the foundation shown in FIG. Since the name of the foundation (for example, “cloth foundation”) registered on the registration screen 147 is displayed, the user operates the input unit 92 to select and input the foundation to be arranged. In addition, on the foundation layout screen 148A, as the non-coordinate data (data that is not specified by the drawing operation), the cloth foundation, the solid foundation, and the soil-con section are entered, and other building elements (each foundation) Alternatively, when there is numerical data necessary for the integration calculation with respect to the constituent member, the building element placement unit 52 also performs a process of receiving the input. Furthermore, as shown in the basic arrangement screen 148 (148B) of FIG. 16 on the screen of the display device 91 by the building element arrangement means 52, the design drawing is displayed. On the above, the input means 92 as a pointing device such as a mouse or a stylus pen is operated, and the line indicating the foundation selected on the foundation arrangement screen 148A (for example, the line on the design drawing of the foundation with the name “cloth foundation”) ) To draw a drawing line. In the example of FIG. 16, the foundation 148C is arranged by a drawing operation (though it is a thick line portion, it is actually colored with a color other than black and is a line that is easy to see). This drawing operation can be performed by drawing a line by continuing a pointing operation such as a click operation, or by enlarging, reducing, transforming, rotating, or moving a figure such as a square or rectangle prepared in advance. The line that forms the line (the line to be enlarged / reduced / deformed / rotated / moved by the drawing operation) is placed along the line (the line on the design drawing) indicating the target basis. Regardless of the method of drawing operation, it is only necessary that a drawing line is finally drawn or a drawing section is arranged along a line indicating the target basis. Then, each piece of data received by the building element placement means 52 (coordinate data specified and input by the drawing operation, non-coordinate data not specified and input by the drawing operation) is stored in the placement data storage means 79 (see FIG. 2). Remember me.

  <Registration and arrangement of roof: FIGS. 17 to 19>

  When registering the roof, the building element registration means 51 displays the roof registration screen 149 and the member selection screen 160 as shown in FIG. 17 on the display device 91, so that the user can use the roof registration screen 149. The input means 92 is operated to input the name of the roof to be registered (for example, “slate roof”, etc.), and the description of the roof is given as non-coordinate data (data that is not specified and input by the drawing operation). Further, the member to be arranged on the roof and the arrangement method of the member are selected on the member selection screen 160, and the selected member and the arrangement method (arrangement method) of the member are displayed on the roof registration screen 149. Let The data entered on the roof registration screen 149 and the member selection screen 160 (building element type information indicating that it is a roof, the name of the registered roof that is building element identification information (for example, “slate roof”), The non-coordinate data such as the member identification information and the member arrangement method for the arranged member is stored in the arrangement data storage unit 79 (see FIG. 2) by the building element registration unit 51. Note that the member selection screen 160 shown in FIG. 17 is the same as that shown in FIG.

  When the roof is arranged, the building element arrangement means 52 displays a roof arrangement screen 150 (150A) as shown in FIG. 18 on the display device 91. The roof arrangement screen 150A displays the roof shown in FIG. Since the name of the roof registered on the registration screen 149 (for example, “slate roof” or the like) is displayed, the user operates the input unit 92 to select and input the roof to be arranged. Further, on the roof layout screen 150A, the gradient of the roof is input as non-coordinate data (data that is not specified and input by a drawing operation), and other building elements (each roof) or their constituent members are integrated. If there is numerical data necessary for this, the building element placement means 52 also performs processing for receiving the input. Further, since the design drawing is displayed on the screen of the display device 91 by the building element placement means 52, as shown in the roof placement screen 150 (150B) of FIG. 19, the user can view the design drawing displayed on the screen. By operating the input means 92 as a pointing device such as a mouse or a stylus pen above, a line indicating the roof selected on the roof arrangement screen 150A (for example, a line on the design drawing of the roof with the name “slate roof”) ) To draw a drawing line. In the example of FIG. 19, the roofs 150C and 150D on the first floor are arranged by a drawing operation (though it is a thick line portion, it is actually colored with a color other than black and is a line that is easy to see). . In addition, the arrow of a thick line has shown the inclination direction of the roof. This drawing operation can be performed by drawing a line by continuing a pointing operation such as a click operation, or by enlarging, reducing, transforming, rotating, or moving a figure such as a square or rectangle prepared in advance. Such as placing a line (enlarged / reduced / deformed / rotated / moved line generated by a drawing operation) along the line indicating the target roof (line on the design drawing), etc. Regardless of the method of drawing operation, it is only necessary that a drawing line is finally drawn or a drawing section is arranged along a line indicating the target roof. Then, each piece of data received by the building element placement means 52 (coordinate data specified and input by the drawing operation, non-coordinate data not specified and input by the drawing operation) is stored in the placement data storage means 79 (see FIG. 2). Remember me.

  <Registration / arrangement of equipment: Fig. 20>

  When registering equipment, the building element registration means 51 displays the equipment registration screen 151 (see FIG. 4) and the member selection screen 160 (same as in FIG. 7) on the display device 91. In the equipment registration screen 151, the input means 92 is operated to input the name of the equipment to be registered (for example, “kitchen”), and non-coordinate data (data that is not coordinate data specified and input by the drawing operation), Enter the description of the equipment, etc., and select the member to be placed together with this equipment and the arrangement method of the member on the member selection screen 160, and select the selected member and the arrangement method (placement method) of the member. It is displayed on the registration screen 151. Then, the data entered on the equipment registration screen 151 and the member selection screen 160 (building element type information indicating that it is equipment, the name of the registered equipment that is construction element identification information (for example, “kitchen”), arrangement The non-coordinate data such as the member name and the member arrangement method, which are the member identification information for the member, is stored in the arrangement data storage unit 79 (see FIG. 2) by the building element registration unit 51.

  When the equipment is arranged, an equipment arrangement screen 152 as shown in FIG. 20 is displayed on the display device 91 by the building element arranging means 52. The equipment arrangement screen 152 includes an equipment registration screen 151 (FIG. 4). Since the name of the equipment registered in (see) is displayed (for example, “kitchen”), the user operates the input means 92 to select and input the equipment to be arranged. In addition, when there is numerical data necessary for the integration calculation regarding each building element (each equipment) or its constituent members, the building element arrangement means 52 also performs a process of receiving the input. Furthermore, since the design element is displayed on the screen of the display device 91 by the building element arrangement unit 52, the user can input an input unit as a pointing device such as a mouse or a stylus pen on the screen displayed on the screen. 92 is operated to draw a drawing line along a line indicating the equipment selected on the equipment arrangement screen 152 (for example, a line on the design drawing of the equipment with the name “kitchen”). This drawing operation can be performed by drawing a line by continuing a pointing operation such as a click operation, or by enlarging, reducing, transforming, rotating, or moving a figure such as a square or rectangle prepared in advance. Such as placing a line (a line to be enlarged, reduced, deformed, rotated, or moved by a drawing operation) along a line indicating the target equipment (a line on the design drawing) Regardless of the method of drawing operation, it is only necessary that a drawing line is finally drawn or a drawing section is arranged along a line indicating the target equipment. Then, each piece of data received by the building element placement means 52 (coordinate data specified and input by the drawing operation, non-coordinate data not specified and input by the drawing operation) is stored in the placement data storage means 79 (see FIG. 2). Remember me.

  <Arrangement of members: FIG. 21>

  In addition to the arrangement of the members described above, when the members are arranged, a member arrangement screen 153 as shown in FIG. 21 is displayed on the display device 91 by the building element arrangement means 52, and this member arrangement screen is displayed. In 153, the name of the member (for example, “Lawan plywood 12 mm”, etc.) stored in the member data storage means 71 (see FIG. 2) is displayed, so that the user operates the input means 92 and , Select and input the member to be placed. Also, on the member arrangement screen 153, as the non-coordinate data (data that is not the coordinate data specified and input by the drawing operation), the place to be arranged (partition / wall / joint / foundation / roof / other), the arrangement method (directly) (Length designation, direct range designation, dimension designation, wall side arrangement, number designation) and the like are input, and the building element arrangement means 52 performs processing for receiving the input. Furthermore, since the design element is displayed on the screen of the display device 91 by the building element arrangement unit 52, the user can input an input unit as a pointing device such as a mouse or a stylus pen on the screen displayed on the screen. 92 is operated, and an operation of drawing a drawing line is performed along a line indicating the member selected on the member arrangement screen 153 (for example, a line on a design drawing of a member having a member name “Lawan plywood 12 mm”). This drawing operation can be performed by drawing a line by continuing a pointing operation such as a click operation, or by enlarging, reducing, transforming, rotating, or moving a figure such as a square or rectangle prepared in advance. Such as arranging the line (enlarged / reduced / deformed / rotated / moved line generated by the drawing operation) along the line indicating the target member (the line on the design drawing), etc. Regardless of the method of drawing operation, it is only necessary that a drawing line is finally drawn or a drawing section is arranged along a line indicating a target member. Then, each piece of data received by the building element placement means 52 (coordinate data specified and input by the drawing operation, non-coordinate data not specified and input by the drawing operation) is stored in the placement data storage means 79 (see FIG. 2). Remember me.

  <Calculation and calculation of the quantity of components>

  Thereafter, the counting means 61 of the accumulating means 60 calculates the number (number) of the members and the like as follows, performs the counting, and stores the obtained data in the counting data storage means 80 (see FIG. 2). (Step S12).

  The user presses the “automatic aggregation” button on the menu screen 100 (see FIG. 4), or moves to the display screen of each form such as the cost accounting document screen 175 (see FIGS. 4 and 22) and then the “automatic aggregation” button. When is pressed, the automatic counting process by the counting means 61 is started. In FIG. 4, only one menu screen 100 is shown, but the menu screen 100 may be hierarchized.

  First, the coordinate data (coordinate data obtained by the drawing operation) and conversion information setting means received by the building element registration / placement means 50 and stored in the placement data storage means 79 (see FIG. 2) by the counting means 61. 40, using the conversion information (conversion ratio) stored in the conversion information storage means 78 (see FIG. 2), or in addition to these coordinate data and conversion information (conversion ratio), building element registration / Non-coordinate data (numerical value input data or selection information) received by the placement means 50 and stored in the placement data storage means 79 (see FIG. 2) or the building summary input means 34 and received by the building summary storage means Using the non-coordinate data (floor height, etc.) stored in 76 (see Fig. 2), the length, area, or Converted calculate the volume.

  For example, in the case of a drawing line drawn along a line on the design drawing, the coordinate data of the start and end points of the drawing line is stored in the arrangement data storage means 79 (see FIG. 2). If it is a continuous bent line, the coordinate data of the start point and end point of each line constituting the bent line is stored, or information indicating that it is a continuous bent line and the start point / end point / intermediate point between them Since coordinate data of one or more bending points is stored, a dimension (length) on the coordinates of the drawing line is calculated from the coordinate data.

If the dimension (length) L on the coordinates is, for example, the dimension of the linear distance between two points of the coordinates (X1, Y1) and the coordinates (X2, Y2), L = ((X2−X1) ² + ( Y2-Y1) ² ) ^1/2 . The dimension (length) L on the coordinates is a dimension indicated by a pixel (picture element). When the drawing line is a continuous bent line, the length L of the bent line as a whole can be calculated by adding the length L of each straight line constituting the bent line. Also, assuming that the conversion ratio K = actual dimension / coordinate dimension is stored in the conversion information storage means 78 (see FIG. 2), the actual dimension (length) M is calculated as M = L × K. Is done. The definition of the conversion ratio K may be the reciprocal (dimension on coordinates / actual dimension). In this case, the actual dimension M is calculated by M = L ÷ K.

  In the case of a drawing section surrounded by drawing lines, the coordinate data of each drawing line formed around the drawing section or the outer periphery of the drawing section is stored in the arrangement data storage means 79 (see FIG. 2). Since the coordinate data of each corner point (each corner) is stored, the area on the coordinates (area by the dimensions on the coordinates) S is calculated by calculating the total number of pixels (pixels) included in the drawing section. be able to. For example, in the case of a rectangular drawing section of 10 pixels in the vertical direction and 8 pixels in the horizontal direction on the screen, the drawing section includes 10 × 8 = 80 pixels. Area S = 80 (pixel × pixel). Even in the case of a drawing section having a complicated shape, the area S on the coordinates can be calculated by calculating the total number of pixels included in the drawing section. Also, assuming that the conversion ratio K = actual dimension / coordinate dimension is stored in the conversion information storage means 78 (see FIG. 2), the actual area (area by actual dimension) T is T = S × Calculated as (K × K). In addition, when the definition of the conversion ratio K is the reciprocal (dimension on coordinates / actual dimension), the actual area T is calculated by T = S ÷ (K × K).

  As described above, the coordinate dimension (length) L and the coordinate area S are obtained from the coordinate data obtained by the drawing operation, and the actual dimension (length) is calculated from these using the conversion ratio K. M) After calculating the actual area T, the length can be converted into the area or the area into the volume using the non-coordinate data. For example, if the wall length (length on the plan view) has been obtained, the wall length is converted into an area if the wall height dimension H is specified by numerical input. Can do. Further, when the area of a section (room) is obtained, the area of the section (room) can be converted into a volume if the height dimension H of the section (room) is designated by numerical input. . That is, the actual area T can be calculated by multiplying the actual dimension (length) M converted and calculated from the coordinate data by the numerical value (actual dimension) H of the non-coordinate data. Further, the actual volume (volume by actual dimensions) V can be calculated by multiplying the actual area T converted and calculated from the coordinate data by the numerical value (actual dimensions) H of the non-coordinate data.

  Further, from the actual dimension (length) M calculated by conversion using the coordinate data and the actual area T, the actual dimension (inclination angle, gradient) θ of the non-coordinate data is used (the actual dimension of the inclined line ( Length) Ma and the actual area Ta of the inclined surface can be calculated. For example, the area of the roof (the area projected on the horizontal plane) can be converted to the actual area of the inclined roof using the roof gradient. In other words, the calculation of trigonometric function using the non-coordinate data θ that is numerically inputted to the actual dimension (length) M calculated from the coordinate data and the actual area T (the length of the hypotenuse from the length of the base of the triangle is calculated). By performing the calculation, the actual dimension (length) Ma of the inclined line and the actual area Ta of the inclined surface can be calculated.

  Then, the totaling means 61 obtains the arrangement method (non-coordinate data) of each component received by the building element registration / placement means 50 and stored in the placement data storage means 79 (see FIG. 2). According to the arrangement method, the length, area, or volume of each component of the building element is calculated or determined. For example, when a building element is a wall and an elongate member such as a baseboard is arranged along the height direction (vertical direction) of the wall, an arrangement method of the elongate member that is a constituent member of the wall is: When it is “same height” indicating that it is arranged at the same height as the building element, the floor height specified by the numerical input in the property setting (accepted by the building outline input means 34 and the building outline storage means 76 (FIG. 2) is the length dimension of the elongated member which is a constituent member of the wall. And the unit price of this elongate member, the member single unit specification information, and the amount of money are determined based on the length. Further, for example, when a building element is a wall and a planar member such as a gypsum board is arranged on the entire surface of the wall, the arrangement method of the planar member which is a constituent member of the wall is the same as the building element. When it is “same area” indicating that it is arranged in an area, the horizontal dimension (length) calculated by conversion from the coordinate data specified by the drawing operation and the height that is numerically input as non-coordinate data The area of the wall calculated by multiplying the direction dimension (length) is the area where a planar member such as a gypsum board should be arranged as it is. And the unit price of this planar member, member single unit specification information, and the amount of money are determined based on the area. In the description of the present application, calculating the “area” or multiplying the vertical and horizontal sizes to calculate the “area” does not necessarily mean the value of the area by multiplying the length dimensions (square meters, etc.) It is not limited to the case of calculating, but also includes holding the size information of the vertical and horizontal (two orthogonal sides) in pairs. The same applies to “volume”, and includes holding the size information of the three orthogonal sides in pairs.

  Furthermore, when the arrangement positions of large and small building elements overlap, the totaling means 61 is obtained by performing conversion calculation using the coordinate data received by the building element registration / placement means 50 for the larger building element. From the actual length M (large), the actual area T (large), or the actual volume V (large), using the coordinate data received by the building element registration / placement means 50 for the smaller building element By subtracting the actual length M (small), the actual area T (small), or the actual volume V (small) obtained by conversion, the occupancy part of the smaller building element is excluded. The length M, the area T, or the volume V according to the actual dimensions of the larger building element can be calculated. That is, M = M (large) -M (small), T = T (large) -T (small), and V = V (large) -V (small) can be calculated.

  For example, when the arrangement position of a wall and the arrangement position of a fitting (or opening for fittings) provided on this wall overlap, the wall in a state where the opening for fitting is provided as follows It is possible to calculate the length M or the area T according to the actual dimensions. When the height of the wall and the height of the opening of the joinery can be handled as the same dimension H, the length M (large) of the wall (the wall without the opening), the length of the opening for the joinery Since the length M of the wall in which the opening for joinery is provided using M (small) can be calculated by M = M (large) −M (small), then this length M Further, by multiplying the height H, which is numerically input as non-coordinate data, the area T of the wall in the state where the opening for the fitting is provided can be calculated. On the other hand, when the height H (large) of the wall is different from the height H (small) of the opening of the joinery, the length M (large) of the wall (the wall without the opening) is not coordinated. By multiplying the wall height H (large), which is numerically input as data, the area T (large) of the wall without the opening for the joinery is calculated, and the length of the opening for the joinery is calculated. By multiplying M (small) by the height H (small) of the opening of the joinery that is numerically input as non-coordinate data, the area T (small) of the opening for joinery is calculated. The area T of the wall in the state where the opening is provided can be calculated by T = T (large) −T (small).

  Next, the length M, Ma, the area T, Ta, or the volume V based on the actual dimensions obtained by the conversion calculation using the conversion information (conversion ratio K) as described above by the counting means 61, or the designation The member name (member identification information) of the member to be used is the length, area, or volume of each component member (each member used to constitute the building element) calculated or determined according to the arranged method. ) Is divided by the member single unit specification information Q (m, square meter, standing rice) stored in the member data storage means 71 (see FIG. 2), or by performing an operation equivalent to division, the member to be used (Quantity) (estimated quantity X, execution quantity E) is calculated. In addition, in the above, when the length, area, or volume of a building member becomes the length, area, or volume of a structural member as it is (designated as such in the arrangement method), The length, area, or volume may be divided by the member single unit specification information Q. On the other hand, the length, area, or volume of the building member does not directly become the length, area, or volume of the constituent member (arrangement) If the length, area, or volume of each component of the building element calculated or determined according to the specified arrangement method is divided by the component single unit specification information Q, Good.

  For example, the quantity (estimated quantity X, execution quantity E) is calculated by dividing the lengths M and Ma (m) according to actual dimensions by the member single unit specification information Q (m) which is the length per member. can do. Also, the quantity (estimated quantity X, execution quantity E) is calculated by dividing the area T, Ta (square meter) by actual dimensions by the member single unit specification information Q (square meter) which is the area per member. Can do. Further, the quantity (estimated quantity X, execution quantity E) can be calculated by dividing the volume V (rice) by actual dimensions by the member single unit specification information Q (rice) that is the volume per member. .

  If the lot data is stored in the member data storage unit 71 (see FIG. 2), the quantity (estimated quantity X, execution quantity E) calculated as described above is used for the lot unit. Convert to quantity (dozens, boxes, etc.). For example, if the quantity (estimated quantity X, execution quantity E) calculated as described above is 28 and the lot unit is a dozen (12), 28 ÷ 12 = 2.3. Since 3 dozen members are required, the quantity (estimated quantity X, execution quantity E) is set to 3 dozens or 36 (3 × 12).

  Subsequently, the estimated unit price Y stored in the member data storage unit 71 (refer to FIG. 2) and the execution amount are executed on the quantity (number) (estimated quantity X, execution quantity E) calculated as described above by the totaling means 61. By multiplying the unit price (cost) F, the estimated amount Z and the execution amount G for the member to be used are calculated. Further, the totaling means 61 calculates the gross profit rate from the estimated amount Z and the execution amount G by the calculation formula of (Z−G) / Z. The symbols such as Y and F used here correspond to FIG.

  Then, the data (estimated unit price Y, execution unit price F, unit U, etc.) and the calculated data (quantity X, E, estimated amount Z, execution amount G, gross profit rate P) obtained from the member data storage unit 71 by the totaling unit 61 are obtained. ) Is stored in the total data storage means 80 (see FIG. 2).

  For virtual members (for example, “unloading cost”), the totaling means 61 obtains an accumulation basis for the virtual members stored in the member data storage means 71 (see FIG. 2) and follows the accumulation basis. , Calculating or obtaining a ground amount R (for example, each value of construction area, excavation volume, veranda area, etc. of 2F or more) related to the accumulation basis, and adding the calculated or obtained ground amount R to the member Estimated unit price Y and execution unit cost F of the virtual member stored in the data storage means 71 (see FIG. 2) (for example, price per unit length, price per unit area, price per unit volume, etc.) ) To calculate the work cost (estimated amount Z and execution amount G) for the virtual member. At this time, the counting means 61 receives the coordinate data or non-coordinate data received by the building element registration / placement means 50 and stored in the placement data storage means 79 (see FIG. 2) or the building summary input means 34. By executing calculation processing using non-coordinate data (floor height, etc.) stored in the building summary storage means 76 (see FIG. 2), or data acquisition processing from these storage means 79, 76, it is The basis amount R (for example, each value of 2F or more construction area, excavation volume, veranda area, etc.) such as length, area, volume, etc. is calculated or acquired.

  For example, the member data for the virtual member having the member name “unloading cost” (“crane usage fee etc.”) may be stored in the member data storage means 71 (see FIG. 2). Suppose that the basis for accumulating is “2F or more construction area”. This is because the “unloading cost” is the cost of raising the component to the second floor or higher, and the cost of “unloading cost” (estimated amount Z and execution amount G) with the size of the construction area (basic amount R) of 2F or more It means that the size of is determined. In addition, when it is considered that the cost generated in the work is not considered as a member but the work that generates the cost is considered as a member, the name of the member such as “unloading cost” or “crane usage fee” is “unloading cost”. ”,“ Unloading work ”,“ working crane etc. ”, etc., and the user is free to name the component names.

  At this time, the area of each room on the second floor (each room is registered and arranged as a section which is a building element) stored in the arrangement data storage means 79 (see FIG. 2) by the counting means 61. Are calculated, the value of the construction area (basis amount R) of 2F or more is calculated. Here, the area of each room (each section) on the second floor is calculated using coordinate data (closed drawing line or coordinate data forming a drawing section) obtained by a drawing operation at the time of partition placement. If the calculated construction area value of 2F or more is R (square meter), the estimated unit price of work is Y (yen / square meter), and the execution unit price of work is F (yen / square meter), The estimated work amount Z is Z = R × Y (yen), and the work execution amount G is G = R × F (yen). The estimated unit price Y and the execution unit price F are prices determined in special units such as the price per 10 square meters (yen / 10 square meters), the price per 5 square meters (yen / 5 square meters), etc. If so, a special unit such as 10 square meters or 5 square meters may be stored as the single unit specification information Q. In this case, division by the single unit specification information Q is performed to estimate the work amount. Z is Z = (R / Q) × Y (yen), and the work execution amount G is G = (R / Q) × F (yen).

  <Form creation (display / print): FIG. 22>

  Then, the form creation means 62 of the integration means 60 creates various construction-related forms such as an estimate and a cost calculation sheet, or a part thereof, and performs a process of displaying or printing (step S13).

  When a transition is made from the menu screen 100 (see FIG. 4) to the display screen of each form such as the cost accounting document screen 175 (see FIGS. 4 and 22), the “automatic counting” button is pressed, and the processing by the counting means 61 is performed. When finished, the form creation means 62 displays the calculation results (calculated quantity, amount, etc.) by the counting means 61 on the screen. Also, once returning to the menu screen 100 (see FIG. 4), for example, when the cost accounting document screen 175 of FIG. 22 is redisplayed, the processing by the counting means 61 has already ended, and the counting data storage means 80 (FIG. 2). Since the data calculated by the counting means 61 is stored in the reference), the calculation result is displayed on the cost calculation document screen 175 by the form creation means 62 using the data.

  When the user presses the “print” button on the cost accounting screen 175 in FIG. 22, the cost accounting document displayed on the cost accounting screen 175 (numerical values such as the calculated quantity and amount) is displayed. Data for printing a cost calculation sheet similar to the cost calculation sheet in the state is output to the printing device 93 by the form creation means 62, and the form is printed.

  The same applies to the case where the estimate screen 173 (see FIG. 4) is displayed and printed in place of the cost calculation screen 175 of FIG. 22, and the processing by the totaling means 61 has already been completed and the total data storage means 80 ( If the data calculated by the totaling means 61 is stored in FIG. 2), the form creation means 62 displays numerical values such as quantity and amount on the estimate screen 173 using the data. The same applies when the “print” button on the estimate screen 173 is pressed, and the estimate displayed on the estimate screen 173 (estimate in a state in which numerical values such as calculated quantities and amounts are displayed) Similar print data for the estimate is output to the printing device 93 by the form creation means 62, and the form is printed. The estimate screen 173 (see FIG. 4) displays the estimated quantity X, the estimated unit price Y, and the estimated amount Z, but not the execution quantity E, the execution unit price F, the execution amount G, and the gross profit rate P. Therefore, the original data used to create the form is the same as that in the case of the cost accounting document, and is data stored in the total data storage unit 80 (see FIG. 2). In addition, regarding the other forms among the various forms 171 to 178, the total data storage means 80 (see FIG. 2) stores numerical values such as the amount and amount to be displayed and printed. Data is used.

  Furthermore, in the cost calculation screen 175, the estimate screen 173 (see FIG. 4), and other screens on which calculated numerical values such as quantities and amounts are displayed, the numerical values such as quantities and amounts may be corrected. it can. The input of the correction data is accepted by the form creation unit 62 in each of the screens 171 to 178, and the contents of the data stored in the total data storage unit 80 (see FIG. 2) are rewritten. However, once the data is fixed, only the user having the authority to correct can perform the correction work. In this way, when the correction is made, the contents of the data stored in the total data storage means 80 (see FIG. 2) are rewritten. Therefore, if the numerical value such as the quantity or the amount is corrected in a certain form, the correction is , It is also reflected in another form. Since there is such a function, in the cost calculation screen 175, the estimate screen 173 (see FIG. 4) in FIG. 22, and other screens in which numerical values such as quantity and amount are displayed, the quantity and amount etc. The user can manually input everything from a state in which no numerical value is input.

  For information other than numerical values such as quantities and amounts on the screens 171 to 178, for example, the address and sender of each form, the form creation means 62 uses the company information storage means 72, the supplier information storage means 74, and the order. Obtained from the pre-storage means 75 (see FIG. 2), printed and displayed. For example, the address of the purchase order is stored in the order storage unit 75 because the correspondence between the corresponding construction and the supplier (supplier) that is the order is stored. The supplier (namely, the supplier (vendor)) to which the purchase order is addressed is determined, and information such as the address of the supplier (supplier) is acquired from the supplier information storage means 74. Further, since the sender of the purchase order is a company to which the user belongs, information such as the address of his company is acquired from the company information storage means 72. Further, the address of the estimate or bill may be manually input by the user, or may be acquired from the building outline storage means 76 (see FIG. 2).

  <Overall flow of form creation processing shown in specific numerical examples>

  The form creation process (see FIG. 3) is performed by the building integration system 10 as described above. The overall flow of the form creation process is shown as a specific numerical example as follows. Here, as an example, a case will be described in which building element type information = “wall” and building element identification information (individual name of building element) = “outer wall heat insulation” is registered.

  First, in FIG. 5, it is assumed that designation input of two coordinate positions 132A and 132B is performed by a pointing operation such as a click operation, and the interval between these two coordinate positions 132A and 132B is 1,274 pixels. . Then, it is assumed that a designation input of 12,740 mm is made as an actual dimension between two points on the scale input screen 133 in FIG. At this time, the conversion information storage means 78 stores conversion ratio K = actual dimension / coordinate dimension = 12,740 (mm) / 1,274 (pixel) = 10 (mm / pixel) as conversion information. Is done. As described above, the definition of the conversion ratio K may be the reciprocal number, or the ratio of 12,740 (mm): 1,274 (pixel) is maintained instead of the value of the ratio (a state in which the fraction is digitized). The state conversion information may be stored.

  Further, it is assumed that member data having a member name “bevel board 12.5 3 × 9” is stored in the member data storage unit 71. For this 12.5 mm thick bevel board (gypsum board whose edge is chamfered), the size of one member (single member) is 3 × 9, that is, 910 (mm) Since it is × 2,730 (mm), the member data storage means 71 stores area information of 910 (mm) × 2,730 (mm) as member single unit specification information, and the estimated unit price = 700 yen. Suppose that the execution unit price (cost) = 650 yen and the unit = square meter are stored.

  Next, in FIG. 9, a wall named “outer wall heat insulation” is registered on the wall registration screen 143. At this time, among the members displayed on the member selection screen 160, the member having the member name “bevel board 12.5 3 × 9” (however, not shown in the member selection screen 160 of FIG. 9). ), And as the method of arrangement of the member, select “same area” indicating that it is arranged in the same area as the building element to be registered (here, the wall named “outer wall heat insulation”). Is added and displayed on the wall registration screen 143. Therefore, as shown in FIG. 9, the wall registration screen 143 displays the member name = “bevel board 12.5 3 × 9” and the arrangement method (arrangement method) = “same area”. A member named “Bellboard 12.5 3 × 9” is registered as a constituent member of the wall named “outer wall heat insulation”, and the building element registration unit 51 stores it in the arrangement data storage unit 79 (see FIG. 2). Will be remembered.

  Then, in FIG. 10, a wall (architectural element) having the name “outer wall heat insulation” is selected on the wall arrangement screen 144 and a drawing operation such as a click operation is performed on the design drawing displayed on the screen. Place the wall named “Outer Wall Heat Insulation”. In this drawing operation, it is assumed that a drawing line of 910 pixels indicating a wall named “outer wall heat insulation” is drawn along a line on the design drawing. Further, the height of the wall named “outer wall heat insulation” is numerically input in the “detail setting” on the wall arrangement screen 144 of FIG. 10, or the height of the first floor stored in the building outline storage means 76 or The height dimension derived from the height of the first floor is used as the height of the wall named “outer wall heat shield”, and the height of the wall named “outer wall heat shield” is 2,730 ( mm) or less. At this time, 910 pixels indicating the length of the wall named “outer wall heat insulation” (length in the horizontal plane) are arranged as coordinate data designated and input by the building element arrangement means 52 in the drawing operation, as arrangement data storage means 79 ( (See FIG. 2). In addition, when numerically inputting the height of the wall on the wall arrangement screen 144 of FIG. 10, the height of the wall having a dimension of 2,730 (mm) or less is also stored in the arrangement data storage means 79 as non-coordinate data. Remembered.

  After that, the totaling means 61 of the integrating means 60 was obtained by the drawing operation using the conversion ratio K = 10 (mm / pixel) which is the conversion information stored in the conversion information storage means 78 (see FIG. 2). When 910 pixels are converted into actual dimensions, the actual length (length in the horizontal plane) = 910 pixels × 10 (mm / pixel) = 9,100 (mm) for the wall named “outer wall heat insulation”. Also, the height of the wall named “outer wall heat insulation” = 2,730 (mm) or smaller is obtained as non-coordinate data.

  Here, the member named “Bevelboard 12.5 3 × 9”, which is a component of the wall (architectural element) named “outer wall heat insulation”, is the wall (architecture) named “outer wall heat insulation”. Since the arrangement method of “element area” and “same area” is selected, the member named “bevel board 12.5 3 × 9” is also the same as the wall named “outer wall heat insulation” , 9,100 (mm) × {2,730 (mm) or smaller dimensions}.

  Therefore, since the area information of 910 (mm) × 2,730 (mm) is stored as the member single unit specification information in the member data storage means 71, the wall named “outer wall heat insulation” has a height of Since the dimension is 2,730 (mm) or less, the size can be accommodated by one bevel board, while the horizontal direction is 9,100 (mm). By dividing by 910 (mm), it can be seen that the size is 10 sheets. By executing such calculation processing by the counting means 61 of the integrating means 60, the required number (quantity) of bevel boards = 10 sheets can be calculated. Thereby, on the cost accounting document screen 175 of FIG. 22, the estimated quantity X = 10 sheets and the execution quantity E = 10 sheets are displayed for the member having the member name “bevel board 12.5 3 × 9”.

  In addition, when storing the area information of 910 (mm) × 2,730 (mm) as described above, for example, as the member single unit specification information in the member data storage unit 71, the member has directionality, If a member cannot be placed vertically and horizontally reversed (with the height direction and the horizontal direction reversed), any dimension is a horizontal dimension and any dimension is a height dimension. The direction information indicating whether or not is stored together. The order in which the dimensions are arranged may be used as direction information. On the other hand, when the member can be placed with its members reversed vertically and horizontally (with the height direction and the horizontal direction reversed), the counting unit 61 of the accumulating unit 60 sets the members vertically or horizontally. It is determined which arrangement is advantageous, and the necessary quantity (number) is calculated. That is, a determination is made to reduce the required quantity (number). At this time, the required quantity (number) may be calculated for both the case of arranging vertically and the case of arranging horizontally, and the smaller necessary quantity (number) may be adopted.

  Further, since the estimated unit price = 700 yen and the execution unit price (cost) = 650 yen are stored in the member data storage means 71, the estimated amount = estimated unit price × estimated quantity (number of sheets) = 700 yen × 10 sheets = 7, 000 yen, execution price = execution unit price (cost) × execution quantity (number of sheets) = 650 yen × 10 sheets = 6,500 yen. Furthermore, from the estimated amount = 7,000 yen and the execution amount = 6,500 yen, by calculating (7,000 yen-6,500 yen) / 7,000 yen, gross margin = 7.1 (% ) Is calculated. As a result, in the cost accounting document screen 175 of FIG. 22, the estimated unit price Y = 700 yen, the execution unit price (cost) F = 650 yen, the estimated amount for the member with the member name “bevel board 12.5 3 × 9” The display is Z = 7,000 yen, the execution amount G = 6,500 yen, and the gross profit rate P = 7.1 (%). The unit U = “square meter” is displayed.

  According to this embodiment, there are the following effects. That is, the building integration system 10 accepts a drawing line or drawing section input operation (drawing operation such as a trace) along a line indicating a building element by the user on the design drawing displayed on the screen. The length M, Ma, area T, Ta, or volume V according to the actual dimensions of the building element is calculated from the designated coordinate data by performing a conversion operation, and the length M, obtained by the conversion calculation is calculated. Using Ma, area T, Ta, or volume V, and member single unit specification information Q (m, square meter, standing rice) of the member used stored in member data storage means 71 (see FIG. 2), Quantity (number) X, E can be calculated. Note that the symbols M, Ma, T, Ta, V, and Q are the same as those in the description of the processing flow using FIG. 3, and the symbols X and E are the same as those in FIG.

  Therefore, when the user performs a simple drawing operation (drawing operation such as tracing) on the design drawing displayed on the screen, the quantity (number) of members necessary for integration for estimation and cost calculation X, E The quantity (number) X, E and the unit price Y. stored in the member data storage means 71 (see FIG. 2) can be obtained. Since the amounts of money Z and G for the members used can be calculated by F, it is possible to automatically create a construction-related form such as an estimate or a cost calculation sheet or a part thereof. Note that symbols such as X and E are the same as those in FIG.

  For this reason, since the user's operation is mainly a drawing operation, it is possible to reduce the time and effort of the user (constructor or the like) and to shorten the work time. In addition, this drawing operation is a simple operation of drawing a drawing line along a line indicating a building element on the design drawing displayed on the screen or forming a drawing section surrounded by this drawing line. Occurrence of work mistakes can also be suppressed. Furthermore, instead of using numerical data that is CAD design data, image data of a design drawing (including image data output from a CAD system and image data generated by reading a design drawing with a scanner) is read. Since it is used, a simple and inexpensive system can be realized.

  Further, the counting means 61 of the integrating means 60 is used when the arrangement position of the wall and the arrangement position of the fittings provided on the wall overlap, or when the arrangement positions of other large and small building elements overlap (for example, the roof and the skylight) For the larger building element, the length M (large) and the area T (large) obtained by conversion calculation using the coordinate data received by the building element registration / placement means 50 for the larger building element Alternatively, from the volume V (large), the length M (small) and the area T (small) obtained by converting the smaller building element using the coordinate data received by the building element registration / placement means 50 are calculated. ), Or by subtracting the volume V (small), the length M, the area T, or the volume V according to the actual dimensions of the larger building element in a state excluding the occupied portion of the smaller building element is calculated. Can That.

  Therefore, when performing a drawing operation on a larger building element (for example, a wall), the user does not consider the presence of a smaller building element (for example, a fitting or an opening of a fitting), that is, The operation can be performed without worrying about the size and arrangement position of the smaller building element (for example, the joinery or the opening of the joinery), and it is possible to further reduce the labor of the user and the work time. it can.

  In addition, the building integration system 10 accepts selection input of the arrangement method of the member (member constituting the building element) as an object, and performs integration according to the arrangement method selected and input by the user. It is possible to deal with various member arrangements. That is, a member (a member constituting a building element) as an object may be arranged in the same state as the building element, or may not be arranged in the same state, but also corresponds to a case where the member is not arranged in the same state. Can do.

  Furthermore, in the building integration system 10, since the work that generates the cost is registered as a virtual member and the integration is performed, not only the integration by the member as the object but also the operation (especially the cost is generated separately from the price of the member itself). Work) can also be accumulated. For this reason, when integration is performed in conjunction with the CAD system as in the prior art, if there is no member as an object, the necessary cost cannot be reflected in the integration. By registering the work that occurs as a virtual member as a virtual member, the necessary cost can be reflected in the integration even if there is no member as an object, so that the usefulness of the integration can be improved.

  Further, the calculation processing of the amount of money for the work related to the virtual member is executed by a calculation method predetermined by the system corresponding to the accumulation basis stored in the member data storage means 71 (see FIG. 2) for the virtual member. Therefore, when calculating the amount of money for the work, it is not necessary to perform selection input of an arrangement method as in the case of a member as an object, and an arithmetic process independent of the arrangement can be realized.

  Note that the present invention is not limited to the above-described embodiment, and modifications and the like within a scope where the object of the present invention can be achieved are included in the present invention.

  For example, the building integration system 10 of the above-described embodiment has been described as a stand-alone system mainly configured by one computer, but the building integration system of the present invention is not limited to this, and a server -It is good also as a structure implement | achieved by communication as a client-type system. The distribution of each function of the present invention to the server and the client in the case of a server / client type system is arbitrary, but at least the accepting process of the drawing operation by the user on the design drawing displayed on the screen or a part thereof This is performed at the client terminal operated by the user. On the other hand, in order to allow a plurality of users to perform drawing operations on their client terminals, each data stored in the storage unit 70 of the previous embodiment is preferably stored on the server side. Moreover, you may implement | achieve the building integration system of this invention as what is called ASP service (service provided by an application service provider).

  As described above, the building integration system and program according to the present invention include, for example, estimates, cost calculations, and execution budgets for various buildings that are constructed after creating a plan such as a floor plan showing a floor plan. It is suitable for use when creating construction-related forms such as purchase orders, invoices, or parts thereof.

DESCRIPTION OF SYMBOLS 10 Architectural integration system 40 Conversion information setting means 50 Architectural element registration / placement means 60 Accumulation means 71 Member data storage means

Claims (3)

By a computer that creates a quote or part of a building with walls, joinery, foundations, roofs, and other building elements, a cost statement or part thereof, or other building-related forms or part thereof It is a constructed building accumulation system,
The unit price of the member constituting the building element, and the length, area, or volume of the member alone, or the length, area, or volume of the building element that the member can constitute alone Member data storage means for storing member single unit specification information indicating a value in association with member identification information;
The plan view showing the floor plan or other design drawing is read and the design drawing is displayed on the screen, and the user inputs and designates the coordinate positions of two points on the design drawing displayed on the screen. Conversion information setting for executing processing for receiving setting input of conversion information between dimensions on screen display coordinates for the design drawing and actual dimensions by receiving input of numerical values indicating actual dimensions between two points Means,
Use member selection reception processing for receiving a selection input of a member used to configure the building element by a user from among members stored in the member data storage means, and further using the image data A design drawing is displayed on the screen, and a drawing line input operation along a line indicating the building element by the user on the design drawing displayed on the screen or an input operation of a drawing section formed by the drawing line As the non-coordinate data not specified by the input operation of the drawing line or the drawing section, in addition to the use member selection receiving process and the drawing receiving process, which receives the input of the coordinate data specified in Architectural element registration / placement for executing non-coordinate data reception processing for receiving input of numerical data related to the building element by the user And the stage,
The coordinate data received by the building element registration / arrangement unit and the conversion information received by the conversion information setting unit are used, or in addition to the coordinate data and the conversion information, accepted by the building element registration / arrangement unit. In addition, using the non-coordinate data, the length, area, or volume according to the actual dimensions of the building element is calculated and converted, and the length, area, or volume obtained by the conversion calculation is used for the member to be used. By dividing by the member single unit specification information associated with member identification information and stored in the member data storage means, or by performing an operation equivalent to division, the quantity for the member to be used is calculated, and the calculated quantity is The amount of the member to be used is calculated by multiplying the unit price stored in the member data storage means, and the calculated quantity And using the amounts, the quote or a part thereof, and a integrating means for executing the cost statement or a portion thereof, or other of the construction-related document or to create a part of the process,
The building element registration / placement means is:
As the non-coordinate data, it is also configured to execute a process of accepting a selection input by a user regarding an arrangement method when arranging the members constituting the building element on the building element. At this time, the user about the arrangement method As options, “same length” indicating that the building element is arranged with the same length, “same width” indicating that the building element is arranged with the same width, and the same height as the building element. “Same height” indicating that the building element is arranged, “peripheral length” indicating that the building element is arranged with the circumference of the building element, “side area” indicating that the building element is arranged with a side area of the building element, and the building element “Same area” indicating that the building elements are arranged in the same area, “Same volume” indicating that the building elements are arranged in the same volume, and “Long” indicating that the building elements are arranged in the length direction pitch designation. Pitch finger ”,“ Width direction pitch designation ”indicating that the building element is arranged with a width direction pitch designation,“ height direction pitch designation ”indicating that the building element is arranged with a height direction pitch designation, and Options including “area pitch designation” indicating that the building element is designated by area pitch designation and “volume pitch designation” indicating that the building element is designated by volume pitch designation are prepared,
The integrating means includes
Length, area, or volume according to actual dimensions of the building element, and length and area of members used to construct the building element using the arrangement method received by the building element registration / arrangement means Or calculate or determine the volume, and divide the calculated or determined length, area, or volume by the member single unit specification information stored in the member data storage means in association with the member identification information about the member to be used. A building integration system characterized by being configured to execute a process of calculating a quantity for a member to be used by performing an operation equivalent to division or division . By a computer that creates a quote or part of a building with walls, joinery, foundations, roofs, and other building elements, a cost statement or part thereof, or other building-related forms or part thereof It is a constructed building accumulation system,
The unit price of the member constituting the building element, and the length, area, or volume of the member alone, or the length, area, or volume of the building element that the member can constitute alone Member data storage means for storing member single unit specification information indicating a value in association with member identification information;
The plan view showing the floor plan or other design drawing is read and the design drawing is displayed on the screen, and the user inputs and designates the coordinate positions of two points on the design drawing displayed on the screen. Conversion information setting for executing processing for receiving setting input of conversion information between dimensions on screen display coordinates for the design drawing and actual dimensions by receiving input of numerical values indicating actual dimensions between two points Means,
Use member selection reception processing for receiving a selection input of a member used to configure the building element by a user from among members stored in the member data storage means, and further using the image data A design drawing is displayed on the screen, and a drawing line input operation along a line indicating the building element by the user on the design drawing displayed on the screen or an input operation of a drawing section formed by the drawing line As the non-coordinate data not specified by the input operation of the drawing line or the drawing section, in addition to the use member selection receiving process and the drawing receiving process, which receives the input of the coordinate data specified in Architectural element registration / placement for executing non-coordinate data reception processing for receiving input of numerical data related to the building element by the user And the stage,
The coordinate data received by the building element registration / arrangement unit and the conversion information received by the conversion information setting unit are used, or in addition to the coordinate data and the conversion information, accepted by the building element registration / arrangement unit. In addition, using the non-coordinate data, the length, area, or volume according to the actual dimensions of the building element is calculated and converted, and the length, area, or volume obtained by the conversion calculation is used for the member to be used. By dividing by the member single unit specification information associated with member identification information and stored in the member data storage means, or by performing an operation equivalent to division, the quantity for the member to be used is calculated, and the calculated quantity is The amount of the member to be used is calculated by multiplying the unit price stored in the member data storage means, and the calculated quantity And using the amounts, the quote or a part thereof, and a integrating means for executing the cost statement or a portion thereof, or other of the construction-related document or to create a part of the process,
In the member data storage means,
In addition to member data on members as objects constituting the building elements, member data on virtual members that do not constitute the building elements determined by regarding work generating costs as members are stored. In addition to the unit price of work, the component data for includes the basis for calculating work cost,
The integrating means includes
The amount of work for the virtual member is calculated using a unit price of the work by a predetermined calculation method corresponding to the accumulation basis for the virtual member stored in the member data storage means. A construction integrating system characterized by being configured to execute processing . As a building integrated system according to claim 1 or 2, a program for causing a computer to function.

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