Andrea Sce1 and Lorenzo Caporale1 Published under licence by IOP Publishing LtdJournal of Physics: Conference Series, Volume 525, Eurotherm Seminar 102: Thermal Management of Electronic Systems 18–20 June 2014, Limerick, Ireland Citation Andrea Sce and Lorenzo Caporale 2014 J. Phys.: Conf. Ser. 525 012020DOI 10.1088/1742-6596/525/1/012020 Abstract Finding a good solution for thermal management problems is every day more complex. due to the power density
Satyam Singh; Manish Dixit; Vikash Dwivedi Abstracts High pressure die casting (HPDC) is particularly suitable for high production rate and it is applied in various industry actually approximately 50 % of the world production of Low weight metal casting age find out by this technology. In this paper, the process to determine the estimated cost
Xin Yu a, Yafeng Li b, Yang Bai a, Wei Huang c, Bing Ye a, Xiangyang Kong d Abstract The temperature dependence of mechanical strength including yield strength (YS) and ultimate tensile strength (UTS) in HPDC WZA631 alloy is investigated in a wide temperature range from room temperature (RT) to 350 °C. It is found that at 25–300 °C, YS and UTS do not drop markedly, from 173 MPa and 274 MPa at RT to 113 MPa and 170 MPa at 300 °C, respectively. While
Part of the The Minerals, Metals & Materials Series book series (MMMS) Abstract In this work, a modified Al–Si–Mg (A356) alloy was prepared by vacuum-assisted high pressure die casting processes (V-HPDC). To release residual stresses, various thermal treatment schemes over a wide range of temperatures between 120 and 350 °C were experimented to the as-cast V-HPDC alloy, in
Part of the The Minerals, Metals & Materials Series book series (MMMS) Abstract In this work, a modified Al–Si–Mg (A356) alloy was prepared by vacuum-assisted high pressure die casting processes (V-HPDC). To release residual stresses, various thermal treatment schemes over a wide range of temperatures between 120 and 350 °C were experimented to the as-cast V-HPDC alloy, in
ABSTRACT The copper rotor induction motor (CURIM) was recently introduced because it has lower rotor fusion losses than the aluminum rotor (ALRIM). Furthermore, with CURIM, it is easier to reach IE4 and IE5 efficiency levels. The CURIM is advantageous for compact motors, escalators, and electric vehicle applications. However, CURIMs present slip, power factor, temperature increase,
Recent advances of high strength Mg-RE alloys: Alloy development, forming and application Author links open overlay panelYongfeng Li a, Ang Zhang a, Chuangming Li a, Hecong Xie a, Bin Jiang a, Zhihua Dong a, Peipeng Jin b, Fusheng Pan a https://doi.org/10.1016/j.jmrt.2023.08.055Get rights and content Abstract To further expand the application of magnesium (Mg) alloys, development of the high strength Mg-rare earth (RE) alloys is strongly desired. The strength of the Mg alloys can be greatly improved through adding RE elements.
ABSTRACTInduction Motors are most widely used Electric Motors best suitable for industrial applications as well as lowpower applications in daily used domestic equipment’s because of their unique advantage compared to other types of motors like DC and Synchronous Motors. Electric Motors do not transfer 100% of the input Electrical power into kinetic Mechanical Power. Some
Ductile fracture prediction of HPDC aluminum alloy based on a shear-modified GTN damage model Author links open overlay panelYongfa Zhang ab, Jiang Zheng cd, Fuhui Shen b, Dongsong Li b, Sebastian Münstermann b, Weijian Han e, Shiyao Huang e, Tianjiao Li cShow moreAdd to MendeleyShareCite https://doi.org/10.1016/j.engfracmech.2023.109541Get rights and content Abstract In this paper, we investigate how the shear-modified Gurson-Tvergaard-Needleman (GTN) model can be used to reveal the effect of manufacturing-process-induced porosity on the scatter of ductile fracture properties of a
![Fig. 2. TEM images of X (Mg12YZn(LPSO)) phase and W(Mg3Zn3Y2) phase in the Mg–5Zn–5Y-0.6Zr (wt%) alloy, (a) ZW55-I, (b) ZW55-II, (c) ZW55-III and (d) W(Mg3Zn3Y2) phase in ZW55-III [19].](https://castman.co.kr/wp-content/uploads/Fig.-2.-TEM-images-of-X-Mg12YZnLPSO-phase-and-WMg3Zn3Y2-phase-in-the-Mg–5Zn–5Y-0.6Zr-wt-alloy-a-ZW55-I-b-ZW55-II-c-ZW55-III-and-d-WMg3Zn3Y2-phase-in-ZW55-III-19-539x342.png)
