JP2010286941A - Environmental performance evaluation system and environmental performance index calculation program - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an environmental performance evaluation system for appropriately and objectively evaluating an influence to be given to environmental performance by design specifications applied to a skeleton. <P>SOLUTION: The environmental performance evaluation system S to be used in evaluating the environmental performance of the skeleton includes: an emission calculation means 31 for calculating carbon dioxide emission m<SB>i</SB>(=a<SB>i</SB>×b<SB>i</SB>) of each material by multiplying carbon dioxide emission unit requirement a<SB>i</SB>of materials by quantity b<SB>i</SB>of the materials, and for calculating total emission M(=Σm<SB>i</SB>) by totaling them; a unit emission calculation means 32 for calculating unit emission Y(=M/D) by multiplying the inverse number of durable years D by the total emission M; a total score calculation means 33 for calculating total scores X(=Σx<SB>i</SB>) by totaling environmental consideration scores x<SB>j</SB>corresponding to design specifications; and an environment determination value calculation means 34 for calculating an environmental determination value V(=X/Y) by multiplying the inverse number of the unit emission Y by the total scores X. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

  The present invention relates to an environmental performance evaluation system and an environmental performance index calculation program used for evaluating the environmental performance of a structural enclosure.

The amount of carbon dioxide discharged from the construction of the building to demolition (hereinafter referred to as "LCCO ₂ emissions" that.) Is calculated and, LCCO ₂ emissions after the design change and LCCO ₂ emissions, such as before the design changes and the like and Patent Document 1 discloses a method for supporting architectural design by comparing the above.

  As a system for comprehensively evaluating the environmental performance of buildings, an environmental performance evaluation system disclosed in Non-Patent Document 1 is known. In this environmental performance evaluation system, the value (Q value) obtained by evaluating the “environmental quality / performance of the building” is divided by the value (L value) obtained by evaluating the “external environmental load of the building”. Thus, an index of “environmental performance efficiency” is calculated, and the environmental performance of the building is rated based on the obtained index.

JP 2004-265178 A

“Building Environment Comprehensive Evaluation System”, [online], Building Environment and Energy Conservation Organization, [Search May 12, 2009], Internet <http://www.ibec.or.jp/CASBEE/index.htm >

Of the building components (for example, buildings, equipment, landscapes, etc.), the LCCO ₂ emissions of the buildings are about 10% of the LCCO ₂ emissions of the entire building, but are not negligible. It is desirable to appropriately evaluate the LCCO ₂ emissions of the chassis in each phase of basic design and implementation design and reflect them in the structural design and construction plan.

  However, the environmental performance evaluation system of Non-Patent Document 1 comprehensively evaluates the environmental performance of a building by evaluating various factors such as indoor environment (sound environment, thermal environment, etc.), functionality, and durability. There are very few evaluation items related to the chassis. That is, even if an attempt is made to evaluate the environmental performance of the chassis using the environmental performance evaluation system of Non-Patent Document 1, there is a possibility that the design specifications applied to the chassis cannot be reflected in the evaluation.

Further, in Patent Document 1, the LCCO ₂ emission amount is calculated by multiplying the quantity of members (materials) used in the casing by the basic unit. However, when the LCCO ₂ emission amount is calculated by paying attention only to the quantity, For example, there is a problem that the effect of extending the life of the housing, the effect of adopting an environment-friendly structure, and the like cannot be reflected.

  From this point of view, the present invention is an environmental performance evaluation system for a chassis used for evaluating the environmental performance of the chassis, and the design specifications applied to the chassis can be reflected in the evaluation of the environmental performance. Another object of the present invention is to provide an environmental performance evaluation system for a cabinet, and further to provide an environmental performance index calculation program for calculating an index for evaluating the environmental performance of the chassis.

The environmental performance evaluation system according to the present invention that solves the above-mentioned problems is applied to “a carbon dioxide emission basic unit of a material that may be used for a housing”, “a useful life according to a use of a building”, and “a housing. Storage means for storing “environmental consideration score of design specifications that may be applied”, “quantity of materials used for evaluation target enclosure for which environmental performance is to be evaluated”, “use of building related to said evaluation target enclosure ”And“ design specifications to be applied to the evaluation target enclosure ”, the carbon dioxide emission basic unit a _i stored in the storage unit, and the material input via the input unit Multiply the quantity b _i to calculate the carbon dioxide emission m _i (= a _i × b _i ) for each of the plurality of materials, and add them to obtain the total emission M (= Σm _i ). Total emission calculation means to calculate The useful life D corresponding to the application input via the input means is extracted from the storage means, and the reciprocal of the extracted useful life D is multiplied by the total emission M to obtain the annual emission Y ( = M / D) annual emission calculation means for calculating, and environmental consideration score x _j corresponding to the design specification inputted via the input means is extracted from the storage means, and the extracted environmental consideration score x _The total score calculation means for calculating the total score X (= Σx _j ) by summing _j and the reciprocal of the annual emission amount Y and the total score X are multiplied to obtain the environmental judgment value V (= X / Y). And an environment judgment value calculating means for calculating.

  In short, the present invention is an environmental performance evaluation system used for evaluating the environmental performance of a skeleton (enclosure) among skeleton (enclosure) and infill (interior and equipment) constituting a building, By inputting the “quantity of materials used for the chassis”, “use of building” and “design specifications applied to the chassis to be evaluated”, an index (= environment judgment value) correlated with environmental performance is calculated. .

  The environmental performance of the enclosure to be evaluated depends on whether or not environmentally friendly design specifications have been adopted. Since the environmental judgment value is obtained by using the environmental consideration score (numerical value indicating the degree of environmental consideration) defined for each design specification, if the environmental judgment value is used as an evaluation standard for environmental performance evaluation, The contents of the design specifications can be reflected in the evaluation of environmental performance. If the target value of the environmental judgment value is set in advance, it is possible to evaluate the environmental performance with easy-to-understand indicators such as “rating” and “target achievement”.

  In addition, the data that should be entered at the minimum when calculating the environmental judgment values are “quantity of materials used for the evaluation target enclosure”, “use of building”, and “design specifications applied to the evaluation target enclosure”. Since such data can be grasped from the stage of the basic plan, the environmental performance evaluation system according to the present invention can also be used when making the basic plan. That is, according to the present invention, environmental performance can be easily and objectively evaluated not only at the basic design and implementation design stages but also at the basic planning stage.

The “carbon dioxide emission basic unit” is a kind of environmental load basic unit and is a term meaning “amount of carbon dioxide emitted when producing one unit of material”. For example, “the carbon dioxide emission basic unit of concrete is A (kg / m ³ )” means that “A (kg) of carbon dioxide is discharged when producing 1 (m ³ ) of concrete” Means that.

  The design specifications are contents (for example, material type, construction method, design method, reference value, etc.) to be observed in the design. There are no restrictions on the types of design specifications that should be given environmental considerations, but design specifications that are expected to affect environmental performance (for example, design specifications that contribute to longer life, design specifications that contribute to resource saving, and reuse) Environmentally friendly scores for design specifications related to (reuse), design specifications related to recycling (recycling), design specifications related to variability in use, design specifications that affect the quality of living, etc. Is desirable.

  When it is desired to calculate an environmental judgment value that more accurately reflects the characteristics of the use and the structure type, the “correction coefficient corresponding to the use type of the building and the structure type of the frame” is stored in the storage means, and the correction is performed. The environment determination value may be corrected with a coefficient. In this case, the environment determination calculation unit extracts the correction coefficient K corresponding to the application and the structure type input via the input unit from the storage unit, and extracts the extracted correction coefficient K and the annual emission amount Y. Is multiplied by the total score X to calculate the environment judgment value V (= K × X / Y).

  The environmental performance index calculation program according to the present invention that solves the above-described problems is obtained by using a computer, the storage unit, the input unit, the total emission calculation unit, the annual emission calculation unit, the total score calculation unit, and the environment determination. It is an environmental performance index calculation program for functioning as a value calculation means.

  According to the present invention, it is possible to reflect the contents of the design specifications applied to the evaluation target enclosure in the evaluation of environmental performance. Further, according to the present invention, it is possible to easily and objectively evaluate the environmental performance of the evaluation target enclosure in any of the phases of basic planning, basic design, and implementation design.

It is a functional block diagram of the environmental performance evaluation system which concerns on embodiment of this invention. It is a schematic diagram for demonstrating the content of the data stored in the basic unit file. It is a schematic diagram for demonstrating the content of the data stored in the useful life file. It is a schematic diagram for demonstrating the content of the data stored in the environmental consideration score file. It is a figure which shows the content of the information stored in the correction coefficient file. It is a figure which shows an example of the basic information input form for inputting the basic information of a building. It is a figure which shows an example of the quantity input form for inputting the quantity of the material used for the evaluation object housing. It is a figure which shows an example of the design specification input form for inputting the presence or absence of the design specification which contributes to lifetime improvement. It is a figure which shows an example of the design specification input form for inputting the presence or absence of the design specification which contributes to resource saving. It is a figure which shows an example of the design specification input form for inputting the presence or absence of the design specification regarding reuse. It is a figure which shows an example of the design specification input form for inputting the presence or absence of the design specification regarding recycling. It is a figure which shows an example of the design specification input form for inputting the presence or absence of the design specification regarding variability. It is a figure which shows an example of the design specification input form for inputting the presence or absence of the design specification which affects the quality of comfortability. It is a figure which shows an example of the evaluation sheet | seat which displays a calculation result. (A) And (b) is a figure which shows the example of a display of a calculation result. It is a figure which shows an example of an environmental load evaluation chart.

  The environmental performance evaluation system S according to the embodiment of the present invention is used when evaluating the environmental performance of a skeleton (frame) constituting a building. Each phase of the basic plan, basic design, and implementation design of the frame Can be used. Hereinafter, the chassis whose environmental performance is to be evaluated is referred to as an “evaluation target chassis”.

  As shown in FIG. 1, the environmental performance evaluation system S includes a storage unit 1, an input unit 2, an arithmetic processing unit 3, a display unit 4, and a bus line 5 connecting them to each other. It is configured.

  The storage unit 1 stores various programs and data, and includes an auxiliary storage including a main storage device such as a DRAM and a writable nonvolatile semiconductor memory (flash memory), a magnetic disk drive, an optical disk drive, and the like. And the device. In addition to the environmental performance index calculation program P for causing the computer C to function as the environmental performance evaluation system S, the storage means 1 includes the basic unit file 11, the useful life file 12, the environmental consideration score file 13, the correction coefficient file 14, and the results. A file 15 and the like are stored.

As shown in FIG. 2, the basic unit file 11 stores “carbon dioxide emission basic unit a _i ” corresponding to materials that may be used for the housing. Carbon dioxide emission intensity a _i is defined for each of a wide variety of materials. In the basic unit file 11 of the present embodiment, the carbon dioxide emission basic unit a _{i of} structural materials (for example, concrete, reinforcing bars, steel frames) that may be used for the frame, and the possibility of being used for the frame work Carbon dioxide emissions per unit _{ai of} temporary materials (such as formwork, supporters, curing materials, etc.) and carbon dioxide emissions of waste (such as excavated soil) that may be discharged in the frame construction Quantity unit a _{i and the} like are stored.

  As shown in FIG. 3, the service life file 12 stores “service life D” corresponding to the use of the building. In this embodiment, examples of “use” include “apartment house”, “office”, “commercial facility”, “accommodation facility”, “medical facility”, “school”, and “factory”. It can be changed. “Use” is the use at the time of completion (use planned in the basic plan of the building, etc.). In addition, the service life D may be determined in consideration of the number of years until the housing is deteriorated, the number of years until the equipment becomes obsolete, etc. May be used. The “lifetime D” shown in FIG. 3 is an example, and may differ from the actual life time.

As shown in FIG. 4, the environmental consideration score file 13 stores “environmental consideration score x _j ” of design specifications that may be applied to the chassis. An environmental consideration score _xj is defined for each of a wide variety of design specifications that are expected to affect environmental performance. In the present embodiment, environmental consideration scores are set according to the degree of contribution to the improvement of environmental performance.

  As shown in FIG. 5, the correction coefficient file 14 stores “correction coefficient K” corresponding to the use of the building and the structural type of the frame. The structure type is determined by the type or combination of structural materials. For example, S structure (steel structure), RC structure (reinforced concrete structure), SRC structure (steel reinforced concrete structure), and the like are representative examples.

  The input means 2 shown in FIG. 1 includes data necessary for evaluation of environmental performance (quantity of materials used for the evaluation target enclosure, building usage, structure type, design specification applied to the evaluation evaluation enclosure, and target of environmental judgment value. Value) is input to the arithmetic processing means 3, and is composed of a keyboard, a mouse, and the like. Data input to the computer C using the input means 2 (for example, data input to the input field displayed on the display means 4, data selected from the input candidate group displayed on the display means 4, etc. ) Is temporarily stored in the storage means 1 and then output to the arithmetic processing means 3.

  The arithmetic processing means 3 includes an MPU (microprocessor) that performs arithmetic processing. When the environmental performance index calculation program P stored in the storage means 1 is read out and executed in the MPU, the total emission amount calculating means 31, an annual emission amount calculating means 32, a total score calculating means 33, an environment judgment value calculating means 34, an evaluation sheet creating means 35, and the like.

The total emission calculating means 31 multiplies the carbon dioxide emission basic unit a _i stored in the basic unit file 11 by the quantity b _{i of} the material input via the input unit 2, and each of the plurality of materials. The amount of carbon dioxide emission m _i (= a _i × b _i ) is calculated for and the total emission amount M (= Σm _i ) is calculated. The obtained discharge amount _mi and the total discharge amount M are stored in the result file 15. That is, when the "quantity b _i" of the material c _i is inputted, the total discharge amount calculation means 31, the carbon dioxide emissions per unit corresponding to the material c _i from among the intensity file 11 (storing means 1) a a process of extracting a _i, performs a process of calculating the emissions _{m i,} n kinds of materials _{c 1, c 2,} ... _c emissions for _{n m 1, m 2,} if computed a ... _{m n} A process for calculating the total discharge amount M and a process for writing the total discharge amount M into the result file 15 (storage means 1) are executed.

  The annual emission amount calculation means 32 extracts the useful life D corresponding to the application input via the input means 2 from the useful life file 12, and the reciprocal (= 1 / D) of the extracted useful life D and the total Multiply the emission amount M to calculate the annual emission amount Y (= M / D). The obtained annual emission amount Y is stored in the result file 15. That is, the annual emission amount calculation means 32 extracts the useful life D corresponding to the input application from the useful life file 12 (storage means 1), and extracts the total emission M from the result file 15. A process of calculating the annual emission amount Y, and a process of writing the annual emission amount Y into the result file 15.

The total score calculation means 33 extracts the environmental consideration score x _j corresponding to the design specification input via the input means 2 from the environmental consideration score file 13 and totals the extracted environmental consideration score x _j A score X (= Σx _j ) is calculated. The obtained total score X is stored in the result file 15. That is, the total score calculation means 33 executes the process of extracting environmental considerations score x _j corresponding to the input design specifications w _j from the environmental considerations Score File 13 (storing means 1), n type design specifications When environmentally friendly scores x ₁ , x ₂ ,... x _n are extracted for w ₁ , w ₂ ,..., _n , a process for calculating the total score X and a process for writing the total score X to the result file 15 are executed. To do.

  It should be noted that the total score calculation means 33 of the present embodiment is a total score (long life evaluation score) of design considerations that contribute to “long life” and environmental considerations of design specifications that contribute to “resource saving”. Total score (score for resource saving), total score for environmentally friendly design for reuse (reuse) (reuse score), and environmentally friendly score for design for recycling (recycling) Total score (recycling evaluation score), total score for environmentally friendly design specifications related to “variability” (variable evaluation score), and total score for environmentally friendly design specifications that affect the quality of “liability” While performing the process which calculates (residence evaluation score), the process which writes the calculated evaluation score to the result file 15 is performed. In addition, after calculating the long life evaluation score, the resource saving evaluation score, the reuse evaluation score, the recycling evaluation score, the variability evaluation score, and the habitability evaluation score, these may be summed to obtain the total score X.

  The environment determination value calculation means 34 extracts the correction coefficient K corresponding to the application and the structure type input via the input means 2 from the correction coefficient file 14, and the reciprocal of the extracted correction coefficient K and the annual emission amount Y. By multiplying (= 1 / Y) and the total score X, the environment determination value V (= K × X / Y) is calculated. The obtained environment determination value V is stored in the result file 15. That is, the environment judgment value calculation means 34 extracts the correction coefficient K corresponding to the input application and structure type from the correction coefficient file 14 (storage means 1), and the annual emission amount from the result file 15. A process of reading Y and the total score X, a process of calculating the environment determination value V, and a process of writing the environment determination value V into the result file 15 are executed.

In addition, the environment determination value calculation unit 34 according to the present embodiment calculates the environment determination value V, reads the target value V ₀ of the environment determination value stored in the storage unit 1 in advance, and the environment determination value V A process for determining whether or not the value exceeds the target value V ₀ and a process for writing the determination result in the result file 15 are executed. Note that the target value V ₀ is determined in advance based on location conditions, client requests, laws and regulations, past cases, and the like, and is written in the storage unit 1 via the input unit 2.

  The evaluation sheet creation means 35 creates an evaluation sheet for displaying the evaluation result, and outputs the created evaluation sheet to the display means 3 (see FIG. 14). In other words, the evaluation sheet creating means 35 stores various data (use, structure type, useful life D, correction coefficient K, total emission amount M, annual emission amount Y, total score X, A process of reading out the environmental determination value V, etc., a process of creating image data that is the basis of the evaluation sheet based on the read information, and a process of outputting the created image data to the display means 4.

  The display unit 4 is a so-called display device, and displays an input form for assisting data input by the input unit 2, the contents of various files 11 to 15 stored in the storage unit 1, a chart representing the calculation result, and the like.

  In order to use such an environmental performance evaluation system S, the environmental performance index calculation program P may be activated. When the environmental performance index calculation program P is activated, the computer C functions as the environmental performance evaluation system S.

  When the environmental performance index calculation program P is started, various input forms as shown in FIGS.

  The basic information input form shown in FIG. 6 is an input form for inputting basic information (building name, usage, structure type, etc.) of a building (hereinafter referred to as “evaluation target building”) related to the evaluation target enclosure. . The basic information input form is provided with input fields 50, 51, 52 corresponding to the input items, and data input to the input fields 50, 51, 52 using the input means 2 is written into the result file 15. At the same time, it is displayed by the evaluation sheet creation means 35 in the building name display column 70, the usage display column 71 and the structure type display column 72 of the evaluation sheet (see FIG. 14).

  Data that can be entered in the input field 51 corresponding to “use” is displayed in, for example, a pull-down menu 51a. When the relevant use is selected from the pull-down menu 51a using the input means 2, the selected use is input field. 51 is input. When “use u” is input in the input field 51, the process by the annual emission amount calculation means 32 is executed, and the useful life D corresponding to the use u is extracted from the useful life file 12 (see FIG. 3). . More specifically, for example, when “Apartment” is selected from “Apartment”, “Office”, “Commercial Facility”, “Accommodation”, etc. displayed in the pull-down menu 51a, The useful life “60 years” corresponding to the “collective housing” is extracted from the year file 12. The extracted useful life D is written in the result file 15 and displayed in the useful life display column 73 of the evaluation sheet (see FIG. 14) by the evaluation sheet creating means 35.

  Further, data that can be input in the input field 52 corresponding to the “structure type” is displayed in the pull-down menu 52a. When the corresponding structure type is selected from the pull-down menu 52a, the selected structure type is input in the input field 52. Is done. When “structural type s” is input to the input field 52, processing by the environment judgment value calculating means 34 is executed, and correction corresponding to “use u” and “structural type s” input to the input fields 51 and 52 is performed. The coefficient K is extracted from the correction coefficient file 14 (see FIG. 5). More specifically, for example, “RC building”, “RC building”, and “SRC building” displayed in the pull-down menu 52 a in a state where “multi-family house” is input in the input field 51, “RC When “manufactured” is selected, the correction coefficient “1.2” corresponding to “collective housing” and “RC structure” is extracted from the correction coefficient file 14. The extracted correction coefficient K is written in the result file 15 and displayed in the correction coefficient display field 74 of the evaluation result display sheet (see FIG. 14) by the evaluation sheet creating means 35.

The quantity input form shown in FIG. 7 is an input form for inputting the quantity of material used for the evaluation target enclosure. The quantity input form displays a wide variety of materials (materials corresponding to the carbon dioxide emission basic unit a _i stored in the basic unit file 11) that may be used for the chassis. input field 53, 53 in order to enter a quantity _{b i,} ... are provided in. Information input to the input field 53 via the input unit 2 is stored in the storage unit 1. Note that the quantity b _i to be input in the input field 53 is calculated in advance based on the shape of the chassis obtained by the basic plan, basic design, or implementation design. In the present embodiment, the quantity converted per 1 m ² (value obtained by dividing the total amount by the total floor area) is input, but the total amount may be input.

When “quantity b _i ” is input to the input field 53, the processing of the total emission calculating means 31 is executed, and the carbon dioxide emission source of the material corresponding to the “input field 53 in which the quantity b _i is input”. The unit a _i is extracted from the basic unit file 11 (see FIG. 2), and the carbon dioxide emission basic unit a _i and the quantity b _i are multiplied to obtain the carbon dioxide emission m _i (= a _i × b _i ) is computed. The obtained discharge amount _mi is written into the result file 15 and displayed in the quantity display field 61 of the quantity input form. More specifically, for example, when a quantity “b ₁ ” is input to the input field 53 corresponding to “concrete (Portland) Fc24”, it corresponds to “concrete (Portland) Fc24” from the basic unit file 11. The carbon dioxide emission basic unit “a ₁ ” is extracted, the carbon dioxide emission amount “m ₁ ” is calculated (m ₁ = a ₁ × b ₁ ), and the carbon dioxide emission amount “m ₁ ” is obtained as the result file 15. And displayed in the quantity display field 61 of the quantity input form.

Further, when the emissions m _i is calculated by the total discharge quantity calculating means 31 is summed with other emissions m _i, total emissions M (= Σm _i) is calculated. The obtained total discharge amount M is written in the result file 15 and displayed in the total discharge amount display column 75 of the evaluation sheet (see FIG. 14) by the evaluation sheet creating means 35.

  When the total emission amount M is calculated, the processing of the annual emission amount calculating means 32 is executed, and the annual emission amount Y (= M / D) is calculated. The obtained annual discharge amount Y is written in the result file 15 and displayed by the evaluation sheet creation means 35 in the annual discharge amount display column 76 of the evaluation sheet (see FIG. 14).

The design specification input form shown in FIGS. 8 to 13 is an input form for inputting the design specification applied to the evaluation target chassis. The design specification input forms, if they are displayed a wide variety of design specifications (design specification corresponding to environmental considerations score x _i stored in the environmentally friendly Score File 13) inputs the presence or absence of applied per the design specifications Input fields 54, 54,. In the present embodiment, design specifications (see FIG. 8) that contribute to “long life” (see FIG. 8), design specifications (see FIG. 9) that contribute to “resource saving”, and design specifications that relate to “reuse (reuse)” ( 10), design specifications related to “recycling (recycling)” (see FIG. 11), design specifications related to “variability” of use (see FIG. 12), and design specifications affecting the quality of “liability” (see FIG. 10). Although the design specification input form is displayed every time (see FIG. 13), it may be changed as appropriate.

When the symbol “◯” indicating that the design specification is applied is input to the input field 54, the processing of the total score calculation means 33 is executed. That is, the environmentally friendly score x _j corresponding to the design specification to which “O” is input is extracted from the environmentally friendly score file 13 and further summed with other environmentally friendly scores x _j to obtain a total score X (= Σx _j ) is computed. The obtained total score X is written into the result file 15 and displayed in the total score display field 77 of the evaluation sheet (see FIG. 14) by the evaluation sheet creating means 35. More specifically, for example, in the design specification input form shown in FIG. 8, when “O” is entered in the input field 54 corresponding to the design specification “No rust prevention measures (RC construction / SRC construction)”, FIG. The environmental consideration score “8 points” corresponding to “No rust prevention measures (RC construction / SRC construction)” is extracted from the environmental consideration score file 13 shown in FIG. And the environmentally friendly score x _j corresponding to.

  In the present embodiment, the total score calculation means 33 uses the total life evaluation score that is the sum of the environmental consideration scores of the design specifications that contribute to “long life” and the environmental considerations of the design specifications that contribute to “resource saving”. The total of the resource conservation evaluation score, which is the total score, the reuse evaluation score, which is the total of the environmental consideration score of the design specification related to “reuse”, and the environmental consideration score of the design specification related to “recycling (reuse)” A recyclability evaluation score, a variability evaluation score that is the sum of environmental consideration scores for design specifications related to “variability”, and a habitability evaluation that is the sum of environmental consideration scores for design specifications that affect the quality of “liability” The score is also calculated. Each obtained evaluation score is stored in the result file 15 and is displayed by the evaluation sheet creation means 35 in the measure-specific score display fields 77a to 77f of the evaluation sheet (see FIG. 14).

  When the correction coefficient K, the annual emission amount Y, and the total score X are calculated, the process of the environment determination value calculation means 34 is executed, and the environment determination value V is calculated. The obtained environment judgment value V is stored in the result file 15 and is displayed in the environment judgment value display field 78 of the evaluation sheet (see FIG. 14) by the evaluation sheet creating means 35.

When the environment determination value V is calculated, the environment judgment value calculating means 34, the target value V ₀ from the storage unit 1 is read, whether the environment determination value V exceeds the target value V ₀ is determined The The determination result is displayed in the determination result display field 79 of the evaluation sheet (see FIG. 14) by the evaluation sheet creating means 35. If it is determined that it does not exceed the target value V ₀ , a design change for improving environmental performance (for example, change to a design specification with a high environmental consideration score x _j ) is made, and the design after the design change is made. The environment determination value V is calculated again using the specifications. By repeating such an examination, it is possible to provide a chassis having a high environmental performance (a chassis having a large environment determination value V).

Although illustration is omitted, the environmental performance may be evaluated by setting a plurality of target values V ₀ and performing “rating” according to the size of the environment determination value V.

  As described above, according to the environmental performance evaluation system S, the environment determination value V reflecting the contents of the design specification applied to the evaluation target chassis can be obtained, and therefore the contents of the design specification can be reflected in the evaluation of the environmental performance. it can. In particular, in the present embodiment, since the correction coefficient K correlated with the application and the structure type is used in calculating the environment determination value V, the environment determination value V that more accurately reflects the characteristics of the application and the structure type. Can be obtained.

  The data to be input when calculating the environment judgment value V includes the “quantity” of the material used for the evaluation target chassis, the “use” of the building related to the evaluation target chassis, the “structure type” of the evaluation target chassis, and the evaluation Since it is a “design specification” applied to the target chassis, such data can be grasped from the stage of the basic plan, so that the environmental performance evaluation system S can be used also when the basic plan is drawn up. That is, according to the environmental performance evaluation system S, it is possible to easily and objectively evaluate the environmental performance not only at the basic design and implementation design stages but also at the basic planning stage.

  In the present embodiment, the case where various types of data are input in the order of the basic information input form, the quantity input form, and the design specification input form is illustrated, but the data input order is not limited. The data input order may be changed as appropriate.

  In this embodiment, the case where only numerical values and characters are displayed on the evaluation sheet is illustrated (see FIG. 14), but the calculation result display method (presentation method) is not limited. The evaluation sheet creation means 35 is provided with a graph drawing function. For example, as shown in FIG. 15 (a), the evaluation score for each measure displayed in the evaluation score display fields 77a to 77e (see FIG. 14) is a graph. (The illustrated one is a radar chart).

  Further, as shown in FIG. 15B, the breakdown of evaluation scores for each countermeasure may be displayed on a graph. In FIG. 15B, the breakdown of the habitability evaluation score is displayed on the radar chart. The breakdown of the evaluation score for habitability is the total of environmentally friendly scores for the design specifications with “○” in the design specifications belonging to “6.1 Weight impact sound” in the design specification input form shown in FIG. Among the design specifications belonging to “6.2 vertical vibration”, the total of environmentally-friendly scores of the design specifications marked with “○”, and among the design specifications belonging to “6.3 Wind habitability”, “○ ”Of the design specifications with“ ”and the total environmental consideration scores of the design specifications with“ ○ ”among the design specifications belonging to“ 6.4 Floor acceleration during earthquake ”and“ 6 .5 Business Continuity ”is the total of environmentally friendly scores for design specifications with“ ○ ”.

  Further, in the present embodiment, the case where the environmental determination value V is calculated as an index for evaluating the environmental performance is exemplified, but it goes without saying that other evaluation indexes may be calculated.

For example, when the annual emission amount Y ₀ of carbon dioxide in a standard enclosure (hereinafter referred to as “reference annual emission amount Y ₀ ”) is stored in the storage means 1 in advance, the annual emission amount calculation means 32 In addition, a function of calculating a reduction rate R (= (Y / Y ₀ −1) × 100%) of carbon dioxide emission may be provided. The reduction rate R is stored in the result file 15. If the reduction rate R is seen, it can be objectively evaluated whether it is a housing which considered the reduction of the carbon dioxide emission amount.

Also, the total score for the function to calculate the “CO ₂ consideration score”, which is the total of “long life evaluation score”, “resource saving evaluation score”, “reuse evaluation score”, “recycling evaluation score” and “variability evaluation score” While being provided in the calculation means 33, the evaluation sheet creation means 35 may be provided with a function of drawing an environmental load evaluation chart for evaluating the environmental load. The CO ₂ consideration score is stored in the result file 15.

As shown in FIG. 16, the environmental load evaluation chart is such that one of the reduction rate R and the CO ₂ consideration score is on the horizontal axis and the other is on the vertical axis. The environmental load evaluation chart is divided into a plurality of areas (five in FIG. 16). Since each area corresponds to “levels 1 to 5” of the environmental load, “points (marks)” corresponding to the reduction rate R and the CO ₂ consideration score of the evaluation target enclosure are plotted on the environmental load evaluation chart. It is possible to rate the environmental load level of the evaluation target enclosure. In this case, the evaluation sheet creation means 35 reads the reduction rate R and the CO ₂ consideration score from the result file 15, extracts the environmental load evaluation chart, and the rate of reduction of the evaluation target enclosure on the environmental load evaluation chart. A process of plotting points 81 corresponding to R and CO ₂ consideration scores is performed. In the “rating” in the environmental load evaluation chart of FIG. 16, the level “5” is the highest evaluation (that is, the environmental load is small), and the level “1” is the lowest evaluation ( In other words, it means that the environmental load is large.) The classification of the areas may be set as appropriate according to statistical data and empirical rules.

  Furthermore, the evaluation sheet creating means 35 may be provided with a function of drawing an eco-efficiency evaluation chart for evaluating the eco-efficiency of a building.

S Environmental Performance Evaluation System C Computer 1 Storage Unit 2 Input Unit 3 Arithmetic Processing Unit 31 Total Emissions Calculation Unit 32 Annual Emissions Calculation Unit 33 Total Score Calculation Unit 34 Environmental Determination Value Calculation Unit 4 Display Unit

Claims (3)

Storage means that stores the basic unit of carbon dioxide emissions of materials that may be used in the enclosure, the service life according to the use of the building, and the environmentally-friendly score of the design specifications that may be applied to the enclosure When,
Input means for inputting the quantity of materials used in the evaluation target enclosure to be evaluated for environmental performance, the use of the building related to the evaluation target enclosure, and the design specifications applied to the evaluation target enclosure;
Multiply the carbon dioxide emission stored in the storage means by the quantity of the material input via the input means to calculate the carbon dioxide emission for each of the plurality of materials, and sum these A total emission calculating means for calculating the total emission,
The annual emission amount which extracts the useful life corresponding to the application input via the input means from the storage means and calculates the annual emission amount by multiplying the reciprocal of the extracted useful life and the total emission amount. Computing means;
Total score calculating means for extracting environmentally friendly scores corresponding to the design specifications input via the input means from the storage means, and calculating the total score by summing the extracted environmentally friendly scores;
An environmental performance evaluation system for calculating an environmental performance value by multiplying the reciprocal of the annual emission amount and the total score. The storage means stores a correction coefficient corresponding to the use of the building and the structural type of the frame,
The environment determination calculation means extracts a correction coefficient corresponding to the application and structure type input via the input means from the storage means, and extracts the correction coefficient, the reciprocal of the annual emission amount, and the total score. The environmental performance evaluation system according to claim 1, wherein the environmental determination value is calculated by multiplying. An environmental performance index calculation program for calculating an index for evaluating the environmental performance of a chassis,
Storage means that stores the basic unit of carbon dioxide emissions of materials that may be used in the enclosure, the service life according to the use of the building, and the environmentally-friendly score of the design specifications that may be applied to the enclosure When,
Input means for inputting the quantity of materials used in the evaluation target enclosure to be evaluated for environmental performance, the use of the building related to the evaluation target enclosure, and the design specifications applied to the evaluation target enclosure;
Multiply the carbon dioxide emission stored in the storage means by the quantity of the material input via the input means to calculate the carbon dioxide emission for each of the plurality of materials, and sum these A total emission calculating means for calculating the total emission,
The annual emission amount which extracts the useful life corresponding to the application input via the input means from the storage means and calculates the annual emission amount by multiplying the reciprocal of the extracted useful life and the total emission amount. Computing means;
Total score calculating means for extracting environmentally friendly scores corresponding to the design specifications input via the input means from the storage means, and calculating the total score by summing the extracted environmentally friendly scores;
An environmental performance index calculation program for causing a computer to function as an environmental determination value calculation means for calculating an environmental determination value by multiplying the reciprocal of the annual emission amount and the total score.

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