Kämpfer Christoph, Seiler Thomas-Benjamin, Beger Anna-Lena, Jacobs Georg, Löwer Manuel, Moser Franziska, Reimer Julia, Trautz Martin, Usadel Björn, Wormit Alexandra, Hollert Henner
Institute for Environmental Research, RWTH Aachen University, Worringerweg 1, 52074 Aachen, Germany.
Chair and Institute for Engineering Design, RWTH Aachen University, Steinbachstr. 54 B, 52074 Aachen, Germany.
Environ Sci Eur. 2017;29(1):27. doi: 10.1186/s12302-017-0125-x. Epub 2017 Oct 20.
Technical product harvesting (TEPHA) is a newly developing interdisciplinary approach in which bio-based production is investigated from a technical and ecological perspective. Society's demand for ecologically produced and sustainably operable goods is a key driver for the substitution of conventional materials like metals or plastics through bio-based alternatives. Technical product harvesting of near net shape grown components describes the use of suitable biomass for the production of technical products through influencing the natural shape of plants during their growth period. The use of natural materials may show positive effects on the amount of non-renewable resource consumption. This also increases the product recyclability at the end of its life cycle. Furthermore, through the near net shape growth of biomass, production steps can be reduced. As a consequence such approaches may save energy and the needed resources like crude oil, coal or gas. The derived near net shape grown components are not only considered beneficial from an environmental point of view. They can also have mechanical advantages through an intrinsic topology optimization in contrast to common natural materials, which are influenced in their shape after harvesting. In order to prove these benefits a comprehensive, interdisciplinary scientific strategy is needed. Here, both mechanical investigations and life cycle assessment as a method of environmental evaluation are used.
技术产品收获(TEPHA)是一种新兴的跨学科方法,从技术和生态角度研究生物基生产。社会对生态生产和可持续运行产品的需求是通过生物基替代品替代金属或塑料等传统材料的关键驱动力。近净形生长部件的技术产品收获描述了通过在植物生长期间影响其天然形状,利用合适的生物质生产技术产品。天然材料的使用可能对不可再生资源消耗产生积极影响。这也提高了产品在其生命周期结束时的可回收性。此外,通过生物质的近净形生长,可以减少生产步骤。因此,这种方法可以节省能源以及原油、煤炭或天然气等所需资源。由此衍生的近净形生长部件不仅从环境角度来看是有益的。与常见的天然材料相比,它们还可以通过内在的拓扑优化具有机械优势,常见天然材料在收获后其形状会受到影响。为了证明这些益处,需要一种全面的跨学科科学策略。在此,机械研究和作为环境评估方法的生命周期评估都被使用。