G. Tyse, M. Tamke, M. Ramsgaard Thomsen, A. F. Mosse
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引用次数: 2
摘要
通过将生活原则与设计方法相结合,新兴的生物设计领域正在探索如何从根本上改变当代物质文化的生态印记,同时质疑由代谢过程的挪用引起的创造性机会。这种新的基于生物的基础要求建筑师和设计师重新思考建筑的想象、表现和实现方式。本文介绍了投机合作项目Imprimer la lumi的进展,该项目研究了活的生物发光细菌底物作为建筑材料。为了适应这些生物的光性能,论文询问了如何在建筑设计环境中描述和控制这些生物,并报告了开发计算模型的努力,以模拟生物材料的行为、生长速度和寿命,并将这些与建筑代表性框架相结合。在自然界中,生物发光主要由海洋生物产生。在这种情况下,发出的光是一种化学反应,是需要维持的代谢系统的一部分。因此,研究生物发光意味着要考虑到发光代谢发生的生态系统以及它们有限的寿命。因此,时间必须被理解为建筑设计过程和湿实验室工具的关键维度,并严格地实施到建筑设计工具和协议的调色板中。本文报告了如何将生物材料及其环境作为生态代谢模型的一部分进行表征、模拟和预测,以发展功能性和指导活建筑材料的机制。
Bioluminescent micro-architectures: planning design in time, an eco-metabolistic approach to biodesign
By hybridising the principles of the living with the methods of design, the emerging field of biodesign is exploring how to radically transform the ecological imprint of contemporary material culture while questioning the creative opportunities induced by the appropriation of metabolic processes. This new bio-based foundation challenges architects and designers to rethink the way in which architecture is imagined, represented and materialised. This paper presents developments in the speculative collaborative project Imprimer la lumière examining living bioluminescent bacterial substrates as an architectural building material. In order to appropriate the light performance of these living organisms, the paper asks how to characterise and control these within an architectural design context and reports on efforts to develop computational models for simulating the behaviour, growth rates and life span of living materials and interface these with architectural representational framework. Within nature, bioluminescence is predominantly produced by marine organisms. In this context, the emitted light is a chemical reaction, part of a metabolic system that needs to be sustained. Working with bioluminescence therefore implies taking into consideration the ecosystem in which the light-emitting metabolisms take place as much as their limited lifespan. As a consequence, time must be understood as a key dimension of the architectural design process and wet lab tools and critically implemented into the palette of architectural design instruments and protocols.This paper reports on the examination of how living materials and their environment can be represented, simulated and predicted as part of an eco-metabolistic model developing mechanisms of functionalising and steering a living architectural material.