首页> 外文会议>CIRP Design Conference >Cross-Component Material and Joining Selection for Functional Lightweight Design based on the Extended Target Weighing Approach - A Detailed Application Example
【24h】

Cross-Component Material and Joining Selection for Functional Lightweight Design based on the Extended Target Weighing Approach - A Detailed Application Example

机译:基于扩展目标称重方法的功能轻质设计的交叉组件材料和连接选择 - 详细应用示例

获取原文

摘要

Today, shorter development cycles and an improved cost efficiency are stated as the key challenges calling for a more comprehensive stimulation of the innovation process whilst simultaneously limiting potential concepts already in the early phase of product development. Assorted approaches in the field of engineering design as well as material selection try almost exclusively to cover a systematic elaboration of alternative solutions on component level. Within the interdisciplinary scope of lightweight engineering (design, materials and processing), however, a more systemic mindset including individually integrated interrelations coupled with considerations on a cross-component joint section design represents a decisively beneficial factor of success particularly for future multi-material design strategies. By taking into account the aforementioned shortages ensuing a solely component-restricted view in material selection, the function-based concept generation in the Extended Target Weighing Approach (ETWA) is being additionally supported by a mutually technically, economically and ecologically assessed material and joining selection according to all adjacent functional design spaces. In doing so, and paradigmatically outlined on a detailed application example from the automotive industry, the individual choice of material first takes place for all functional design spaces applying specific target equations (e.g., dividing additional costs by weight reduction potentials) inside Ashby's approach, followed by a subsequent evaluation along with its feasible joining technology possibilities, and finally leading to system-efficiently ranked set-based options of all adjacent material/joining-combinations.
机译:如今,更短的开发周期和提高的成本效率被称为呼吁更全面地刺激创新过程的关键挑战,同时限制了产品开发早期阶段的潜在概念。工程设计领域的各种方法以及材料选择几乎完全涵盖了对组分级别的替代解决方案的系统制定。然而,在轻质工程(设计,材料和处理)的跨学科范围内,包括单独集成的相互关联的综合相互关联,涉及交叉组件联合段设计的考虑因素代表了对未来多材料设计的果断成功的决定性受益因素战略。通过考虑到在材料选择中的单独组分限制视图中的上述短缺,扩展目标称重方法(ETWA)中的基于功能的概念产生是通过相互技术,经济和生态评估的材料和加入选择等待的根据所有相邻的功能设计空间。在这样做,并在汽车行业的详细应用示例上概述了各个材料选择,适用于应用特定目标方程的所有功能设计空间(例如,通过减轻重量减轻潜力的额外成本),然后进行通过随后的评估以及其可行的加入技术可能性,最终导致系统有效地排名基于集的所有相邻材料/加入组合的选择。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号