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A Sound Approach to Concrete: Transforming Concrete Through Shape and Porosity for Acoustical Reflection, Diffusion, and Absorption 混凝土的声音方法:通过形状和孔隙度来改变混凝土的声反射、扩散和吸收
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863673
D. Butko
The shape, interior volume, and materiality of the built environment influence occupant perception of sound. Placement and articulation of surfaces directly relate to how sound is reflected, diffused, and absorbed prior to aural reception and comprehension. Researchers experimented with and fabricated prototypical aerated concrete sawtooth panels by manipulating ingredients and form, yielding acoustical properties conducive to speech frequencies (specifically Noise Reduction Coefficients). While acoustical measurements were primarily focused on multi‐use educational spaces, laboratory testing and development of frequency‐responsive porosity revealed data for evidence‐based design applicable to various occupancy types. Attention to the spatial interactions of sound and noise corrected common speech intelligibility and clarity deficiencies by decreased reverberation times, linking surface, form, and spatial volume to reflection, diffusion, and absorption.
建筑环境的形状、内部体量和材质都会影响居住者对声音的感知。表面的位置和衔接直接关系到声音在听觉接收和理解之前如何被反射、扩散和吸收。研究人员对加气混凝土锯齿板进行了实验,并通过操纵成分和形状来制造原型,从而产生有利于语音频率(特别是降噪系数)的声学特性。虽然声学测量主要集中在多用途教育空间,但实验室测试和频率响应孔隙度的开发揭示了适用于各种占用类型的基于证据的设计数据。通过减少混响时间,将表面、形状和空间体积与反射、扩散和吸收联系起来,对声音和噪音的空间相互作用的关注纠正了常见的语音可理解性和清晰度缺陷。
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引用次数: 3
Methods: How We Invent and Research 方法:我们如何发明和研究
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863678
A. Zarzycki
TA D 5 : 1 E D TO R IA L “[O]ur writing tools are also working on our thoughts” summarizes Friedrich Nietzsche’s experience using one of the early typewriters: a Malling-Hansen Writing Ball. His experience speaks directly to the tool-and-thought continuum evident in creative disciplines. It is also mirrored by Marshall McLuhan’s “the medium is the message” claim emphasizing the importance of the mechanism delivering the content. New tools and technologies (methods) often manifest themselves in new outcomes. While general questions remain unchanged, new methods can lead to qualitatively new answers. Thus, the focus of this issue is on how we invent, develop, and deliver new knowledge. Doris Sung advocates for expanding the entrepreneurial mindset within AEC disciplines by broadening architects’ services from exclusively client-oriented to product and building technology development. Sung uses her own experience as an inventor and developer of the InVert passively dynamic self-shading window to draw broader lessons for others following a similar path. This entrepreneurial path allows designers to respond to current and emerging social, technological, and environmental concerns by defining their own research questions and problems to solve—giving them autonomy and agency. In a voice coming from the allied discipline of civil engineering, Amy Seif Hattan demonstrates how collaborative research between an engineering firm and academia helps to validate best sustainable practices and ultimately become a catalyst for firm-wide environmentally focused transformation. The added benefit of this collaboration was the firm’s ability to offer new embodied carbon design services and gain market advantage over its competitors in addition to fostering a mutually beneficial relationship with academic researchers. In a similar way, the evidence-based design method helps practitioners to learn from their past projects and bring greater value to their clients. Galen Cranz, Lusi Morhayim, Georgia Lindsay, and Johann (Hans) Sagan emphasize the necessity of post-occupancy evaluation (POE) research in architecture, both in practice and academia, to address users’ manifest and latent needs. Christopher Pagano, Brian Day, and Leah S. Hartman expand the discussion of human factors in architecture by contextualizing it within a broader ecological psychology framework that sees people and the environment as interdependent. The authors point to affordance as a key characteristic that empirically quantifies this relationship. Precedents, either environmental performance data points or user feedback, are critical components of the architectural design process (method). William Braham in his review of Case Study Strategies for Architects and Designers by Marja Sarvimäki reiterates the importance of case studies as one of the primary architectural research methods and grounds it in a larger interdisciplinary perspective. He also reiterates the importance of research methods, and
“我们的书写工具也作用于我们的思想”,这是弗里德里希·尼采使用一种早期打字机的经验总结:马林-汉森书写球。他的经历直接说明了创造性学科中显而易见的工具和思想的连续性。马歇尔·麦克卢汉(Marshall McLuhan)强调传递内容的机制的重要性的“媒介即信息”主张也反映了这一点。新的工具和技术(方法)往往会产生新的结果。虽然一般问题保持不变,但新方法可以带来定性的新答案。因此,这个问题的焦点在于我们如何发明、开发和传递新知识。Doris Sung主张通过将建筑师的服务从专门以客户为导向扩展到产品和建筑技术开发,在AEC学科中扩展企业家的思维。作为InVert被动动态自遮阳窗的发明者和开发者,宋用她自己的经验为遵循类似道路的其他人吸取更广泛的教训。这种创业路径允许设计师通过定义自己的研究问题和要解决的问题来应对当前和新兴的社会、技术和环境问题——赋予他们自主权和代理权。来自土木工程相关学科的Amy Seif Hattan展示了工程公司和学术界之间的合作研究如何有助于验证最佳可持续实践,并最终成为全公司范围内以环境为重点的转型的催化剂。这次合作的额外好处是,除了与学术研究人员建立互利的关系外,该公司还能够提供新的隐含碳设计服务,并获得比竞争对手更大的市场优势。同样,基于证据的设计方法可以帮助从业者从过去的项目中学习,为客户带来更大的价值。Galen Cranz、Lusi Morhayim、Georgia Lindsay和Johann (Hans) Sagan强调了在建筑实践和学术界进行使用后评估(POE)研究的必要性,以解决用户明显和潜在的需求。Christopher Pagano, Brian Day和Leah S. Hartman将建筑中的人为因素置于更广泛的生态心理学框架中,将其视为人与环境相互依存的关系,从而扩大了对建筑中人为因素的讨论。作者指出,作为经验量化这种关系的关键特征,提供性。先例,无论是环境绩效数据点还是用户反馈,都是建筑设计过程(方法)的关键组成部分。William Braham在他对Marja Sarvimäki的建筑师和设计师案例研究策略的回顾中重申了案例研究作为主要建筑研究方法之一的重要性,并将其置于更大的跨学科视角中。他还重申了研究方法的重要性,特别是案例研究,考虑到越来越多的新的研究型建筑项目。在DFAB住宅的案例中,方法和技术协同成一个单一的设计工作流程和一个迷人的结构。Konrad Graser、Arash Adel、Marco Baur、Daniel Sanz Pont和Andreas Thoma在视觉和技术上都做出了丰富的贡献,展示了将先进的制造研究与建筑装配相结合。它展示了工具和方法是建筑构思和制作的重要驱动力。这个制造演示也许最直接地说明了尼采的思想与结果的联系,在那里,每一个细节和组装都是在以物理形式出现之前被数字解决和实现的。在Blaine Brownell对3d打印木材的评论中,出现了一种不同的制造方式,作为最古老和最常见的建筑材料之一的潜在新化身。虽然它的3d打印版本可能没有同样的效果,但它表现出新的品质和能力。Brownell的观点对技术、环境和感官方面以及可能的未来应用进行了平衡和深入的批判性评估。沉浸在TAD OPEN方法问题中,我们应该受到建筑研究的广度和方法的多样性的鼓舞和鼓舞,这些方法在考虑人类条件和环境的同时,与最新的技术创新保持联系。
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引用次数: 0
An Argument Framework for Ecological Psychology and Architecture Design 生态心理学与建筑设计的论证框架
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863665
C. Pagano, Brian J. Day, Leah S. Hartman
Integral to the scientific process are theoretical frameworks that motivate specific research questions and empirical methodologies. This paper introduces ecological psychology and argues that it can serve as a new theoretical framework for architecture and design. Ecological psychology holds that people and their environments must be defined relative to each other, with this relationship being empirically quantified by affordances, and that the perception of affordances does not require mental representations or cognitive deliberations. This theory has driven the expansion of human factors, which applies basic research in perception, cognition, and motor function to the design of artifacts in the real world. Ecological psychology provides an empirically testable theory that can inform design choices and assess proposed designs’ functionality.
科学过程中不可或缺的是激发具体研究问题和实证方法的理论框架。本文介绍了生态心理学,认为它可以作为建筑和设计的一个新的理论框架。生态心理学认为,人和他们的环境必须是相互关联的,这种关系可以通过启示来量化,而且对启示的感知不需要心理表征或认知思考。这一理论推动了人为因素的扩展,将感知、认知和运动功能的基础研究应用于现实世界中人工制品的设计。生态心理学提供了一种经验可检验的理论,可以为设计选择提供信息,并评估设计的功能。
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引用次数: 6
Validating an Emerging Design Area through Industry‐Academia Research Partnerships 通过产学研合作验证新兴设计领域
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863661
Amy Seif Hattan
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引用次数: 0
Building Integrated Evaporative Cooling Utilizing Pervious Concrete 利用透水混凝土的建筑整体蒸发冷却
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863675
A. Timmer
This research proposes an integrated building evaporative cooling assembly using pervious concrete acting as a thermally active system. The proof‐of‐concept prototype demonstrates the capacity of the system. The prototype simulates the operation of a wall assembly of pervious concrete that utilizes gravity to drive water through its matrix. The wall assembly lowers the interior surface temperature of the concrete by 9–11°F and the interior air temperature of the insulated box by 7°F. This research demonstrates the capacity of an integrated wall assembly utilizing pervious concrete acting as a non‐technical ceramic evaporative cooling wall assembly.
本研究提出了一种综合建筑蒸发冷却装置,使用透水混凝土作为热活性系统。概念验证原型展示了系统的能力。该原型模拟了透水混凝土墙体组件的操作,利用重力将水通过其基质。墙体组件使混凝土内表面温度降低9-11°F,保温箱内空气温度降低7°F。本研究展示了利用透水混凝土作为非技术陶瓷蒸发冷却墙组件的集成墙组件的能力。
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引用次数: 1
Molding Liquid Stone: A Computational and Experimental Mixed‐Method Study of 3D Print Formwork for Interlocking Concrete Modules 模塑液石:一种用于互锁混凝土模块的3D打印模板的计算和实验混合方法研究
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863677
N. Emami
With bespoke fabrication on one end, and mass production on the other end of the fabrication spectrum, this study investigates custom repetitive manufacturing through molding concrete by using 3D printed formwork. The process demonstrates a proof‐of‐concept for 3D printing elastic resin as a formwork for repeated casting of interlocking concrete blocks. Among the challenges are the method of digitally generating the block geometry and designing the molds to accommodate complex curvatures on four sides of a block while operating within the material limitations of 3D printing with an elastic material. The overall process investigates the limitations of such a system in order to identify future potential for mass customized fabrication employing casting techniques.
一方面是定制制造,另一方面是大规模生产,本研究通过使用3D打印模板成型混凝土来研究定制重复制造。该过程展示了3D打印弹性树脂作为重复浇筑互锁混凝土块的模板的概念验证。其中的挑战是数字生成块几何形状和设计模具的方法,以适应块的四个侧面的复杂曲率,同时在具有弹性材料的3D打印的材料限制内操作。整个过程调查了这种系统的局限性,以确定采用铸造技术进行大规模定制制造的未来潜力。
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引用次数: 2
Re‐Opening 重新量开
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863654
M. Uihlein
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引用次数: 0
TAD 5:1 Issue PDF TAD 5:1 Issue PDF
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1908056
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引用次数: 0
Research Redux 研究回来的
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863660
D. M. Addington
TA D 5 : 1 Research Redux I was about three years into my doctoral studies at Harvard’s GSD when three questions, or more accurately, three challenges to my work, were posed. For context, I was part of the initial wave of academic researchers and practitioners who were enamored with all things “smart,” particularly walls in whatever nominative designation rendered them as technologically advanced and functionally, if not formally novel: smart skins, intelligent facades, performative glazing, interactive surfaces, adaptive envelopes. Inspired by the cover of James Marston Fitch’s seminal text, American Building: The Environmental Forces That Shape It, depicting a building envelope as mediating the full sweep of environmental phenomena, I planned to develop a wall system to control all scales of heat transfer, thereby covering thermal, luminous, and acoustic behaviors—the ultimate smart wall. The first challenge came from one of my doctoral advisors in Mechanical Engineering who kept asking me what my hypothesis was. I thought he simply didn’t understand; in Architecture, we dealt with big ideas. The second challenge came from my doctoral advisor in Environmental Health, who kept pressing me on method. How was I going to determine the value of what I produced? What were my criteria? I thought he didn’t understand that true innovation lay beyond the bounds of the known and should not be constrained by the limits of measurable criteria. The third challenge lit the proverbial light bulb when I took an undergraduate course on Plato and the Socratic Elenchus and discovered my writing less than enthusiastically received. I expected to excel as I had in all of my previous classes in Architecture, but I was instead roundly criticized for my overly personal reinterpretation of Socrates’ argument. It was at that point I began to realize the argument I put forward as a thesis was but an empty vessel, a diversion to obscure that there was indeed no thesis. My entire approach was predicated on what I wanted to do, to make, and I justified the project by self-determining both the criteria for measuring the results and the ultimate value of the results. I was completely trapped in the closed circularity of my personal view. So I inverted my thesis: instead of technologically advanced smart walls, I shifted the smartness directly to the atmospheric physical phenomena that we had heretofore attributed to the walls. It was enough of a shift that the hypothesis and method were deemed acceptable by my circumspect advisors. While I am proud of the resulting thesis, it was only a first step toward a lifelong rethinking and reassessment of how our profession develops research questions, brings objectivity to its methods, and, most importantly, frames meaningful contribution. There have been many missteps and retrenchments along the way, and I am grateful to the intrepid doctoral students who hung in there with me as I tested and retreated from different methodological pa
我在哈佛大学GSD读博大约三年的时候,有三个问题,或者更准确地说,是对我工作的三个挑战。就背景而言,我是最初一波痴迷于所有“智能”事物的学术研究人员和实践者中的一员,特别是墙壁,无论其名称如何,都使它们在技术上先进,功能上,如果不是形式上新颖的话:智能皮肤,智能立面,表演玻璃,互动表面,自适应信封。受詹姆斯·马斯顿·费奇的影响深远的著作《美国建筑:塑造它的环境力量》封面的启发,该书将建筑围护结构描述为调节所有环境现象的媒介,我计划开发一种墙壁系统来控制所有尺度的热量传递,从而覆盖热、光和声学行为——最终的智能墙。第一个挑战来自我的一位机械工程博士导师,他一直问我的假设是什么。我以为他根本不明白;在建筑学中,我们处理大的想法。第二个挑战来自我的环境健康博士导师,他一直在方法上催促我。我如何确定我生产的产品的价值呢?我的标准是什么?我认为他不明白真正的创新超越了已知的界限,不应该受到可衡量标准的限制。第三个挑战是当我上了一门关于柏拉图和苏格拉底的课程时,我发现我的作品并没有受到热烈的欢迎。我希望能像以前所有的建筑学课一样出色,但我却因为对苏格拉底论证的过于个人化的重新解释而受到严厉的批评。就在那时,我开始意识到,我作为论文提出的论点不过是一个空容器,是为了掩盖根本没有论文的事实。我的整个方法都是基于我想做什么,想做什么,并且我通过自我确定测量结果的标准和结果的最终价值来证明项目的合理性。我完全被困在我个人观点的封闭循环中。所以我改变了我的论点:我没有采用技术先进的智能墙,而是将智能直接转移到大气物理现象上,这是我们迄今为止归因于墙壁的。这是一个很大的转变,我的假设和方法被我谨慎的顾问们认为是可以接受的。虽然我为最终的论文感到自豪,但这只是我一生中重新思考和重新评估我们的专业如何提出研究问题,如何为其方法带来客观性,最重要的是,如何构建有意义的贡献的第一步。在这一过程中,我经历了许多失误和缩减,我很感激那些勇敢的博士生,他们在我测试和退出不同的方法路径时,一直陪伴着我。下面的观察回顾了过去的几十年,并提出了我们如何进行研究的几个特征,特别是那些解决我们生产什么和如何生产的物理方面的研究。
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引用次数: 0
Evaluating Energy Targets and Efficiency Measures in Multifamily Subtropical Buildings through Automated Simulation 基于自动化仿真的多户亚热带建筑能源目标与节能措施评价
Q1 Arts and Humanities Pub Date : 2021-01-02 DOI: 10.1080/24751448.2021.1863676
Wendy Meguro, Elliot J. Glassman
Building operation accounts for a significant portion of global greenhouse gas emissions. Hawaii is committed to 100 percent clean energy by 2045. This study demonstrates a replicable process using early design phase energy modeling to reduce energy use in multifamily residential buildings in subtropical climates. The team simulated the design of air‐conditioned buildings that can reduce annual energy use 29–61 percent compared to the International Energy Conservation Code, with an additional 10 percent savings if air conditioning is not used. The results inform the design of multifamily residential buildings by identifying building characteristics with the largest impact on energy use, energy cost, peak loads, and greenhouse gas emissions. The study demonstrates that generating 100 percent of annual site energy is possible using a combination of design measures and rooftop solar panels.
建筑操作占全球温室气体排放的很大一部分。夏威夷承诺到2045年实现100%的清洁能源。本研究展示了一个可复制的过程,使用早期设计阶段的能源模型来减少亚热带气候下的多户住宅建筑的能源使用。该团队模拟了空调建筑的设计,与国际节能法规相比,空调建筑每年可以减少29 - 61%的能源消耗,如果不使用空调,还可以节省10%的能源。通过确定对能源使用、能源成本、峰值负荷和温室气体排放影响最大的建筑特征,研究结果为多户住宅的设计提供了信息。研究表明,利用设计措施和屋顶太阳能电池板的结合,每年产生100%的现场能源是可能的。
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引用次数: 0
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Technology Architecture and Design
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