用于低水头水电的大幅面复合增材制造

IF 4.2 Q2 ENGINEERING, MANUFACTURING Additive manufacturing letters Pub Date : 2023-09-21 DOI:10.1016/j.addlet.2023.100170
Alex Roschli , Brian Post , Randal Mueller , Vito Gervasi , Phillip Chesser , Jesse Heineman , Rebecca Brink
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引用次数: 0

摘要

从进水口到出水口高程变化较小的水电,被称为“低水头”水电,是一种相对未开发的可靠绿色发电资源。进入的一个主要障碍是发电所需组件的成本。每个安装场地都是独特的,具有不同的水头水平、流速和其他独特的场地特性,这些特性会推高开发和安装成本。因此,定制组件是必要的,因为这些站点本质上效率低下。然而,定制零件的制造成本通常高于现成零件。通常情况下,定制组件的成本非常高,以至于低水头水电安装变得不可行。增材制造提供了以低成本制造定制组件的能力,非常适合一次性应用,非常适合低水头水电的需求。间接增材制造,例如制造工具或模具,而不是最终用途的部件,也可以用于制造这些定制应用所需的低成本复合材料工具。本文探讨了直接和间接使用增材制造来生产低水头水电站涡轮机系统的部件。这些部件被设计成一个独特的模块化系统,为未来的设计和迭代节省了时间。该系统已在美国威斯康星州的一个试验场运行了三年多,没有出现故障。这项工作为AM未来应用于低水头系统奠定了基础,在低水头系统中,模块化组件可以针对每个独特的水电安装进行定制。
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Large Format Composite Additive Manufacturing for Low-Head Hydropower

Hydropower with a small elevation change from inlet to outlet, known as “low-head” hydropower, is a relatively untapped resource for reliable green power generation. One major barrier to entry is the cost of the components needed to generate the power. Each installation site is unique, with various head levels, flow rates, and other unique site characteristics that drive up the cost of development and installation. As a result, custom-made components are necessary because the sites are intrinsically inefficient. However, customized parts are generally more expensive to manufacture than ready-made parts. Often times, the cost of custom-made components is so high that the low-head hydropower installation becomes non-viable. Additive manufacturing offers the ability to make custom components, ideal for one-off applications, at low costs that are well suited for the needs of low-head hydropower. Indirect additive manufacturing, such as making tools or dies rather than end use components, can also be used to make low-cost composite tooling as needed for these custom applications. This paper explores the use of additive manufacturing, both directly and indirectly, to produce the components of a turbine system for a low-head hydropower site. The parts were designed to form a unique modular system, which saves time for future designs and iterations. The system has operated for more than three years without failure at a test site in Wisconsin, USA. This work serves as a basis for future application of AM to low-head systems, in which the modular components can be customized for each unique hydropower installation.

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来源期刊
Additive manufacturing letters
Additive manufacturing letters Materials Science (General), Industrial and Manufacturing Engineering, Mechanics of Materials
CiteScore
3.70
自引率
0.00%
发文量
0
审稿时长
37 days
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