利用地衣共生的仿生灵感设计气候适应性太阳能系统

Nicolas Acton, Melissa Bernazani, Jonathan Hill, M. Hinton, Aaron Vazquez, Kyle Gipson, Jacquelyn K. S. Nagel
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引用次数: 2

摘要

设计适应性强的能源系统,在不同的气候条件下提供不受干扰的服务,是可持续设计的一个重要挑战。该项目涉及气候适应性太阳能(CASE)系统的设计和建造,旨在解决由于环境条件变化而导致的性能下降问题。CASE系统是一种仿生设计,灵感来自地衣,并应用生物保护和能量转换的概念来实现适应性。地衣生物中真菌和藻类的共生生物通过紧密结合表现出环境适应性,从而作为一个单一的生物生活。DSSCs被用作驱动机制,为系统利用来自太阳的能量,就像藻类在地衣中的作用一样。染料敏化太阳能电池(DSSCs)目前可将高达15%的太阳能转化为电能,比传统的光伏系统制造成本更低,具有更高的机械耐久性,是当前太阳能系统市场上一个日益强大的竞争对手。由于DSSCs在商业上无法获得,因此DSSCs是由工具包中包含的核心组件组装而成的。通过为DSSCs提供保护和温度控制,CASE系统的其他部分被设计和制造,以执行类似于地衣生物中的真菌的功能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of a Climate Adaptable Solar Energy system using biomimetic inspiration from a lichen symbiosis
Designing energy systems that are adaptable and provide undisturbed service in different climate conditions is an essential challenge for sustainable design. This project involves the design and construction of a Climate Adaptable Solar Energy (CASE) System that aims to address the performance reduction due to changing environmental conditions. The CASE System is a biomimetic design, inspired by lichen, and applies biological concepts of protection and energy conversion to achieve adaptability. Symbiotic organisms of fungus and algae within lichen organisms exhibit environmental adaptability through close integration, thus living as a single organism. DSSCs were implemented as the driving mechanisms for harnessing energy for the system from the sun, just as algae performs in lichen. Dye-sensitized solar cells (DSSCs), which currently convert up to 15 percent of solar energy into electrical energy, are cheaper to manufacture than traditional photovoltaic systems, offer greater mechanical durability, and are a rising competitor for the current solar energy system market. Since the DSSCs were commercially unavailable, the DSSCs were assembled from core components contained in a kit. Additional pieces of the CASE System were designed and manufactured to perform functions similar to a fungus in a lichen organism, by providing protection and temperature control to the DSSCs.
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