Alloying evolution and stability of Al65Cu20Ti15during process of amorphisation by high energy ball milling

Tan, Zhen; Xue, Yunfei; Wang, L; Cheng, Xingwang; Zhang, L; Zhang, H F; Wang, A M

doi:10.1179/1743290112y.0000000005

Cited by 5 publications

(1 citation statement)

References 22 publications

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“…The crystalline phase cannot be identified. However, we infer it is TiH 2 defined by Jade, agreed with Tan et al [10]. During the process, toluene is mixed with Al, Cu and Ti powder.…”

Section: Resultssupporting

confidence: 91%

Preparation and Characterization of Amorphous Al-Based Metal Foams

Chen

Wang

2015

MSF

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Amorphous Al-Cu-Ti metal foams with the porosity of 65% were prepared by spark plasma sintering with both the diameter and height of 10 mm. The SPS process was carried out under the pressure, the dwell time and the temperatures of 300 MPa, 5min and 623-673K, respectively. The microstructure and mechanical behavior of the amorphous Al-Cu-Ti metal foams were investigated. The results showed that sintering at high temperatures improved the crystallinity and adhesion between particles. The intermetallic compounds, i.e. Al-Ti, Al-Cu and Al-Cu-Ti were identified from the XRD patterns. It was found that weak adhesion and irregular shape of NaCl might reduce the mechanical properties. The highest strength of amorphous Al-based metal foam sintered at 653K, 300MPa was 7.97MPa.

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“…The crystalline phase cannot be identified. However, we infer it is TiH 2 defined by Jade, agreed with Tan et al [10]. During the process, toluene is mixed with Al, Cu and Ti powder.…”

Section: Resultssupporting

confidence: 91%

Preparation and Characterization of Amorphous Al-Based Metal Foams

Chen

Wang

2015

MSF

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Modification of 316L steel powders with bronze using high energy ball milling for use as a binder component in PBF-LB/M printing of diamond-metal matrix composites

Tillmann,

Pinho Ferreira

2023

Discov Mechanical Engineering

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For the processing of diamond-metal matrix composites, the powder bed fusion using a laser for metals (PBF-LB/M), represents a new promising method for the additive manufacturing of diamond tools for concrete and rock machining, even with more complicated geometries. Previous research activities show a strong tendency for cracking and delamination during the construction process of the samples. This behavior is caused by thermal residual stresses associated with the embedded diamonds. To control these negative effects on the process side, the volume energy density is reduced accordingly, which, however, led to increased pore formation. This publication deals with an approach on the material side to modify a 316L stainless steel base powder with an addition of 20 wt% bronze via a high energy ball milling (HEBM) process in such a way that a homogeneous solid solution phase is created. A significantly increasing of the melting interval and a decreasing of both solidus and liquidus temperature was observed, which can reduce pore formation in the PBF-LB/M-process. In addition, XRD-diffractometry and SEM/EDS-analysis showed that the homogeneous solid solution phase of this alloyed powder segregates again into Fe- and Cu-rich phases when heated up to the melting point.

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