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Digital Reconstruction and Restoration of Architectural Heritage: Samara House 建筑遗产的数字化重建与修复:萨马拉之家
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116243
Junhao Li, Huzefa Jawadwala, Annika Pan, Jungho Jeon, Y. Lin, Meghdad Hasheminasab, Hongxi Yin, A. Habib, Hubo Cai, Ming Qu
Samara House, built in 1956 with its surrounding landscape, is one of the National Historic Landmarks for its unique Usonian architectural heritage. The house shows signs of aging and significant structural damage. This article presents a case study of the preservation of Samara House through a highly digitized reconstruction framework. The study presents an innovative digital reconstruction and restoration of the historic built heritage using advanced Terrestrial Laser Scanning (TLS) and Ground Penetration Radar (GPR) technologies to achieve accurate and fast documentation, modeling, and digital reconstruction. The research outputs build the basis of the restoration of Frank Lloyd Wright’s Samara house and the effects of structural degradation. The study creates a better understanding of structural degradation in historic architecture and changes how we approach landmark preservation and conservation. Finally, the project exposes architecture and engineering students at different levels to multidisciplinary learning through pragmatic and productive research to produce a new education model that prioritizes interdisciplinary collaboration with an attentive eye to the future of digital research in historic preservation and restoration design.
萨马拉之家建于1956年,周围景观优美,因其独特的乌索尼亚建筑遗产而被列为国家历史地标之一。这所房子有老化和严重结构损坏的迹象。本文介绍了一个通过高度数字化重建框架保护萨马拉之家的案例研究。该研究采用先进的地面激光扫描(TLS)和探地雷达(GPR)技术,对历史建筑遗产进行了创新的数字重建和修复,以实现准确、快速的文档、建模和数字重建。研究成果为Frank Lloyd Wright的Samara住宅的修复和结构退化的影响奠定了基础。这项研究对历史建筑的结构退化有了更好的理解,并改变了我们对待地标性建筑保护和保护的方式。最后,该项目通过务实和富有成效的研究,为不同层次的建筑和工程学生提供了多学科学习的机会,从而产生了一种新的教育模式,优先考虑跨学科合作,并密切关注历史保护和修复设计中数字研究的未来。
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引用次数: 1
Evolution of Modeling for Lightweight Structures: Creating the Munich Olympic Stadium Roof (1967–72) 轻量化结构建模的演变:创造慕尼黑奥林匹克体育场屋顶(1967-72)
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116242
Rob Whitehead
The experimental structural qualities of the Munich Olympic Stadium roof compelled formative innovations in modeling techniques responsive to those conditions. The novel use of large-scale physical models allowed the team to navigate the complicated nature of generative form-finding for lightweight structures by balancing the various parameters of forms and forces. Although physical modeling was initially beneficial, it became obsolete as refinement and confirmation became requisite. The cable-net structure exceeded conventional capacity for analysis, which drove the engineers to evolve their confirmative modeling methods. Instead of abandoning the parametric logic of these physical models, the design team embraced this approach and applied their complementary interdisciplinary expertise to create two groundbreaking computational modeling techniques that are still in use today. Their modeling techniques exceeded their mandate for simple confirmation and evolved into the first generative and optimizing parametric modeling options for lightweight structures. The findings will show how the evolving use of these models and the collaborative complications that ensued situate contemporary challenges of experimental design, technology, and practice.
慕尼黑奥林匹克体育场屋顶的实验性结构质量迫使建模技术的形成创新响应这些条件。大规模物理模型的新颖使用使团队能够通过平衡各种形式和力的参数来导航生成形式寻找轻质结构的复杂本质。虽然物理建模最初是有益的,但随着改进和确认变得必要,它变得过时了。索网结构超出了传统的分析能力,这促使工程师们不断发展他们的确证建模方法。设计团队没有放弃这些物理模型的参数化逻辑,而是采用了这种方法,并应用了他们互补的跨学科专业知识,创造了两种开创性的计算建模技术,这些技术至今仍在使用。他们的建模技术超越了简单确认的任务,并发展成为轻量级结构的第一个生成和优化参数化建模选项。研究结果将展示这些模型的不断发展的使用,以及随之而来的协作复杂性如何应对实验设计、技术和实践的当代挑战。
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引用次数: 0
Mies’s Teaching Laboratory: From Convention Hall to McCormick Place 密斯的教学实验室:从会议厅到麦考密克广场
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116241
Zaida Garcia-Requejo, K. Jones
The Convention Hall in Chicago was the largest structure ever proposed by Ludwig Mies van der Rohe and demonstrated what he meant by structure as an architectural factor. This paper traces a path between the unbuilt Convention Hall proposal developed by Mies and the McCormick Place Convention Center constructed in Chicago, designed by his graduate student, Gene Summers, at C.F. Murphy. Making connections to students’ work—two master’s theses and one built work—illustrates how fundamental structure and structural engineering were in the architectural pedagogy at Illinois Institute of Technology (IIT) and how tightly research, pedagogy, and practice were integrated. It compares these projects graphically and quantitatively and fills in critical gaps on the influences leading up to the building of McCormick Place.
芝加哥的会议大厅是路德维希·密斯·凡德罗提出的最大的建筑,并证明了他所说的结构作为建筑因素的意义。本文追溯了密斯提出的未建成的会议大厅提案和他的研究生吉恩·萨默斯在C.F. Murphy设计的芝加哥麦考密克会议中心之间的路径。将学生的作品与两篇硕士论文和一篇建筑作品联系起来,说明了伊利诺伊理工学院(IIT)建筑教育学中的基础结构和结构工程,以及研究、教学和实践是如何紧密结合在一起的。它对这些项目进行了图形和数量上的比较,并填补了导致麦考密克广场建筑的影响的关键空白。
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引用次数: 0
Research Methods for Environmental Studies: A Social Science Approach 环境研究的研究方法:一种社会科学方法
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116244
Connie Svabo
to inquire into complex environmental issues. Author Mark Kanazawa asserts there has been a growing interest in environmental studies across colleges in the US, with many new programs focusing on environmental studies. This book is a resource well-suited for introductory educational purposes. It provides coherent and easily accessible accounts of research history and paradigms. It provides accessible examples of research questions and research projects from environmental studies. The author draws on his experience as an economist working in interdisciplinary research teams to highlight and provide examples of environmental research problems explored in disciplinary collaboration. The book consists of 19 chapters with content that roughly falls into three categories: quantitative research, methods for qualitative research, and themes that crosscut the qualitative/quantitative divide. The book includes basic methodological approaches of ethnography, spatial analysis, and GIS and approaches to data collection such as sampling, interviewing, and surveying. The book provides chapters on ethics and on writing a research proposal. The strength of the book is its accessibility, tone, and breadth. It provides a relevant historical framing of research methods and history of knowledge, describes a range of research methods, makes them accessible for student projects in environmental studies, and supports educators and students with suggestions for exercises and discussion points. The book has a friendly and easy-going tone and includes helpful boxes that frame essential learning points, including summaries of key points. For example, on page 3: “Bottom line: It took a series of scientists, doing painstaking research and building on previous scientific findings, to give us the knowledge of global warming that we have today.” The topics mentioned as potential research foci are “ongoing climate change, air, and water pollution, increasingly scarce freshwater resources, production of hazardous wastes, depleted natural resources, destruction of rain forests, habitat destruction, [and] growing lists of endangered species.”1 These are complex and dynamic phenomena of intraand intersystemic characters. They are wicked problems—problems with no easy solutions and problems typically characterized by disagreement among stakeholders about what has caused them, how they should be perceived and how we might handle them.2 The wicked nature of environmental problems forms the basis of a book critique. The presented methods aim at academic discussion and policy more than actual change-making for real-world impact. The book does not engage with designerly ways of producing knowledge through making, prototyping, or other cyclical, constructive, and generative processes. Nor with process-oriented design approaches such as participatory design. Students of technology, architecture, design, and engineering most likely will want to supplement the book with designand practice-orie
调查复杂的环境问题。作者马克·金泽(Mark Kanazawa)声称,美国大学对环境研究的兴趣越来越大,许多新项目都专注于环境研究。这本书是非常适合介绍性教育目的的资源。它提供了连贯和易于访问的研究历史和范式的帐户。它提供了来自环境研究的研究问题和研究项目的可访问示例。作者利用他作为一名在跨学科研究团队中工作的经济学家的经验,强调并提供了在学科合作中探索的环境研究问题的例子。本书共有19章,内容大致分为三类:定量研究、定性研究方法和贯穿定性/定量鸿沟的主题。这本书包括民族志,空间分析和地理信息系统的基本方法和方法的数据收集,如抽样,访谈和调查。这本书提供了关于伦理和撰写研究计划的章节。这本书的优势在于它的易读性、基调和广度。它提供了一个相关的历史框架的研究方法和知识的历史,描述了一系列的研究方法,使他们在环境研究的学生项目访问,并支持教育工作者和学生的建议练习和讨论点。这本书有一个友好和随和的基调,包括有用的框框架的基本学习要点,包括要点的总结。例如,在第3页:“底线:一系列科学家进行了艰苦的研究,并在以前的科学发现的基础上,为我们提供了今天的全球变暖知识。”潜在的研究重点是“持续的气候变化、空气和水污染、日益稀缺的淡水资源、有害废物的产生、自然资源的枯竭、雨林的破坏、栖息地的破坏,以及越来越多的濒危物种。”这些都是系统内部和系统间特征的复杂动态现象。这些都是棘手的问题——这些问题没有简单的解决方案,而且这些问题的典型特征是利益相关者在导致这些问题的原因、如何看待这些问题以及我们应该如何处理这些问题上存在分歧环境问题的邪恶本质构成了一本书评论的基础。所提出的方法旨在学术讨论和政策,而不是为现实世界的影响做出实际的改变。这本书没有通过制作,原型或其他周期性,建设性和生成过程的生产知识的设计师的方式参与。参与式设计等面向过程的设计方法也不适用。技术、建筑、设计和工程专业的学生最有可能想要用设计和实践为导向的方法来补充这本书,这些方法教人们如何干预世界,与利益相关者合作,清晰地沟通,以及实践创造性的问题解决方法。这些都是处理邪恶挑战时非常重要的能力。与这些方法最接近的一章是关于行动研究的,这是一种将知识创造过程扩展到共同创造和参与方法的研究方法。在行动研究的描述中,描述了学生和较资深研究人员的项目,这些项目涉及与社区合作,通过研究确定和改善特定的环境问题,例如与环境有关的健康风险。这本书通过将其归入跨学科的标题下而忽略了跨学科的研究。然而,跨学科的一个重要特征是它在现实世界的情况下与现实世界的参与者接触。跨学科方法在帮助建立处理混乱的知识过程和产品的能力方面表现出色。教育学者朱莉·汤普森·克莱因(Julie Thompson Klein)将跨学科与学术界和科学界日益增长的行动需求意识联系起来,并将可持续发展、气候变化、环境风险和污染等科学联系起来,寻求改变,寻求小规模和大规模的变化,这是合乎伦理的环境研究研究方法:一种社会科学方法
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引用次数: 0
ENGINEERING: Call for Papers 工程学:论文征集
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116233
C. Ford
Just as developing an ability to design is not exclusive to designers, neither is the ability to engineer within the exclusive purview of engineers. AEC is a common acronym for signaling the three professional disciplines historically responsible for shaping the built environment. Such nomenclature may imply a systemic culture of siloed decision-making, however, decisions shaping the built environment do not originate and reside wholly within discipline-specific boundaries. Today, whether focused on a discrete intervention or a grand challenge, an effective agency within the built environment requires the cross-disciplining of skillsets for use across the phases of project conception, development, and execution.
就像培养设计能力不是设计师的专利一样,工程师的能力也不是工程师的专利。AEC是一个共同的首字母缩略词,表示历史上负责塑造建筑环境的三个专业学科。这样的命名可能意味着孤立决策的系统文化,然而,塑造建筑环境的决策并不完全起源于特定学科的边界。今天,无论是专注于离散的干预还是重大的挑战,建筑环境中的有效机构都需要跨学科的技能集,以便在项目概念、开发和执行的各个阶段使用。
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引用次数: 0
Multimaterial Knit Skins: A Design-to-Fabrication Workflow for Mass Customized Freeform Membrane Panels 多材料编织皮肤:大规模定制自由形式膜板的设计到制造工作流程
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116239
Yingmei Tan, Pei Zhi Chia, Yu Han Quek, Kenneth Tracy, Christine Yogiaman
This paper presents a design-to-fabrication workflow to customize multimaterial CNC knitted textiles to form nonstandardized and nondeveloped curved surfaces for façade cladding skins. These are bespoke membrane panels knitted with heterogenous elasticity and shaped out-of-plane by bendable rods to form pre-tensioned 3D freeform surfaces without needing conventional cut-and-join processes. This research culminates in the Knit Patterned Flow pavilion. The workflow is implemented across 35 uniquely shaped scalloped panels assembled as a modular paneling system to create a visually continuous spatial envelope.
本文提出了一种多材料数控针织布的设计-制造流程,用于定制表面包覆皮的非标准化和非开发曲面。这些是定制的膜板,具有异质弹性,通过可弯曲杆形成平面外的形状,形成预拉伸的3D自由曲面,而无需传统的切割和连接过程。这项研究在Knit Patterned Flow展馆中达到高潮。工作流程是在35个形状独特的扇形面板上实现的,这些面板组装成一个模块化的面板系统,以创建一个视觉上连续的空间包络。
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引用次数: 0
Changing Perspectives: Bridging Design and Engineering in Architectural Research 变化的视角:建筑研究中的设计与工程的桥梁
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2114231
A. Schultz, Julian Wang
TA D 6 : 2 Nowadays, the design process for a building is increasingly difficult to define as it may involve innovative material integration, advanced design computation, and analytical decision-making, combined with various engineering and technical applications. Reflecting on this, the necessary and productive links between architectural design and engineering are undisputable. The peer-review papers in this issue demonstrate shifts in research perspectives not only closely linking engineering and design tools but also focusing on a critical analysis of the design and engineering process, including formats and voices frequently not considered in the past. The papers in Engineering confirm a rising recognition of collaborative authorship of many team members and continuing horizontal integration of disciplines observing the design phase, the outcome, and the lifecycle of structures. Three papers of the five in this issue address history and theoryrelated themes, adding further nuance to existing bodies of knowledge. In the twentieth century, numerous architects and engineers expressed the need to bridge design and engineering, advocating for integrated design methods and fabrication workflows. The Italian engineer Pier Luigi Nervi advocated for “architectural resilience,” an evolving relationship between architectural materiality, techniques, and forms. As laid out by Kristin Jones and Zaida Garcia-Requejo in their paper “Mies’ Teaching Laboratory: from Convention Hall to McCormick Place,” Mies van der Rohe predicted a type of “structural architecture,” fostering teamwork between structural engineers and architects in his classroom at IIT and practice. The authors expand the existing body of scholarly research around Mies van der Rohe by investigating the collaborative nature of the classroom, identifying influential teaching principles, thesis projects, and buildings acting as touchstones in the development of McCormick Place (Lakeside) Convention Center in Chicago. Students thesis projects, oral histories, and less frequently heard voices are part of the investigation, documenting a complex network of links between Mies' unbuilt proposal for a Convention Hall for Chicago and McCormick Place (Lakeside) Convention Center. In “The Evolution of Modeling for Lightweight Structures: Creating the Munich Olympic Roof (1967—72),” Robert Whitehead contextualizes the evolving modeling methods used during the conception of the Munich Olympic stadium roof by discussing the complexities of structural behavior found in lightweight cable nets. The paper also accounts for the innovative contributions of many more team members than are commonly acknowledged and illustrates the unique interdisciplinary roles of the architects and engineers involved in a dynamic, collaborative process. In the reconstruction and restoration research paper about the SAMARA House designed by Frank Lloyd Wright, Li et al. detail how a digital-centered multistage framework supports th
如今,建筑的设计过程越来越难以定义,因为它可能涉及创新的材料集成,先进的设计计算和分析决策,结合各种工程和技术应用。反思这一点,建筑设计和工程之间的必要和生产性联系是无可争议的。本期的同行评议论文展示了研究视角的转变,不仅将工程和设计工具紧密联系在一起,而且注重对设计和工程过程的批判性分析,包括过去经常不考虑的格式和声音。《工程》杂志上的论文证实了对许多团队成员的合作署名的不断提高的认识,以及对设计阶段、结果和结构生命周期的学科的持续水平集成。本期五篇论文中有三篇涉及历史和理论相关主题,为现有的知识体系增添了进一步的细微差别。在20世纪,许多建筑师和工程师表达了将设计和工程联系起来的需要,提倡综合设计方法和制造工作流程。意大利工程师Pier Luigi Nervi提倡“建筑弹性”,即建筑材料、技术和形式之间不断发展的关系。正如Kristin Jones和Zaida Garcia-Requejo在他们的论文《密斯的教学实验室:从会议大厅到麦考密克广场》中所阐述的那样,密斯·凡·德罗预测了一种“结构建筑”,在他在IIT的课堂和实践中培养结构工程师和建筑师之间的团队合作。作者通过调查课堂的合作性质、确定有影响力的教学原则、论文项目和作为芝加哥麦考密克广场(湖滨)会议中心发展试金石的建筑,扩展了围绕密斯·凡·德罗的现有学术研究。学生的论文项目、口述历史和较少听到的声音是调查的一部分,记录了密斯未建成的芝加哥会议大厅和麦考密克广场(湖边)会议中心之间复杂的联系网络。在“轻量化结构建模的演变:创建慕尼黑奥林匹克屋顶(1967-72)”中,Robert Whitehead通过讨论轻质索网结构行为的复杂性,将慕尼黑奥林匹克体育场屋顶概念中使用的不断发展的建模方法纳入背景。这篇论文还说明了团队成员的创新贡献,比通常公认的要多,并说明了架构师和工程师在动态协作过程中所扮演的独特的跨学科角色。在关于Frank Lloyd Wright设计的SAMARA住宅的重建和修复研究论文中,Li等人详细介绍了以数字为中心的多级框架如何支持跨学科团队(建筑、工程、施工管理、建筑工程)的任务,通过详细而全面的调查、文档和分析来规划遗产建筑的修复。数字工具和方法被纳入这项工作,以挖掘和理解结构变形和退化。同时,修复方案仍有效、高效地保留了原有设计的完整性。在本期的另外两篇论文中也体现了设计与工程的整合过程。在Ying Yi Tan, Pei Zhi Chia, Yu Han Quek, Kenneth Tracy和Christina Yogiaman的研究论文中,针对多材料针织图案纺织品开发了一种新的从设计到制造的工作流程,并将其用于案例研究的原型。工作流程的开发过程考虑了纺织材料的特性以及针织图案和力学的工程原理。立面面板的制作和几何设计也被考虑在内。费迪南·奥斯瓦尔德、约翰·查普曼和王群在他们的论文《多层建筑系统集成木材中心核心(ITCC)核心角节点测试导论》中设计并研究了高层木结构建筑中使用工程木材材料的ITCC的新结构形式。这项研究工作植根于木结构工程,而从根本上讲,是为了创造开放明亮的工作空间和灵活高效的交通路线。这期的同行评议论文反映了关于过程和重要性、合作和跨学科性的急需的论述。变化的视角:建筑研究中的设计与工程的桥梁
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引用次数: 0
Automation in the Field: SurveyLink 现场自动化:SurveyLink
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116230
J. Coleman, Nathan Barnes, Tim Wilson
Improvements in design and engineering software expand architectural possibilities, leading to increased complexity. Meanwhile, tools for physically constructing and delivering projects change slowly, outpaced by those developed by and for the design community. The result is an untenable pairing of innovative designs and conventional project delivery. We need new tools to execute ambitious and novel strategies to support project delivery successfully. Construction-centric tools offer an opportunity for increased participation in computational problem-solving and expand the diversity of expertise underlying AEC software. During the physical construction of any project, fabricated parts arrive on-site, where coordination problems surface, testing project assumptions where issues of fitment and trade (mis)coordination become apparent. At the construction site, costs are highest, while the work carries the most risk. This quantifiably riskiest time for any project is also when tradespeople have the least access to computational tools (Figure 1). Field personnel are under extreme pressure to make daily progress because of fieldwork’s high cost/risk. Collecting measurement data and making informed decisions quickly is transformative. In response, Zahner R&D, supported by Local 2 Field Superintendent expertise, built a software tool called SurveyLink, linking real-time survey data on-site to a collaborative 3D model, extending computational problem-solving to the field. Automation in the Field: SurveyLink
设计和工程软件的改进扩展了架构的可能性,从而增加了复杂性。与此同时,用于实际构建和交付项目的工具变化缓慢,被设计社区开发和为设计社区开发的工具超越。其结果是,创新设计和传统项目交付的结合是站不住脚的。我们需要新的工具来执行雄心勃勃的和新颖的战略,以支持项目的成功交付。以构建为中心的工具提供了更多参与计算问题解决的机会,并扩展了AEC软件底层专业知识的多样性。在任何项目的实际建设过程中,制造的部件到达现场,在那里协调问题浮出水面,测试项目假设,其中安装和贸易(错误)协调问题变得明显。在建筑工地,成本是最高的,同时工作的风险也是最大的。对于任何项目来说,这段可量化的风险最高的时间也是交易员使用计算工具最少的时间(图1)。由于现场工作的高成本/高风险,现场人员每天都面临着巨大的压力。收集测量数据并快速做出明智的决策是一种变革。为此,Zahner研发公司在Local 2 Field Superintendent专业知识的支持下,开发了一款名为SurveyLink的软件工具,将现场实时调查数据与协作3D模型连接起来,将计算问题解决扩展到现场。现场自动化:SurveyLink
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引用次数: 0
Introduction to the Multilevel Building System Integrated Timber Central Core 多层建筑体系集成木材核心结构简介
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116240
F. Oswald, J. Chapman, Qun Wang
This research objective is to investigate the viability of timber high-rise buildings with an integrated central core by testing the core corner joints to provide a new opportunity for high-rise timber buildings. The Integrated Timber Central Core (ITCC) is composed of core columns and core beams made up of Cross-Laminated Timber (CLT) panels fabricated using Laminated Veneer Lumber (LVL). Current timber high-rise CLT buildings use ‘stacked’ panels, require multiple close-spaced internal walls, and are cost-effective to around ten levels. The ITCC system requires considerably less timber and can be built to at least 20 stories. Successful laboratory tests for the ‘castellated’ core corner joints for a 20-level building are presented in this paper.
本研究的目的是通过对木结构高层建筑核心角节点的测试,探讨木结构高层建筑核心角节点的可行性,为木结构高层建筑提供新的机遇。综合木材中心核心(ITCC)由核心柱和核心梁组成,这些核心梁由使用层压单板木材(LVL)制造的交叉层压木材(CLT)板组成。目前的木质高层CLT建筑使用“堆叠”面板,需要多个紧密间隔的内墙,并且在十层左右具有成本效益。ITCC系统所需的木材要少得多,至少可以建到20层。本文介绍了一座20层建筑的“城堡式”核心角节点的成功实验室测试。
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引用次数: 0
Architecting 架构设计
0 ARCHITECTURE Pub Date : 2022-07-03 DOI: 10.1080/24751448.2022.2116234
C. Ford
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引用次数: 1
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Technology Architecture and Design
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