TWI785979B - Electronic evaluation system for green building labels - Google Patents
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一種電子化評估系統,尤指一種節約用能之綠建築標章電子化評估系統。An electronic evaluation system, especially an electronic evaluation system for energy-saving green building labels.
按,綠建築概念約源自1999年,我國(台灣)繼英國BREEAM、美國LEED、加拿大GBTOOL後推動綠建築評鑑制度,綠建築標章EEWH(Ecology(生態)、Energy Saving(節能)、Waste Reduction(減廢)和Health(健康)之簡稱)制度開始實施,建立有七項指標,並依優劣分有五種等級。Press, the concept of green building originated in 1999. my country (Taiwan) promoted the green building evaluation system after BREEAM in the United Kingdom, LEED in the United States, and GBTOOL in Canada. The Reduction (reduction of waste) and Health (abbreviation for health) system has been implemented, with seven indicators established and divided into five levels according to their merits.
綠建築的評鑑,主要是針對綠建築機電工程之性能狀態進行評鑑,評斷綠建築的工程是否達設計之標準;而機電工程產業,一直以來都是大量倚賴經驗之產業,工程業者必須運用其豐富之實務經驗來滿足客戶之需求,為滿足客戶對機電系統或設備多樣性、多變性需求,機電工程不斷開發各式各樣的工法與多種實用性的理念,但在理念實現與工法施作的過程中,由於機電的構件數量龐大與施工作業複雜,資訊一貫化、管理自動化及作業標準化難以被顧及的面面俱到。The evaluation of green buildings is mainly aimed at evaluating the performance status of green building mechanical and electrical engineering, and judging whether the engineering of green buildings meets the design standards; and the mechanical and electrical engineering industry has always been an industry that relies heavily on experience, and engineering companies must use Its rich practical experience meets the needs of customers. In order to meet customers' needs for the diversity and variability of electromechanical systems or equipment, electromechanical engineering continues to develop various construction methods and various practical concepts. During the operation process, due to the large number of mechanical and electrical components and the complexity of construction operations, it is difficult to take care of information consistency, management automation, and operation standardization.
綠建築機電工程之規劃,即在基本設計、實施設計、發包、施工過程中,實施一連串管制措施,使機電控制在規劃階段所擬定的目標範圍內;但機電之開發、施作過程所可能面臨到的問題相當繁多,且連帶關係甚為複雜,並非每一個綠建築工程案,皆可輕易隨設計方案確實達到預期成果;因此,如何能夠使業主能夠確實掌握設備,施工安裝運行流程,正確掌握施工狀態,係當下機電工程產業必須要面臨的問題。再者,綠建築的機電工程流程大致可分為多種階段,例如:於工程之規劃階段擬定規範、工程之設計方案是否有可選定之商源設備、工程在預算內是否可完成發包,以及得標廠商在預定工期及預算內完成標地建物興建,並獲得合理利潤,如何如期如值得完成規劃設計之機電性能為先決條件等。The planning of mechanical and electrical engineering of green buildings means implementing a series of control measures during the basic design, implementation design, contracting and construction, so that the mechanical and electrical control is within the target range drawn up in the planning stage; There are quite a lot of problems, and the related relationship is very complicated. Not every green building project can easily follow the design plan to achieve the expected results; The construction status is a problem that the electromechanical engineering industry must face. Furthermore, the mechanical and electrical engineering process of green buildings can be roughly divided into various stages, such as: drawing up specifications during the planning stage of the project, whether there are commercial source equipment available in the design plan of the project, whether the project can be completed within the budget, and whether the contract is obtained. It is a prerequisite for the bidder to complete the construction of the landmark building within the scheduled construction period and budget, and obtain reasonable profits.
在台灣傳統機電工程產業體制中,設備安裝、材料保護、試運轉、運行性能測試、系統調整、控制點對點查驗、控制系統測試,大都由人工拍攝紀錄,不但費工、費時、容易產生錯誤,且一旦產生錯誤,更正亦較為費時。再者,目前大多數工地工期管理現行方法,為工程負責人於開工前,以人力製作簡單的施工紀錄表,對於設備性能計算、檔案歸檔、文件製作精細度皆未效率的規範。隨著地球暖化與能源危機的到來,提倡環保的綠建築概念與相關實施規範成為近年來許多國家的議題。美國綠色建築委員會(USA Green building council, USGBC)的能源與環境設計 (Leadership in Energy and Environmental Design : Energy & Atmosphere, LEED : EA)是促進建築、工程和施工行業永續發展的商業模式,其關鍵領域更涉及可持續發展的水和能源效率、位置、生態、材料、室內環境品質、創新和設計的過程,所以依各國不同情形發展各有不同的綠建築評估系統。In Taiwan's traditional mechanical and electrical engineering industry system, equipment installation, material protection, trial operation, operational performance testing, system adjustment, control point-to-point inspection, and control system testing are mostly manually photographed and recorded, which is labor-intensive, time-consuming, and prone to errors. Once a mistake is made, it is time-consuming to correct it. Furthermore, most of the current methods of construction site management currently require the person in charge of the project to manually create a simple construction record sheet before the start of construction, which is not efficient for the calculation of equipment performance, file filing, and the fineness of document production. With the advent of global warming and energy crisis, promoting the concept of green buildings and related implementation regulations for environmental protection has become an issue in many countries in recent years. The Energy and Environmental Design (Leadership in Energy and Environmental Design: Energy & Atmosphere, LEED: EA) of the USA Green Building Council (USGBC) is a business model that promotes the sustainable development of the architecture, engineering and construction industries. Its key The field also involves water and energy efficiency, location, ecology, materials, indoor environmental quality, innovation and design process of sustainable development, so different green building evaluation systems are developed according to different situations in different countries.
是以,如何解決上述現有技術之問題與缺失,即為相關業者所亟欲研發之課題所在。Therefore, how to solve the problems and deficiencies of the above-mentioned prior art is the subject that the related industry is eager to research and develop.
本發明提出一種綠建築標章電子化評估系統,能夠有效率地審核綠建築專案,以符合最新版之綠建築標章規範。The present invention proposes an electronic evaluation system for green building labels, which can efficiently review green building projects to comply with the latest version of the green building label specifications.
本發明提供一種綠建築標章電子化評估系統,用以評估一建築專案檔案是否符合一綠建築標章規範,該綠建築標章電子化評估系統包括使用者輸入介面、建築物基本資料輸入模組、自訂資料輸入模組、遮陽資料輸入模組、條件檢查模組、資料庫、表單產生模組與多工平行計算處理器。使用者輸入介面用以提供讓使用者輸入建築專案檔案之建物資料。建築物基本資料輸入模組連接至該使用者輸入介面,建築物基本資料輸入模組同時計算不同外殼功能規範,其包括一總量規範與一分項規範,其中使用者自行選擇該總量規範或分項規範之其中之一以決定後續的計算方式。自訂資料輸入模組連接至該使用者輸入介面,自訂資料輸入模組用以讓使用者來彈性地制定一自訂植栽資料、一自訂建材資料、一自訂玻璃資料或一自訂窗戶資料。遮陽資料輸入模組連接至使接用者輸入介面,遮陽資料輸入模組用以接收一水平遮陽資料、一垂直遮陽資料、一格子遮陽資料、一鄰棟遮陽資料或一自訂遮陽資料。條件檢查模組連接至建築物基本資料輸入模組、自訂資料輸入模組與遮陽資料輸入模組,條件檢查模組用以檢查資料是否符合綠建築標章規範,其中條件檢查模組具有一規範同步單元,其透過網際網路來自動更新條件以同步化已更新之該綠建築標章規範。資料庫連接至建築物基本資料輸入模組、自訂資料輸入模組與遮陽資料輸入模組,資料庫用以儲存建築物基本資料輸入模組、自訂資料輸入模組與遮陽資料輸入模組的輸入資料。表單產生模組連接至該資料庫,表單產生模組用以根據使用者之動作與資料庫內所儲存之資料來產生標的資料表單。多工平行計算處理器連接至建築物基本資料輸入模組、自訂資料輸入模組、遮陽資料輸入模組、條件檢查模組、資料庫與表單產生模組,多工平行計算處理器用以根據綠建築標章規範來即時處理相關資料。於建築物基本資料輸入模組輸入一海拔高度與一地址之資料以決定氣候資料,且輸入建築外殼面積、不透光屋頂構造面積與牆面構造面積,其中如果海拔高度在800公尺以下,則輸入窗戶遮陽資料以自動計算日射透過率。The present invention provides a green building label electronic evaluation system for evaluating whether a building project file conforms to a green building label specification. The green building label electronic evaluation system includes a user input interface and a building basic data input module. groups, custom data input modules, sunshade data input modules, condition checking modules, databases, form generation modules and multiple parallel computing processors. The user input interface is used to provide the user to input the building data of the building project file. The building basic data input module is connected to the user input interface, and the building basic data input module calculates different shell function specifications at the same time, which includes a total specification and a sub-specific specification, wherein the user chooses the total specification or one of the sub-specs to determine the subsequent calculation method. The custom data input module is connected to the user input interface, and the custom data input module is used to allow the user to flexibly formulate a custom planting data, a custom building material data, a custom glass data or a custom Order windows information. The shading data input module is connected to the user input interface, and the shading data input module is used to receive a horizontal shading data, a vertical shading data, a grid shading data, an adjacent building shading data or a custom shading data. The condition checking module is connected to the building basic data input module, custom data input module and sunshade data input module. The condition checking module is used to check whether the data conforms to the green building label specification. The condition checking module has a A specification synchronization unit, which automatically updates conditions through the Internet to synchronize the updated green building label specifications. The database is connected to the building basic data input module, custom data input module and shading data input module, and the database is used to store the building basic data input module, custom data input module and shading data input module input data. The form generation module is connected to the database, and the form generation module is used to generate the target data form according to the user's action and the data stored in the database. The multitasking parallel computing processor is connected to the building basic data input module, custom data input module, sunshade data input module, condition checking module, database and form generation module, and the multitasking parallel computing processor is used to Green Building Label specification to process relevant information in real time. Input the data of an altitude and an address in the basic data input module of the building to determine the climate data, and input the area of the building shell, the area of the opaque roof structure and the area of the wall structure. If the altitude is below 800 meters, Enter window shading data to automatically calculate solar transmittance.
在本發明之一實施例中,綠建築標章電子化評估系統更包括匯入模組與匯出模組,其都連接至資料庫,匯入模組用以提供讓使用者匯入資料且該匯出模組用以提供讓使用者匯出資料。In one embodiment of the present invention, the green building label electronic evaluation system further includes an import module and an export module, both of which are connected to the database, and the import module is used to provide the user with data import and The export module is used to allow users to export data.
在本發明之一實施例中,如果條件檢查模組檢查出所輸入之資料不符合綠建築標章規範之一範圍值,則會進行提醒或自動以邊界值作為輸入值,其中該範圍值具有上限邊界值與下限邊界值。In one embodiment of the present invention, if the condition check module detects that the input data does not meet the range value of the green building label specification, it will remind or automatically use the boundary value as the input value, wherein the range value has an upper limit Boundary value and lower boundary value.
在本發明之一實施例中,自訂植栽資料具有植栽特性欄位來設定,其中自訂窗戶資料包括窗戶尺寸、可開窗尺寸與玻璃種類。In one embodiment of the present invention, the customized planting data has a planting characteristic field to set, wherein the customized window data includes window size, window size and glass type.
在本發明之一實施例中,建築專案檔案包括基地表格文件,該基地表格文件包括基地綠化資料、基地保水資料、雨水儲存利用資料、生活維持水回收再利用資料與綠建材資料。In one embodiment of the present invention, the construction project file includes a base form file, and the base form file includes base greening data, base water conservation data, rainwater storage and utilization data, living maintenance water recovery and reuse data, and green building material data.
在本發明之一實施例中,表單產生模組所產生之表單文件包括一屋頂平均熱傳導率評估計算表、一透光天窗平均日射透過率評估表、一玻璃可見光反射率評估表、一外牆平均熱傳透率評估表、一窗平均遮陽係數評估表、一立面開窗率評估表、一窗平均熱傳透率評估表與一住宅類建築可開啟窗面積比檢討表。In one embodiment of the present invention, the form file generated by the form generation module includes a roof average thermal conductivity evaluation calculation table, a light-transmitting skylight average solar transmittance evaluation table, a glass visible light reflectance evaluation table, and an exterior wall Evaluation table for average thermal transmittance, evaluation table for average shading coefficient of windows, evaluation table for façade window opening rate, evaluation table for average thermal transmittance of windows, and review table for area ratio of openable windows in residential buildings.
在本發明之一實施例中,表單產生模組所產生之表單文件包括一外遮陽係數與外殼等價開窗面積計算表、一鄰棟建物遮陽係數檢討表、一指標計算表與一基準值檢討表。In one embodiment of the present invention, the form file generated by the form generation module includes a calculation table of the external shading coefficient and the equivalent window area of the shell, a review table of the shading coefficient of adjacent buildings, an index calculation table and a reference value review form.
在本發明之一實施例中,表單產生模組所產生之表單文件包括一外周區、內部區及被排除密閉樓地板面積計算查核表、一外殼傳透率計算表、透光部位傳透熱與日射透過熱計算表、鄰棟建物遮陽係數檢討表、實牆外殼傳透熱因子計算表。In one embodiment of the present invention, the form file generated by the form generation module includes a calculation checklist for the area of the outer peripheral area, the inner area, and the excluded airtight floor area, a calculation table for the transmittance of the shell, and a transmission heat transfer table for the light-transmitting parts. Calculation table of solar heat transmission, review table of shading coefficient of adjacent buildings, calculation table of heat transmission factor of solid wall shell.
在本發明之一實施例中,表單產生模組所產生之表單文件包括一學校類建築物正式評估表、一大型空間類建築物平均立面開窗率計算表與一大型空間類建築物評估表。In one embodiment of the present invention, the form file generated by the form generation module includes a formal evaluation form for school buildings, a calculation form for the average facade window opening rate of large space buildings, and an evaluation form for large space buildings surface.
綜上所述,本發明所揭露之綠建築標章電子化評估系統能夠達到以下功效: 1. 有效率地審核建築專案檔案是否符合綠建築標章規範; 2. 能夠保持使用最新版之綠建築標章規範來進行審核; 3. 具有擴展性與延伸性以符合未來需求;以及 4. 具有自定義模組,可支援不同態樣之建築專案。To sum up, the green building label electronic evaluation system disclosed in the present invention can achieve the following effects: 1. Efficiently review whether the construction project file complies with the green building label specification; 2. Can keep using the latest version of the green building 3. Has scalability and extensibility to meet future needs; and 4. Has custom modules to support different styles of architectural projects.
底下藉由具體實施例詳加說明,當更容易瞭解本發明之目的、技術內容、特點及其所達成之功效。In the following detailed description by means of specific embodiments, it will be easier to understand the purpose, technical content, characteristics and effects of the present invention.
為能解決現有符合綠建築標章的建物審核問題,發明人經過多年的研究及開發,據以改善現有產品的詬病,後續將詳細介紹本發明如何以一種綠建築標章電子化評估系統來達到最有效率的功能訴求。In order to be able to solve the problem of reviewing existing buildings that comply with the green building label, the inventor has gone through years of research and development to improve the problems of existing products. The follow-up will introduce in detail how the present invention uses an electronic evaluation system for green building labels to achieve The most efficient functional demands.
隨著地球暖化與能源危機的到來,提倡環保的綠建築概念與相關實施規範成為近年來許多國家的議題。美國綠色建築委員會(USA Green building council, USGBC)的能源與環境設計 (Leadership in Energy and Environmental Design : Energy & Atmosphere, LEED : EA)是促進建築、工程和施工行業永續發展的商業模式,其關鍵領域更涉及可持續發展的水和能源效率、位置、生態、材料、室內環境品質、創新和設計的過程,所以依各國不同情形發展各有不同的綠建築評估系統。With the advent of global warming and energy crisis, promoting the concept of green buildings and related implementation regulations for environmental protection has become an issue in many countries in recent years. The Energy and Environmental Design (Leadership in Energy and Environmental Design: Energy & Atmosphere, LEED: EA) of the USA Green Building Council (USGBC) is a business model that promotes the sustainable development of the architecture, engineering and construction industries. Its key The field also involves water and energy efficiency, location, ecology, materials, indoor environmental quality, innovation and design process of sustainable development, so different green building evaluation systems are developed according to different situations in different countries.
請參閱第一圖,第一圖係為本發明的綠建築標章電子化評估系統之架構示意圖。如第一圖所示,本發明實施例之綠建築標章電子化評估系統100,主要用以評估一建築專案檔案是否符合一綠建築標章規範。綠建築標章電子化評估系統100包括使用者輸入介面110、建築物基本資料輸入模組120、自訂資料輸入模組130、遮陽資料輸入模組140、條件檢查模組150、資料庫160、表單產生模組170與多工平行計算處理器180。關於使用者輸入介面110,使用者輸入介面110用以提供讓使用者輸入建築專案檔案之建物資料CD,使用者可以透過將此綠建築標章電子化評估系統100安裝到桌機或筆電上,並且透過綠建築標章電子化評估系統100所提供之介面來進行綠建築專案資料之輸入。此外,本發明綠建築標章電子化評估系統100係由微軟視窗作業系統8之工具所開發,所以可相容於微軟視窗作業系統8以上之作業環境版本。Please refer to the first figure. The first figure is a schematic diagram of the structure of the green building label electronic evaluation system of the present invention. As shown in the first figure, the green building label
關於建築物基本資料輸入模組120,建築物基本資料輸入模組120連接至使用者輸入介面110,建築物基本資料輸入模組120可同時計算不同外殼功能規範,其包括一總量規範與一分項規範,其中使用者可以自行選擇總量規範或分項規範之其中之一以決定後續的計算方式。也就是是喔,綠建築標章電子化評估系統100會根據使用者所選擇之總量規範或分項規範來自動進行計算。關於自訂資料輸入模組130,由於有些類別資料可能出現族繁不及備載或隨時代持續更迭之情況發生,所以綠建築標章電子化評估系統100具有充足的擴充性與延展性,以讓使用者根據實際需求或不同情況來自訂資料。自訂資料輸入模組130連接至使用者輸入介面110,本發明之自訂資料輸入模組130可用以讓使用者來彈性地制定自訂植栽資料、自訂建材資料、自訂玻璃資料或自訂窗戶資料,上述之自訂植栽資料具有植栽特性欄位可讓使用者來細部設定,並且自訂窗戶資料包括窗戶尺寸、可開窗尺寸與玻璃種類。Regarding the building basic
關於遮陽資料輸入模組140,由於綠建築在遮陽的部分相當重要,所以實務上,建築物可能會有各式各樣的遮陽態樣結構產生或被設計出來,因此遮陽資料之相關輸入與如何計算也顯得非常重要。在本發明實施例中,遮陽資料輸入模組140連接至使用者輸入介面110,遮陽資料輸入模組140可以用以接收一水平遮陽資料、一垂直遮陽資料、一格子遮陽資料、一鄰棟遮陽資料或一自訂遮陽資料,以符合各種遮陽態樣之需求。上述三個模組皆是接收使用者所輸入之建物資料,使用者可以依據建物專案檔案來逐個輸入資料,至於是否符合綠建築標章規範,則需要進一步交由系統來判斷,以下將進一步說明條件檢查模組150。關於條件檢查模組150,條件檢查模組150連接至建築物基本資料輸入模組120、自訂資料輸入模組130與遮陽資料輸入模組140,條件檢查模組150主要用以檢查使用者所輸入之資料是否符合綠建築標章規範,如果條件檢查模組150檢查出所輸入之資料不符合綠建築標章規範之一範圍值,則會進行提醒或自動以邊界值作為輸入值,其中範圍值具有上限邊界值與下限邊界值。需注意的是,上限邊界值與下限邊界值都是根據綠建築標章規範所預設定。Regarding the shading
此外,為了符合最新版法規,條件檢查模組150更具有一規範同步單元152。規範同步單元152透過網際網路來自動更新條件以同步化已更新之綠建築標章規範,藉此以確定本發明之綠建築標章電子化評估系統100能夠以最新的標準來審核綠建築之相關資料。關於資料庫160,資料庫160連接至建築物基本資料輸入模組120、自訂資料輸入模組130與遮陽資料輸入模組140,資料庫160用以儲存建築物基本資料輸入模組120、自訂資料輸入模組130與遮陽資料輸入模組140的輸入資料。關於表單產生模組170,表單產生模組170連接至資料庫160,表單產生模組170用以根據使用者之動作與資料庫160內所儲存之資料來產生標的資料表單TS。關於多工平行計算處理器180,多工平行計算處理器180連接至建築物基本資料輸入模組120、自訂資料輸入模組130、遮陽資料輸入模組140、條件檢查模組150、資料庫160與表單產生模組170,多工平行計算處理器180用以根據綠建築標章規範來即時處理相關資料。在初步設定資料時,使用者可以透過使用者輸入介面110來於建築物基本資料輸入模組120輸入一海拔高度與一地址之資料以決定氣候資料,且輸入建築外殼面積、不透光屋頂構造面積與牆面構造面積,其中如果使用者所輸入之資料為海拔高度在800公尺以下,則可進一步輸入窗戶遮陽資料以自動計算日射透過率。In addition, in order to comply with the latest regulations, the
詳細來說,建築專案檔案包括基地表格文件,而基地表格文件包括基地綠化資料、基地保水資料、雨水儲存利用資料、生活維持水回收再利用資料與綠建材資料。在基本表格文件之種類中,表單產生模組170所產生之表單文件包括一屋頂平均熱傳導率評估計算表、一透光天窗平均日射透過率評估表、一玻璃可見光反射率評估表、一外牆平均熱傳透率評估表、一窗平均遮陽係數評估表、一立面開窗率評估表、一窗平均熱傳透率評估表與一住宅類建築可開啟窗面積比檢討表。在住宅類之表格文件中,表單產生模組170所產生之表單文件包括一外遮陽係數與外殼等價開窗面積計算表、一鄰棟建物遮陽係數檢討表、一指標計算表與一基準值檢討表。此外,表單產生模組170所產生之表單文件包括一外周區、內部區及被排除密閉樓地板面積計算查核表、一外殼傳透率計算表、透光部位傳透熱與日射透過熱計算表、鄰棟建物遮陽係數檢討表、實牆外殼傳透熱因子計算表。在學校或大型空間之種類中,表單產生模組170所產生之表單文件包括一學校類建築物正式評估表、一大型空間類建築物平均立面開窗率計算表與一大型空間類建築物評估表。Specifically, the construction project file includes base form files, and the base form files include base greening data, base water conservation data, rainwater storage and utilization data, living maintenance water recycling and reuse data, and green building materials data. Among the types of basic form files, the form files generated by the
另外,請參照第二圖,第二圖係為本發明的綠建築標章電子化評估系統之另一架構示意圖。本發明實施例之綠建築標章電子化評估系統更包括匯入模組與匯出模組,其都連接至資料庫,匯入模組用以提供讓使用者匯入資料且該匯出模組用以提供讓使用者匯出資料,藉此以提供使用者更方便地使用綠建築標章電子化評估系統100。In addition, please refer to the second figure, which is another schematic diagram of the structure of the green building label electronic evaluation system of the present invention. The electronic evaluation system for green building labels in the embodiment of the present invention further includes an import module and an export module, both of which are connected to the database. The group is used to allow users to export data, so as to provide users with more convenient use of the green building label
綜上所述,本發明所揭露之綠建築標章電子化評估系統能夠達到以下功效: 1. 有效率地審核建築專案檔案是否符合綠建築標章規範; 2. 能夠保持使用最新版之綠建築標章規範來進行審核; 3. 具有擴展性與延伸性以符合未來需求;以及 4. 具有自定義模組,可支援不同態樣之建築專案。To sum up, the green building label electronic evaluation system disclosed in the present invention can achieve the following effects: 1. Efficiently review whether the construction project file complies with the green building label specification; 2. Can keep using the latest version of the green building 3. Has scalability and extensibility to meet future needs; and 4. Has custom modules to support different styles of architectural projects.
唯以上所述者,僅為本發明之較佳實施例而已,並非用來限定本發明實施之範圍。故即凡依本發明申請範圍所述之特徵及精神所為之均等變化或修飾,均應包括於本發明之申請專利範圍內。The above descriptions are only preferred embodiments of the present invention, and are not intended to limit the scope of the present invention. Therefore, all equivalent changes or modifications based on the features and spirit described in the scope of the application of the present invention shall be included in the scope of the patent application of the present invention.
100:綠建築標章電子化評估系統
110:使用者輸入介面
120:建築物基本資料輸入模組
130:自訂資料輸入模組
140:遮陽資料輸入模組
150:條件檢查模組
152:規範同步單元
160:資料庫
170:表單產生模組
180:多工平行計算處理器
190A:匯入模組
190B:匯出模組
CD:建物資料
TS:標的資料表單100:Green Building Label Electronic Evaluation System
110: user input interface
120: Building basic data input module
130:Custom data input module
140: Sunshade data input module
150:Condition check module
152: Specification synchronization unit
160: Database
170:Form generation module
180: multitasking
第一圖係為本發明的綠建築標章電子化評估系統之架構示意圖。 第二圖係為本發明的綠建築標章電子化評估系統之另一架構示意圖。The first figure is a schematic diagram of the structure of the green building label electronic evaluation system of the present invention. The second figure is another structural schematic diagram of the green building label electronic evaluation system of the present invention.
100:綠建築標章電子化評估系統 100:Green Building Label Electronic Evaluation System
110:使用者輸入介面 110: user input interface
120:建築物基本資料輸入模組 120: Building basic data input module
130:自訂資料輸入模組 130:Custom data input module
140:遮陽資料輸入模組 140: Sunshade data input module
150:條件檢查模組 150:Condition check module
152:規範同步單元 152: Specification synchronization unit
160:資料庫 160: Database
170:表單產生模組 170:Form generation module
180:多工平行計算處理器 180: multitasking parallel computing processor
190A:匯入模組 190A: import module
190B:匯出模組 190B: Export module
CD:建物資料 CD: Building Information
TS:標的資料表單 TS: Target Data Form
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