What Will Be the Future of Powder Metallurgy?

Q4 Materials Science
H. Danninger
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引用次数: 11

Abstract

Abstract Traditionally, powder metallurgy has been based on two major industrial sectors – ferrous precision parts and hardmetals. Both of them relied heavily on the automotive industry, with focus on internal combustion engines. Today, there is an increasing trend towards alternative drivetrain systems, and powder metallurgy faces the challenge to find new applications to replace those lost with the decrease of classical internal combustion drives. In this presentation it is shown that the main strength of powder metallurgy lies in its enormous flexibility regarding materials, geometries, processing and properties. This enables PM to adapt itself to changing requirements in a changing industrial environment. Examples given are PM parts in alternative drivetrain systems, new alloying concepts and processing routes offering distinct advantages. With hardmetals, innovative microstructures as well as sophisticated coatings offer increased lifetime, applications ranging from metalworking to rockdrilling and concrete cutting. A particularly wide area is found in functional materials which range from components for high power switches to such for fuel cells. Soft and hard magnets are accessible by PM with particularly good properties, PM having in part exclusivity in that respect, such as for NdFeB superhard magnets as well as soft magnetic composites (SMCs). Metal injection moulding (MIM) is gaining further ground, e.g. in the medical area which is a fast-growing field, due to demographic effects. Finally, most additive manufacturing techniques are powder based, and here, the knowledge in powder handling and processing available in the PM community is essential for obtaining stable processes and reliable products. Conclusively it can be stated that PM is on the way to fully exploit its potential far beyond its traditional areas of applications.
粉末冶金的未来将是什么?
摘要传统上,粉末冶金以两大工业部门为基础——黑色金属精密零件和硬质合金。这两家公司都严重依赖汽车行业,重点是内燃机。如今,替代动力传动系统的趋势越来越大,粉末冶金面临着寻找新应用程序的挑战,以取代那些随着传统内燃传动系统的减少而失去的应用程序。本文表明,粉末冶金的主要优势在于其在材料、几何形状、加工和性能方面的巨大灵活性。这使PM能够适应不断变化的工业环境中不断变化的要求。给出的例子包括替代传动系系统中的PM零件、新的合金化概念和提供明显优势的加工路线。使用硬质合金,创新的微观结构和复杂的涂层可延长使用寿命,应用范围从金属加工到岩石钻孔和混凝土切割。在功能材料中发现了特别广泛的领域,其范围从用于高功率开关的部件到用于燃料电池的部件。具有特别好性能的PM可以获得软磁体和硬磁体,PM在这方面具有部分排他性,例如NdFeB超硬磁体以及软磁复合材料(SMC)。由于人口统计学的影响,金属注射成型(MIM)正在进一步发展,例如在医疗领域,这是一个快速发展的领域。最后,大多数增材制造技术都是基于粉末的,在这里,PM社区中可用的粉末处理和加工知识对于获得稳定的工艺和可靠的产品至关重要。总之,可以说PM正在充分利用其潜力,远远超出其传统应用领域。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Powder Metallurgy Progress
Powder Metallurgy Progress Materials Science-Metals and Alloys
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1.00
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