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Design to Manufacture of Complex Building Envelopes: Single Layer Envelopes: Mullion-Transom Systems + 3D Printed Metal Nodes

為了解決Façade engineer的問題，作者Mohsen, Alamir 這樣論述：

Alamir Mohsen received his bachelor degree in Architecture in 2007. From 2007 to 2012, he worked as a technical architect and designer at various international companies in Cairo, Egypt, where he planned and designed several projects in the Middle East. From 2012 to 2014, he completed his master’s d

egree in Façade Engineering at the University of Applied Sciences in Detmold, Germany. From 2014 to 2018, he worked as a façade engineer at Bollinger und Grohman Ingenieure in Frankfurt, Germany. From 2014 to 2019, he was a research assistant and lecturer at the Technical University Darmstadt. In 20

18, he found his startup Lithium Architects GmbH in Frankfurt, and since then has served as company’s CEO.

Façade engineer進入發燒排行的影片

建築物雙層牆節能效果評估之研究

為了解決Façade engineer的問題，作者希蘇葳 這樣論述：

近年來，全球暖化與能源浪費之議題已經受到矚目。由於，建築物之使用階段將消耗大量能源，亦造成大量二氧化碳之排放，因此如何減少能源消耗係為管控之關鍵。而隨著建築技術、設計與材料之改善，雙層牆體(Double wall)已是現今常見的建築構件之一。根據相關研究成果指出，妥善規劃雙層牆體，可有效減緩室內溫度變化之程度，達降低溫度及減少冷卻溫度所需之能耗。惟這些研究中仍有不少因素尚未詳加考量，諸如牆體材料、牆體間之空隙，或是設置方位等。有鑑於改善能源消耗之重要性，本研究目的在於探討牆體材料與牆體間之空隙之最佳組合，並分析設置於建築物各方位之影響，以研析降低能源消耗之可能。本研究運用DesignBuil

der軟體中的EnergyPlus模組，進行各項材料與牆體間空隙之模擬。根據模擬成果可發現，若在建築物四周皆設置雙層磚牆，而且保持100mm的空隙，每年將可節省高達31,90% 的能源消耗。模擬內容反應出，雙層牆體之運用需視建築物各側陽光影響變化，有所差異；材料的U值亦直接影響雙層牆體之效能；牆體間之空隙與降低能源消耗成反比成長，而超過100mm以上之空隙，其影響將趨於平緩。

Constitutive Modelling and Failure Prediction for Silicone Adhesives in Façade Design

為了解決Façade engineer的問題，作者Drass, Michael 這樣論述：

Michael Drass trained as a civil engineer and received his Master’s degree in Structural Engineering from the University of Applied Sciences in Mainz, Germany. He subsequently pursued his Ph.D. studies at the Technical University of Darmstadt’s Institute of Structural Mechanics and Design, where he

focused on adhesive joints of all kinds in general glass constructions. This was also the subject of his dissertation on Constitutive Modelling and Failure Prediction of Silicone Adhesives in Façade Design. The author is currently working as a Post-Doc at the Technical University of Darmstadt. His w

ork here is dedicated to identifying areas of application for artificial intelligence (AI) in civil engineering with a special focus on structural glass constructions. This topic is also the focus of the start-up founded by Michael Drass and Michael Kraus, M&M Network-Ing UG, which primarily develop

s and implements AI applications for companies.

建築工程機電系統施工界面整合之探討

為了解決Façade engineer的問題，作者陳曉晴 這樣論述：

在傳統建築工程中，機電系統由於其種類複雜與施工多樣之特性，在施工階段常常因為缺乏事前完整之界面整合，以致造成施工程序紊亂、天花板完成面高度不夠、變更設計及工期延宕，使整體工期與品質受到影響。為改善此種情形，本研究將探討機電系統施工界面整合之方式，經由專家訪談及工地調查，透過知識擷取之方式建立整合排序邏輯，並以一實際之案例做驗證，進行機電系統界面分析以及界面整合之探討。本研究將整合方式分為兩個階段－套圖階段及施工階段界面整合。套圖階段整合為機電工程第一次之界面整合，主要進行平面的設備與管路2D整合，並解決3D的衝突與管路高程分配，透過套圖階段界面整合表依整合及排序原則進行比較，得到設備及管路平

面與立體空間整合之結果。施工階段整合為第二次之界面整合，藉由施工階段工作界面表所釐清之排序原則，進行施工階段界面整合，得到各系統各工項施工排序，避免前置作業與後續作業混淆。依據二階段界面整合之結果，建立各系統及全系統分項施工排序以及施工排序邏輯網圖供現場做較佳之時程管控依據。機電工程因為種類及工項繁瑣而複雜，現場管理需要仰賴經驗豐富之工程師，本研究即是將這些經驗條理化與邏輯化，透過套圖階段及施工階段之整合，找出合理的機電系統施工排序。因為施工前透過完整之界面整合解決了空間衝突與排序邏輯，機電工程施工中經常面臨之問題即可獲得釐清，如此，經常發生之變更設計、管路衝突及天花板高度不足之問題即可避免，

工期與工程品質即可達到如期如質如式之成果。