JP4716899B2 - Seismic improvement proposal device and seismic improvement proposal method - Google Patents

Description

  The present invention relates to an apparatus and a method for proposing improvement of earthquake resistance of an existing building.

In order to improve the earthquake resistance of existing buildings, after conducting an earthquake-resistant diagnosis on whether or not the existing buildings comply with the current Building Standards Act and other various laws and standards, so that the laws and standards are satisfied Methods for applying seismic reinforcement are widely used. Patent Document 1 discloses a technique for improving the earthquake resistance of an existing building by such a method.
JP 2004-110264 A

  However, the earthquake resistance of existing buildings is effective when an earthquake of a predetermined magnitude or larger occurs, and has almost no influence on daily usability. Therefore, there is not much awareness of the necessity of improving seismic resistance, and there are few cases where seismic diagnosis and seismic reinforcement are performed independently.

  Moreover, the conventional method for improving earthquake resistance is to diagnose whether or not a building satisfies the earthquake resistance standard, and if not satisfied, the entire building is reinforced to satisfy the earthquake resistance standard. Therefore, in order to improve the earthquake resistance of existing buildings as much as possible, there is a problem that detailed measures such as measures to reinforce part of the building and facilities in the building cannot be taken.

  Furthermore, the seismic standards defined by the Building Standards Law are the minimum that can be applied nationwide. However, since the occurrence of earthquakes is regional, it is not possible to accurately determine the risk of an earthquake at a place where a building is built only by satisfying the earthquake resistance standards.

  Therefore, the present invention has been made in view of the above problems, and a main object thereof is to provide means for proposing a detailed improvement in the earthquake resistance of a building by utilizing a normal renovation opportunity.

In order to solve the above-described problems, the present invention is an earthquake resistance improvement proposing device that proposes an improvement in the earthquake resistance of a building accompanying a proposal to repair the building, and includes one or more seismic improvement methods for each repair site. Seismic method data by renovation site, effect data by seismic method showing the effect of improving seismic performance for each seismic method, building seismic data for calculating the seismic performance of buildings from building drawings, by region A storage unit for storing earthquake occurrence risk data indicating the probability of occurrence of an earthquake of each seismic intensity, cost data for each earthquake resistance method indicating the cost for each earthquake resistance method, and repair cost data for calculating the cost from the basic repair plan, An input section for entering building information including the repair site, repair content, building drawings and building location, and the basic repair program based on the repair site, repair content, and building drawings entered by the input section. Rehabilitation plan that selects one or more seismic construction methods based on the seismic construction method data for each repair site and formulates a seismic retrofit plan that combines the seismic construction method and the basic renovation plan. Based on the seismic data of the building and the building plan, the seismic performance of the building according to the basic renovation plan is evaluated, and the seismic construction method selected by the building drawing and the renovation plan formulating unit a seismic evaluation unit for evaluating the earthquake resistance of the building according to the earthquake resistance repair plan based on the data and seismic engineering process-specific effects data, for each of the basic repair plan and the earthquake resistance repair plan, before Symbol earthquake risk data Read the seismic intensity and probability of earthquakes that occur in the area including the location of the building, and an earthquake with a seismic intensity exceeding the earthquake resistance of the building will occur. Calculating the rate, and earthquake risk assessment unit which evaluates the calculated probabilities as earthquake risk, the basic repair plans, as well as evaluate the renovation costs of basic repair plan based on the repair cost data, earthquake resistance repair plan From the rehabilitation cost data and the seismic retrofitting method cost data, the rehabilitation cost evaluation unit that evaluates the rehabilitation cost related to the seismic renovation plan and the basic rehabilitation plan and the seismic renovation plan are evaluated by the seismic evaluation unit A display unit for displaying the earthquake resistance of the building, the earthquake damage risk evaluated by the earthquake damage risk evaluation unit, and the repair cost evaluated by the repair cost evaluation unit.

According to this configuration, there is one or more seismic improvement method data for each renovation site, and each seismic improvement method has seismic improvement effect and cost data. Since it is possible to present a seismic retrofit plan, it is possible to make proposals for improving earthquake resistance naturally and smoothly. In addition, the earthquake resistance of the building, the earthquake damage risk based on the earthquake resistance and the repair cost are displayed for each basic repair plan and seismic retrofit plan, making it easier for users to understand the importance and cost of earthquake countermeasures, Opportunities for retrofitting including earthquake resistance will increase. Furthermore, since a basic repair plan and one or more seismic retrofit plans can be presented, it is possible to respond finely according to user requests and budgets.
Furthermore, according to this configuration, there is data on the probability of occurrence of earthquakes of each seismic intensity for each area, and the seismic intensity exceeds the earthquake resistance of the building in the area including the location of the building to be repaired. Since the probability of occurrence of an earthquake is obtained, the probability of suffering a disaster due to an earthquake can be presented, and the user can feel the importance of earthquake countermeasures.

  In addition, the present invention is an earthquake resistance improvement proposing device, further comprising an equipment evaluation section for performing an earthquake resistance evaluation of equipment and furniture, and a storage section that provides measures for earthquake resistance of the equipment and furniture and its effects and costs. Seismic data for equipment shown in the table is stored, and the input unit further inputs layout diagrams of equipment and furniture, and the evaluation unit for equipment etc. seismic data such as equipment and earthquake occurrence from the layout diagram input by the input unit. Based on the risk data, set up one or more measures, evaluate the earthquake resistance, earthquake damage risk and countermeasure costs of the equipment and furniture related to each measure, and set the display unit by the facility evaluation unit It is characterized by displaying the earthquake resistance measures, earthquake resistance, earthquake damage risk and countermeasure costs of facilities and furniture for each measure plan.

  According to this configuration, it is possible to present earthquake resistance measures not only for buildings but also for equipment and furniture, so that the user can know that earthquake resistance can be improved even with a small budget, and it is possible to raise awareness of earthquake countermeasures. be able to.

  In addition, this invention includes the earthquake-proof improvement proposal method. In addition, the problems disclosed in the present application and the solutions thereof will be clarified by the description of the best mode for carrying out the invention and the drawings.

  According to the present invention, it is possible to propose a detailed improvement in the earthquake resistance of a building by utilizing a normal renovation opportunity.

  Hereinafter, the best mode for carrying out the present invention will be described with reference to the drawings. The earthquake resistance improvement proposing apparatus according to the embodiment of the present invention is a basic renovation plan requested by a user after a user requesting renovation of an existing building receives building information relating to the renovation, and In addition, a repair plan including earthquake resistance is developed and evaluated, and a repair plan including earthquake resistance is presented to the user in association with the repair plan requested by the user.

≪Device configuration and overview≫
FIG. 1 is a diagram illustrating a configuration of an earthquake resistance improvement proposing device. The earthquake resistance improvement proposing device 1 includes an input unit 2, a display unit 3, a processing unit 4, and a storage unit 5. The input unit 2 inputs building information or inputs a predetermined selection result in accordance with a user operation, and is realized by, for example, a keyboard or a mouse. The display unit 3 displays a screen for inputting building information, a screen for presenting a repair plan, and the like, and is realized by, for example, a liquid crystal display. The processing unit 4 formulates and evaluates a repair plan based on each data stored in the storage unit 5 from the building information input by the input unit 2 and causes the display unit 3 to display the repair plan. The processing unit 4 is realized by a CPU (Central Processing Unit) executing a program stored in a predetermined memory. The storage unit 5 stores data necessary for the processing unit 4 to formulate and evaluate a repair plan, and is realized by a nonvolatile storage device such as a hard disk device.

  The earthquake resistance improvement proposing device 1 is assumed to be configured by a PC (Personal Computer) or a server. Note that the configuration is not necessarily a stand-alone configuration, and may be configured by a client / server system.

  As shown in FIG. 1, the processing unit 4 includes a repair plan formulation unit 41, an earthquake resistance evaluation unit 42, an earthquake damage risk evaluation unit 43, and a repair cost evaluation unit 44. The repair plan formulation unit 41 formulates a repair plan based on each data stored in the storage unit 5 from the building information input by the input unit 2. The earthquake resistance evaluation unit 42 evaluates the earthquake resistance of the building when the repair plan formulated by the repair plan formulation unit 41 is implemented. Seismic resistance refers to the magnitude of shaking (for example, seismic intensity) that a building can withstand. The earthquake damage risk evaluation unit 43 evaluates the earthquake damage risk of the building when the repair plan formulated by the repair plan formulation unit 41 is implemented. The earthquake damage risk refers to the probability that an earthquake having a predetermined seismic intensity will occur during a predetermined period and suffer some kind of disaster. For example, when the earthquake resistance of a building is evaluated, the probability that an earthquake having a seismic intensity exceeding the earthquake resistance of the building will occur in an area including the location of the building. According to this, since the probability of building damage due to earthquake resistance for each renovation plan is known, not just the probability of occurrence of an earthquake, the user can be conscious of earthquake resistance. The repair cost evaluation unit 44 evaluates the repair cost of the repair plan formulated by the repair plan formulation unit 41. The renovation cost is the cost for renovation of a building.

  As shown in FIG. 1, the storage unit 5 includes a seismic improvement method data 51 for each repair site, a seismic improvement effect data for each seismic method (hereinafter referred to as effect data for each seismic method) 52, a building seismic data 53, an earthquake Occurrence risk data 54, seismic method-specific cost data 55, and repair cost data 56 are stored.

  The earthquake-resistant construction method data 51 for each modified portion is literally data on the modified portion of the building and the earthquake-resistant construction method related thereto, and there is one or more earthquake-resistant construction method data for each modified portion. The seismic improvement method-specific effect data 52 is data obtained by evaluating the effect of improving the seismic resistance of each seismic improvement method 51 of the repair site-specific seismic improvement method data 51. The effects include an effect of increasing the horizontal proof stress (strength and toughness) of the building, an effect of reducing the earthquake input to the building, and an effect of attenuating the shaking of the building due to the earthquake. The building earthquake resistance data 53 is data necessary for calculating the earthquake resistance of a building from a plan view or a structural drawing (drawing) of the building. This data is based on normal seismic diagnostic methods.

  The earthquake occurrence risk data 54 is data indicating the magnitude of the shaking caused by earthquakes in various parts of the country and the probability of occurrence thereof. Based on the effect data 52, seismic performance data 53, and earthquake occurrence risk data 54, the earthquake damage risk that is the probability of occurrence of an earthquake of a predetermined seismic intensity or greater, and the earthquake when the repaired part is made earthquake resistant Can assess disaster risk. The earthquake-resistant construction method cost data 55 is literally data indicating the cost when the earthquake-proof construction method is implemented for each earthquake-resistant construction method of the repair site-specific earthquake resistance construction method data 51. The refurbishment cost data 56 is data necessary for calculating a cost from a basic plan (basic renovation plan) formulated based on a renovation site, renovation contents, a plan view of a building, and a structural diagram. Based on the seismic retrofit method cost data 55 and the repair cost data 56, the cost of repair including earthquake resistance of the building can be evaluated.

<< Data structure >>
FIG. 2 is a diagram showing the structure of the seismic retrofitting method data for each repair site. The earthquake-resistant construction method data 51 by repair site includes outer wall repair-related data 511, floor repair-related data 512, ceiling repair-related data 513, inner wall repair-related data 514, and roof repair-related data 515. In addition, you may further include the repair relevant data of another site | part. As an example, the data 511 related to the outer wall repair is the following: Reinforcement hardware installation of shaft joint, column base anchor reinforcement hardware installation, brace installation, seismic panel installation, damper installation, foundation reinforcement, column beam joint reinforcement, Includes reinforcement. That is, for example, it means that there is a plurality of seismic retrofitting methods for one repair site called “outer wall”. According to this, when the user requests the repair of the “outer wall”, it is possible to make various proposals for improving the earthquake resistance that can be achieved by the repair of the “outer wall”. The same applies to other repaired parts. Then, the seismic improvement effect and cost for each seismic construction method, such as reinforcement hardware attachment and brace attachment, are stored in the seismic construction method effect data 52 and seismic construction method cost data 55, respectively. According to this, the effect and cost can be shown for every proposal of various earthquake resistance improvement. The same applies to other repaired parts.

≪Device processing≫
FIG. 3 is a flowchart showing processing of the earthquake resistance improvement proposing device. First, the input unit 2 of the earthquake resistance improvement proposing device 1 inputs building information related to a repair request for an existing building (step S301). This is a process corresponding to an input operation of building information performed by a user who requests a repair of an existing building. The building information includes the repair site, the repair content, the floor plan and structure of the building, the location of the building, and the like. In this case, the user may be allowed to input the building information from scratch, or may be selected from the repair site, the repair content candidate data stored in the storage unit 5 in advance, or information on the existing building.

  Next, the renovation plan formulation unit 41 formulates a basic plan for building renovation from the building information input by the input unit 2 (step S302). The basic plan is a plan that implements only the content of repairs input by the user, and is a plan that does not perform repairs aimed at earthquake resistance. Specifically, a part to be repaired (renovation scale) is specified from the input repair site, the floor plan of the building, and the structure diagram, and a plan for applying the input repair content to the part is formulated.

  Then, the earthquake resistance evaluation unit 42, the earthquake damage risk evaluation unit 43, and the repair cost evaluation unit 44 evaluate the basic plan established in step S302 with respect to the indexes related to the respective units (step S303). First, the earthquake resistance evaluation unit 42 evaluates the earthquake resistance data according to the basic plan with reference to the building earthquake resistance data 53 from the input plan view and structure diagram of the building. Next, the earthquake damage risk evaluation unit 43 evaluates the earthquake damage risk based on the earthquake occurrence risk data 54 from the location of the building input in step S301 and the earthquake resistance of the building evaluated earlier. Specifically, data indicating the magnitude of the earthquake caused by the earthquake in the area including the location of the building and the probability of occurrence thereof is read from the earthquake occurrence risk data 54. Then, the probability of an earthquake having a seismic intensity exceeding the earthquake resistance of the building is calculated. As a result, the probability that the building will be damaged by the earthquake is known. Subsequently, the repair cost evaluation unit 44 evaluates the repair cost related to the basic plan formulated in step S302. Specifically, based on the repair cost data 56, the repair cost corresponding to the repair site, the repair content, and the repair scale is evaluated from the basic plan.

  Subsequently, the repair plan formulation unit 41 formulates an earthquake resistance plan (earthquake resistance repair plan) for building repair from the building information input by the input unit 2 (step S304). The earthquake resistance plan is a plan that is implemented in accordance with the contents of the repair of the input building information and the earthquake resistance for the repaired part. Specifically, a part to be repaired is specified from the input repair site, the floor plan of the building, and the structural drawing, the input repair content is applied to the part, and a plan for making the part earthquake resistant is formulated. As described in the outer wall repair-related data 511 in FIG. 2, the number of earthquake-resistant construction methods related to one repair site is not necessarily one. Therefore, the repair plan formulation unit 41 can formulate a repair plan including various earthquake-resistant construction methods. For example, it may be a repair plan including all the earthquake resistant construction methods related to the repair site, or may be a repair plan including several earthquake resistant construction methods with the most improved earthquake resistance.

  Then, the earthquake resistance evaluation unit 42, the earthquake damage risk evaluation unit 43, and the repair cost evaluation unit 44 evaluate the earthquake resistance plan established in step S304 with respect to the indexes related to the respective units (step S305). First, the earthquake resistance evaluation unit 42 evaluates the earthquake resistance of the building by referring to the building earthquake resistance data 53 from the input plan view and structural diagram of the building. Moreover, the effect data by the earthquake resistance construction method included in the earthquake resistance plan is read from the effect data 52 by the earthquake resistance construction method. And the earthquake resistance of the said building after giving an earthquake resistance plan is evaluated from the earthquake resistance data of the said building and the effect data of an earthquake resistance construction method. Next, the earthquake damage risk evaluation unit 43 evaluates the earthquake damage risk based on the earthquake occurrence risk data 54 from the location of the building input in step S301 and the earthquake resistance of the building evaluated earlier. A specific evaluation method is the same as that in step S303. Subsequently, the repair cost evaluation unit 44 evaluates the repair cost related to the earthquake resistance plan formulated in step S304. Specifically, based on the earthquake resistance plan cost data 55 and the repair cost data 56 from the earthquake resistance plan, the earthquake resistance construction method cost and the repair site, the contents of the repair, and the modification according to the earthquake resistance method included in the earthquake resistance plan The repair cost is calculated according to the repair scale. Then, the seismic retrofitting method cost and the repair cost are totaled to evaluate the total repair cost.

  Here, it is determined whether there is an addition of a plan that changes the earthquake resistance of the building (step S306). This corresponds to a case where the user requests that two or more earthquake resistance plans be proposed in advance, or two or more earthquake resistance plans to be recommended as the earthquake resistance improvement proposing device 1 are presented. It is. If a plan is added (Y in step S306), the processes in steps S304 and S305 are performed again.

  If no plan is added (N in Step S306), the display unit 3 outputs the basic plan and one or more earthquake resistance plans as a repair plan proposal (Step S307). Specific examples will be described later. Here, the earthquake resistance improvement proposing apparatus 1 causes the user to refer to the repair plan proposal displayed on the display unit 3 and to select a repair plan that matches his / her request (step S308). In addition, the earthquake resistance improvement proposing apparatus 1 may select a repair plan that matches a user's request or budget that is input in advance, or may display the selected plan and allow the user to confirm. And the earthquake-proof improvement proposal apparatus 1 determines the selected repair plan as a final repair plan (step S309). In addition, the earthquake-proof improvement proposal apparatus 1 may perform the specific and detailed renovation plan in response to the determination.

≪Example of proposal screen≫
FIG. 4 is a diagram illustrating an example of a screen for proposing a repair plan. On the repair plan proposal screen, a proposal for a building and a proposal for equipment and furniture are displayed. The proposal for the building is an example of the repair plan proposal displayed on the display unit 3 in step S307 in FIG. Of the repair plan proposals, the repair plan proposal A corresponds to the basic plan that is formulated in step S302 and evaluated in step S303. Further, the repair plan draft B and the repair plan draft C correspond to the earthquake resistance plans that are formulated in step S304 and evaluated in step S305.

  According to this, the user can examine the earthquake countermeasure while referring to and comparing the earthquake resistance, the earthquake damage risk, and the repair cost of each plan. In particular, not only the earthquake resistance of the building but also the probability of the building being damaged by the earthquake is displayed as an earthquake damage risk, so the user can recognize the necessity and importance of earthquake resistance, and the earthquake resistance of the building Improvement will be promoted. In addition, since the basic plan and the earthquake resistance plan are displayed at the same time, proposals from the basic plan to the earthquake resistance plan can be made naturally and smoothly.

  The proposal for equipment and furniture is not described in the flowchart of FIG. 3, but is the same as the proposal for a building. The flow of the processing will be described. First, the storage unit 5 stores in advance the earthquake resistance measures for equipment and furniture, and the effect and cost (equipment earthquake resistance data). Next, when inputting building information, the input unit 2 further inputs a layout diagram of equipment and furniture. The processing unit 4 further includes a facility evaluation unit (not shown) that performs seismic evaluation of facilities and furniture. The equipment evaluation section, for example, when the earthquake prevention measures are not taken or the steady rest is applied based on the equipment earthquake resistance data and the earthquake occurrence risk data 54 in the storage section 5 from the layout diagram input by the input section 2 Establish countermeasures for fixed cases, etc., and evaluate the earthquake resistance, earthquake damage risk and countermeasure cost of each countermeasure. And the display part 3 displays an earthquake resistance measure, earthquake resistance, an earthquake damage risk, and countermeasure cost for every countermeasure plan.

  According to this, since it is possible to receive proposals for improving seismic resistance for equipment and furniture, the user is surprised that not only renovation of the building but also seismic reinforcement of equipment in the building is effective. Can be recognized. When an earthquake actually occurs, there are many injuries caused by falling furniture. Moreover, even if the cost of countermeasures is relatively low, it can improve the earthquake resistance of the building and the risk of earthquake damage, which motivates the earthquake countermeasures. Furthermore, by simultaneously displaying proposals for buildings and proposals for equipment and furniture, it is possible to compare earthquake damage risks and costs, and to make plans for improving earthquake resistance according to budget. .

  Although the embodiment of the present invention has been described above, the program executed by the processing unit 4 is recorded on a computer-readable recording medium so that each unit in the earthquake resistance improvement proposing device 1 shown in FIG. Then, the recorded program is read into a computer and executed, whereby the seismic improvement improvement device according to the embodiment of the present invention is realized. Note that the program may be provided to the computer via a network such as the Internet, or a semiconductor chip or the like in which the program is written may be incorporated in the computer.

  According to the embodiment of the present invention described above, since there is one or more earthquake resistance construction method data for each refurbishment site, and each of the earthquake resistance construction methods has data on the effect of improving earthquake resistance and cost data, Since an earthquake resistance plan can be presented along with the basic plan, it is possible to make proposals for improving earthquake resistance naturally and smoothly. In addition, the earthquake resistance of the building, earthquake damage risk based on the earthquake resistance, and the repair cost are displayed for each basic plan and earthquake resistance plan, making it easier for users to understand the importance and cost of earthquake countermeasures and making earthquake resistance. Renovation opportunities including Furthermore, since a basic plan and one or more seismic plans can be presented, detailed response according to the user's request and budget becomes possible.

  In addition, since it is possible to present not only buildings but also earthquake resistance measures for equipment and furniture, the user can know that the earthquake resistance can be improved even with a small budget, and can raise awareness and trigger earthquake countermeasures.

  Furthermore, we have data on the probability of an earthquake of each seismic intensity for each region, and the probability of an earthquake with a seismic intensity exceeding the earthquake resistance of the building in the area including the location of the building subject to renovation as earthquake damage risk. Therefore, the probability of suffering a disaster due to an earthquake can be presented, and the user can feel the importance of earthquake countermeasures.

  Although the best mode for carrying out the present invention has been described above, the above embodiment is intended to facilitate understanding of the present invention and is not intended to limit the present invention. The present invention can be changed and improved without departing from the gist thereof, and equivalents thereof are also included in the present invention. For example, the following embodiments can be considered.

(1) Since the earthquake resistance of the building may be improved by the basic plan by the modification requested by the user, this may be reflected when evaluating the earthquake resistance of the building.

(2) In the above embodiment, as shown in FIG. 4, in the column of the repair contents of the repair plan draft B and the repair plan draft C, “column beam joint reinforcement” and “strengthening reinforcement” Although one construction method such as this is published, it may be modified contents that combine two or more seismic construction methods so as to satisfy each earthquake resistance.

It is a figure which shows the structure of the earthquake-proof improvement proposal apparatus which concerns on embodiment of this invention. It is a figure which shows the structure of the earthquake-resistant construction method data classified by repair site | part. It is a flowchart which shows the process of an earthquake resistance improvement proposal apparatus. It is a figure which shows the example of the screen which proposes a repair plan.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Seismic improvement proposal apparatus 2 Input part 3 Display part 4 Processing part 5 Memory | storage part 41 Renovation plan formulation part 42 Earthquake resistance evaluation part 43 Earthquake damage risk evaluation part 44 Refurbishment cost evaluation part 51 Seismic improvement method data according to repair part 52 Seismic improvement work Effect data by law 53 Seismic data for buildings 54 Risk data for earthquake occurrence 55 Cost data by seismic construction method 56 Refurbishment cost data

Claims (4)

Along with a proposal to renovate a building, an earthquake resistance improvement proposing device that proposes an improvement in the earthquake resistance of the building,
Calculate the earthquake resistance of a building from the earthquake resistance method data for each repair site showing one or more earthquake resistance methods for each repair site, the effect data for each earthquake resistance method showing the effect of improving earthquake resistance for each earthquake resistance method, and the drawing of the building To calculate cost from building earthquake resistance data, earthquake risk data indicating the probability of occurrence of earthquakes of each seismic intensity for each region, cost data by earthquake resistance method indicating cost for each earthquake resistance method, and basic repair plan A storage unit for storing repair cost data;
An input section for entering building information including the repair site, repair details, building drawings and building location;
A basic renovation plan is formulated from the refurbishment site, renovation content and building drawings input by the input unit, and one or more seismic retrofitting methods are selected from the refurbishment site based on the seismic retrofit method data for each refurbishment site. A renovation plan formulation department that formulates a seismic retrofit plan that combines the seismic retrofit method and the basic renovation plan;
From the drawing of the building, the earthquake resistance of the building according to the basic renovation plan is evaluated based on the earthquake resistance data of the building, and from the earthquake resistance construction method selected by the drawing of the building and the renovation plan formulation unit, the building An earthquake resistance evaluation unit for evaluating the earthquake resistance of the building according to the earthquake resistance improvement plan based on the earthquake resistance data and the effect data by the earthquake resistance construction method,
For each of the basic renovation plan and the earthquake resistance renovation plan, before Symbol reading the seismic intensity and the probability of occurrence of earthquakes in the region, including the location of the building from the earthquake risk data, seismic intensity of the earthquake that exceeds the earthquake resistance of the building An earthquake damage risk evaluation unit that calculates the probability of occurrence of an earthquake and evaluates the calculated probability as an earthquake damage risk,
From the basic renovation plan, the renovation cost according to the basic renovation plan is evaluated based on the renovation cost data, and from the seismic retrofit plan, the seismic resistance A renovation cost evaluation unit that evaluates the renovation cost related to the renovation plan,
Each of the basic repair plan and the seismic retrofit plan was evaluated by the earthquake resistance of the building evaluated by the earthquake resistance evaluation unit, the earthquake damage risk evaluated by the earthquake damage risk evaluation unit, and the repair cost evaluation unit A display unit for displaying the repair cost;
A device for suggesting improvement in earthquake resistance, characterized by comprising: An equipment evaluation section that performs seismic evaluation of equipment and furniture
The storage unit stores earthquake resistance data such as facilities and furniture indicating earthquake resistance measures and the effects and costs thereof,
The input unit further inputs a layout diagram of equipment and furniture,
The facility etc. evaluation unit sets one or more countermeasure plans from the layout diagram input by the input unit based on the earthquake resistance data of the facilities and the earthquake occurrence risk data, Evaluate the earthquake resistance of furniture, earthquake damage risk and countermeasure costs,
2. The display unit according to claim 1, wherein the display unit displays seismic countermeasures, seismic resistance, earthquake damage risk, and countermeasure cost of facilities and furniture for each countermeasure plan set by the facility evaluation unit. Seismic improvement proposal device . Along with the proposal to renovate the building, there is an earthquake resistance improvement proposing method that proposes to improve the earthquake resistance of the building,
Calculate the earthquake resistance of a building from the earthquake resistance method data for each repair site showing one or more earthquake resistance methods for each repair site, the effect data for each earthquake resistance method showing the effect of improving earthquake resistance for each earthquake resistance method, and the drawing of the building To calculate cost from building earthquake resistance data, earthquake risk data indicating the probability of occurrence of earthquakes of each seismic intensity for each region, cost data by earthquake resistance method indicating cost for each earthquake resistance method, and basic repair plan A computer having a storage unit for storing renovation cost data,
A first step of entering building information including a refurbishment site, renovation content, building drawings and building location;
In addition to formulating a basic renovation plan from the input refurbishment site, renovation content, and building drawings, one or more seismic construction methods are selected from the refurbishment site based on the seismic construction method data for each refurbishment site. A second step of formulating an earthquake-resistant repair plan that combines the chemical method and the basic repair plan;
From the drawing of the building, evaluating the earthquake resistance of the building according to the basic renovation plan based on the building earthquake resistance data, and from the drawing of the building and the selected earthquake resistance construction method, the building earthquake resistance data and the A third step of evaluating the earthquake resistance of the building according to the earthquake resistance improvement plan based on the effect data by the earthquake resistance method;
For each of the basic renovation plan and the earthquake resistance renovation plan, before Symbol reading the seismic intensity and the probability of occurrence of earthquakes in the region, including the location of the building from the earthquake risk data, seismic intensity of the earthquake that exceeds the earthquake resistance of the building A fourth step of calculating a probability of occurrence of the earthquake and evaluating the calculated probability as an earthquake damage risk ;
From the basic renovation plan, the renovation cost according to the basic renovation plan is evaluated based on the renovation cost data, and from the seismic retrofit plan, the seismic resistance A fifth step of evaluating the renovation cost related to the renovation plan,
A sixth step of displaying, for each of the basic renovation plan and the seismic retrofit plan, the earthquake resistance, earthquake damage risk, and renovation cost of the evaluated building;
A method for proposing an improvement in earthquake resistance, characterized by comprising The storage unit stores earthquake resistance data such as facilities and furniture indicating earthquake resistance measures and the effects and costs thereof,
The computer
In the first step, a layout diagram of equipment and furniture is further input,
Between the first step and the sixth step, one or more countermeasure plans are set based on the facility seismic data and the earthquake risk data from the input layout diagram, Further executing the step of evaluating the earthquake resistance, earthquake damage risk and countermeasure cost of equipment and furniture related to the countermeasure plan,
The earthquake resistance according to claim 3 , wherein in the sixth step, earthquake resistance measures, earthquake resistance, earthquake damage risk, and countermeasure costs of equipment and furniture are further displayed for each of the set countermeasure plans. Improvement proposal method .

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