Materials Map

Discover the materials research landscape. Find experts, partners, networks.

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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University of Manchester

in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (29/29 displayed)

  • 2022Scaled cohesive zone models for fatigue crack propagation11citations
  • 2022A Two-Experiment Approach to Scaling in Biomechanics6citations
  • 2020Exact and inexact scaled models for hot forging17citations
  • 2018A computationally efficient cohesive zone model for fatigue18citations
  • 2018Experimental investigation into finite similitude for metal forming processes35citations
  • 2017Frequency-Dependent Cohesive Zone Models for Fatigue6citations
  • 2011Analytical solutions for vibrating fractal composite rods and beams17citations
  • 2009Vertical twin roll casting process of Mg alloy with high aluminium contentscitations
  • 2007A solution methodology for contacting domains in pressure die casting2citations
  • 2007Mechanical properties and metallugical qualities of magnesium alloy sheets manufactured by twin-roll casting20citations
  • 2006Boundary element stress analysis for bi-metallic dies in pressure diecasting1citations
  • 2006Boundary element stress analysis for copper-based dies in pressure die casting5citations
  • 2006Bi-metallic dies for rapid die casting3citations
  • 2006Experimental investigation into the thermal behavior of copper-alloyed dies in pressure die casting10citations
  • 2005Effects of rolling condition on warm deep drawability of magnesium alloy sheets produced by twin-roll strip casting3citations
  • 2004An Experimental Study Of the Pressure Die Casting Processcitations
  • 2004Forming Characteristics of cast magnesium alloy sheets manufactured by roll strip casting process5citations
  • 2004Semi-solid manufacturing process of magnesium alloys by twin-roll casting89citations
  • 2004An experimental study of the pressure die casting processcitations
  • 2003Mechanical properties of magnesium alloy sheets produced by semi-solid roll strip castingcitations
  • 2002The practicalities of ring rolling simulation for profiled rings29citations
  • 2002The effect of vibration on surface finish for semisolid and cast components4citations
  • 2002A practical method for finite element ring rolling simulation using the ALE flow formulation86citations
  • 2002Optimization for boiling heat transfer determination and enhancement in pressure die casting1citations
  • 2001Novel cooling channel shapes in pressure die casting11citations
  • 2001Efficient strategies for the simulation of railway wheel forming14citations
  • 2000An experimental and numerical investigation into the thermal behavior of the pressure die casting process11citations
  • 2000Determination of heat transfer coefficients using a 1-d flow model applied to irregular shaped cooling channels in pressure diecasting11citations
  • 2000Predicting heat extraction due to boiling in the cooling channels during the pressure die casting process7citations

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Alonso-Rasgado, Teresa
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Ochoa-Cabrero, Raul
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Bylya, Olga
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Salih, Sarmed
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Zou, Zhenmin
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Haga, T.
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Nishio, M.
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Watari, H.
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Koga, N.
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Paisern, R.
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Hinduja, Srichand
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Clark, L. D.
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Rasgado, Teresa Alonso
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Rasgado, M. T. A.
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Paisarn, R.
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Rasgado, M. T.
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Izawa, S.
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Alonso-Rasgado, Teresa A.
1 / 1 shared
Ona, H.
1 / 1 shared
Iwashita, T.
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Nakayama, M.
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Hamano, H.
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Ward, M. J.
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Miller, B. C.
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Bounds, S.
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Rosindale, I.
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Co-Authors (by relevance)

  • Sadeghi, Hamed
  • Darvizeh, Rooholamin
  • Akhigbe-Midu, Osagie
  • Alonso-Rasgado, Teresa
  • Ochoa-Cabrero, Raul
  • Krishnamurthy, Bhaskaran
  • Bylya, Olga
  • Salih, Sarmed
  • Zou, Zhenmin
  • Al-Tamimi, Anees
  • Salih, S.
  • Rasgado, M. T. Alonso
  • Haga, T.
  • Nishio, M.
  • Watari, H.
  • Koga, N.
  • Paisern, R.
  • Hinduja, Srichand
  • Clark, L. D.
  • Rasgado, Teresa Alonso
  • Rasgado, M. T. A.
  • Paisarn, R.
  • Rasgado, M. T.
  • Izawa, S.
  • Alonso-Rasgado, Teresa A.
  • Ona, H.
  • Iwashita, T.
  • Nakayama, M.
  • Hamano, H.
  • Ward, M. J.
  • Miller, B. C.
  • Bounds, S.
  • Rosindale, I.
  • Dooling, P. J.
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article

Boundary element stress analysis for bi-metallic dies in pressure diecasting

  • Hinduja, Srichand
  • Clark, L. D.
  • Rasgado, M. T. Alonso
  • Davey, Keith
Abstract

The rate of heat extraction during the pressure die-casting process is central to both the quality and the cost of the finished castings. Energy-extraction rates in traditional steel dies are principally dictated by the cooling arrangement but also by the resistance path offered by the die. It has recently being shown that modification to cooling channel shapes and position can enhance sub-cooled nucleate boiling and substantially increase energy-extraction rates. Reducing the thermal resistance of the coolant boundary layer means that a significant proportion of the thermal resistance path becomes attributable to the die steel. Replacing the steel with copper can greatly improve heat extraction rates. This paper is concerned with the development of an efficient structural model for the analysis of bi-metallic copper-alloy steel dies. A cyclic boundary element stress model has been developed so that stress levels can be predicted and examined in both the copper and steel parts of the die. The stress model is based on the 3D thermoelastic boundary element method and produces stresses and deformation due to both mechanical and thermal loads on the system. The collocation based boundary element method is used for the prediction of transient stress fields over a thermally stabilised casting cycle. A novel approach called the simplex method is used to evaluate domain integrals that appear in the boundary integral formulation due to the presence of a transiently varying thermal field. This method involves meshing the domain with tetrahedral elements and then applying recursive radial integration to these tetrahedral elements. Repetitive application of the recursive scheme effectively reduces the initial volume integral to line integrals. Excellent accuracy is obtained with this method. In order to validate the model predicted strain fields are compared with strain gauge measurements obtained on a purpose built rig designed to be representative of the casting process and on a production die. © 2005 Elsevier B.V. All rights reserved.

Topics
  • impedance spectroscopy
  • extraction
  • steel
  • copper
  • casting