A study of mechanical properties and microstructure of Cu-based matrixes for diamond ultrathin sawing

The mechanical properties and microstructure of Cu-based diamond ultrathin sawing matrixes prepared using a cold pressing/sintering process were investigated. The experimental results show that the phases of Cu-based samples after sintering are mainly composed of a Cu substrate phase, Fe, (Cu, Sn),...

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Main Author: Hongfeng Dong
Format: Article
Language:English
Published: Elsevier 2019-03-01
Series:Results in Physics
Online Access:http://www.sciencedirect.com/science/article/pii/S2211379718325166
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author Hongfeng Dong
author_facet Hongfeng Dong
author_sort Hongfeng Dong
collection DOAJ
description The mechanical properties and microstructure of Cu-based diamond ultrathin sawing matrixes prepared using a cold pressing/sintering process were investigated. The experimental results show that the phases of Cu-based samples after sintering are mainly composed of a Cu substrate phase, Fe, (Cu, Sn), and Cu3.8Ni phases. When the pressure was increased to 187 MPa, Fe aggregation was generated, and this slowed the alloying and compaction of the Cu-based matrixes during the sintering process and weakened the corresponding mechanical properties. The densification, tensile strength, and elastic limit of Cu-based samples after sintering were best at a pressure of 187 MPa. Keywords: Cold pressing/sintering, Diamond ultrathin sawing, Microstructure, Mechanical properties
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spelling doaj.art-ed62833f90cb48b8a8f19c5bfecf81f82022-12-21T19:14:48ZengElsevierResults in Physics2211-37972019-03-0112748753A study of mechanical properties and microstructure of Cu-based matrixes for diamond ultrathin sawingHongfeng Dong0School of Materials Science and Engineering, Shaanxi University of Technology, Hanzhong 723001, People’s Republic of ChinaThe mechanical properties and microstructure of Cu-based diamond ultrathin sawing matrixes prepared using a cold pressing/sintering process were investigated. The experimental results show that the phases of Cu-based samples after sintering are mainly composed of a Cu substrate phase, Fe, (Cu, Sn), and Cu3.8Ni phases. When the pressure was increased to 187 MPa, Fe aggregation was generated, and this slowed the alloying and compaction of the Cu-based matrixes during the sintering process and weakened the corresponding mechanical properties. The densification, tensile strength, and elastic limit of Cu-based samples after sintering were best at a pressure of 187 MPa. Keywords: Cold pressing/sintering, Diamond ultrathin sawing, Microstructure, Mechanical propertieshttp://www.sciencedirect.com/science/article/pii/S2211379718325166
spellingShingle Hongfeng Dong
A study of mechanical properties and microstructure of Cu-based matrixes for diamond ultrathin sawing
Results in Physics
title A study of mechanical properties and microstructure of Cu-based matrixes for diamond ultrathin sawing
title_full A study of mechanical properties and microstructure of Cu-based matrixes for diamond ultrathin sawing
title_fullStr A study of mechanical properties and microstructure of Cu-based matrixes for diamond ultrathin sawing
title_full_unstemmed A study of mechanical properties and microstructure of Cu-based matrixes for diamond ultrathin sawing
title_short A study of mechanical properties and microstructure of Cu-based matrixes for diamond ultrathin sawing
title_sort study of mechanical properties and microstructure of cu based matrixes for diamond ultrathin sawing
url http://www.sciencedirect.com/science/article/pii/S2211379718325166
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AT hongfengdong studyofmechanicalpropertiesandmicrostructureofcubasedmatrixesfordiamondultrathinsawing