Siwiec Dominika, Pacana Jacek, Pacana Andrzej
Faculty of Mechanical Engineering and Aeronautics, Rzeszow University of Technology, al. Powstancow Warszawy 12, 35-959 Rzeszow, Poland.
Materials (Basel). 2023 May 22;16(10):3884. doi: 10.3390/ma16103884.
Ensuring the expected quality of materials is still a challenge, mainly in order to precisely plan improvement actions that allow for stabilization of the production process. Therefore, the purpose of this research was to develop a novel procedure to identify critical causes of material incompatibility-the causes that have the largest negative impact on material deterioration, and the natural environment. The main originality of this procedure is developing a way to coherent analyse the mutual influence of the many causes of incompatibility of any material, after which the critical causes are identified and a ranking of improvement actions to eliminate these causes is created. A novelty is also developed in the algorithm supporting this procedure, which can be realized in three different ways to solve this problem, i.e.; by considering the impact of material incompatibility on: (i) the deterioration of the material quality; (ii) the deterioration of the natural environment; and (iii) simultaneously the deterioration of the quality of the material and the natural environment. The effectiveness of this procedure was confirmed after tests on 410 alloy, from which a mechanical seal was made. However, this procedure can be useful for any material or industrial product.
确保材料达到预期质量仍是一项挑战,主要是为了精确规划改进措施,以实现生产过程的稳定。因此,本研究的目的是开发一种新方法,以识别材料不相容性的关键原因——即那些对材料劣化和自然环境产生最大负面影响的原因。该方法的主要创新点在于,开发了一种连贯分析任何材料不相容性多种原因之间相互影响的方法,之后识别出关键原因,并制定消除这些原因的改进措施的优先级排序。支持该方法的算法也有创新,可通过三种不同方式实现以解决此问题,即:考虑材料不相容性对以下方面的影响:(i)材料质量劣化;(ii)自然环境劣化;(iii)材料质量和自然环境同时劣化。在对制造机械密封的410合金进行测试后,证实了该方法的有效性。然而,该方法对任何材料或工业产品都可能有用。