Integration of BIM and robotic fabrication for sustainable design and manufacturing of free-form building façade panels in off-site construction

Amirhossein Mehdipoor, Walid Anane, Sahar Mehdipoorkaloorazi, Ivanka Iordanova
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Abstract

The construction industry faces persistent challenges related to inefficiency, high energy consumption, and environmental impacts, necessitating innovative approaches to sustainable building practices. These challenges are further amplified in off-site construction (OSC) manufacturing of free-form components like façade panels, which demand extensive coordination, labor, and time due to their complex geometries and unique designs. This research addresses these issues by integrating Building Information Modeling (BIM) and robotic fabrication to develop a parametric methodology for optimizing façade designs in OSC. The methodology incorporates generative design to evaluate and select façade solutions based on minimizing solar radiation and façade area, while adhering to energy efficiency and sustainability criteria. A mock-up case study was used to validate the approach, utilizing BIM to generate a Building Energy Model (BEM) for energy performance analysis. The findings demonstrate significant reductions in solar radiation through the selected façade designs, highlighting the methodology’s potential to improve environmental performance. By incorporating digital fabrication and robotic manufacturing, the methodology mitigates the challenges of producing free-form components, streamlining production, reducing labor intensity, and enhancing accuracy. This research contributes a scalable framework for sustainable façade design and fabrication, advancing the efficiency and adaptability of OSC workflows.

BIM和机器人制造的集成,用于非现场施工中自由形式建筑立面面板的可持续设计和制造
建筑行业面临着与低效率、高能耗和环境影响相关的持续挑战,需要创新的方法来实现可持续的建筑实践。这些挑战在非现场施工(OSC)制造自由形状组件(如面板)中进一步放大,由于其复杂的几何形状和独特的设计,需要大量的协调、劳动力和时间。本研究通过集成建筑信息模型(BIM)和机器人制造来解决这些问题,以开发一种参数化方法来优化OSC中的立面设计。该方法结合生成式设计来评估和选择基于最小化太阳辐射和farade面积的farade解决方案,同时坚持能源效率和可持续性标准。一个模型案例研究被用来验证该方法,利用BIM生成建筑能源模型(BEM)进行能源性能分析。研究结果表明,通过选定的立面设计,太阳辐射显著减少,突出了该方法改善环境绩效的潜力。通过结合数字制造和机器人制造,该方法减轻了生产自由形状组件的挑战,简化了生产,降低了劳动强度,提高了精度。本研究为可持续立面设计和制造提供了一个可扩展的框架,提高了OSC工作流程的效率和适应性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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