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kazeminezhad--e
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| # | Type | Title | Author | Publisher | Pub. Year | Subjects | Call Number |
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| 1 | مقاله | Optimum groove pressing die design to achieve desirable severely plastic deformed sheets | Kazeminezhad, M. | 2010 |
Constitutive model.
Die design. FE analysis. Cell walls. Copper sheets. Die design. Dislocation densities. Experimental data. FE analysis. Finite element codes. Flow stress. Groove pressing. In-cell. Internal state variables. Large plastic deformation. Mechanical response. Modeling results. Room temperature. Severe plastic deformations. SPD. Uniform hardness. Aluminum sheet. Cell membranes. Constitutive equations. Constitutive models. Design. Dies. Hardness. Paper sheeting. Plastic deformation. Plastic sheets. Strain rate. Stresses. Finite element method. |
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| 2 | مقاله | Modeling of induced empirical constitutive relations on materials with FCC, BCC, and HCP crystalline structures: Severe plastic deformation | Kazeminezhad, M. | 2010 |
ETMB model.
Commercial finite element codes. Constitutive relations. Empirical relations. Severe plastic deformations. Constitutive models. Crystalline materials. Plastic deformation. Zirconium. Crystal structure. |
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| 3 | مقاله | Coupling kinetic dislocation model and Monte Carlo algorithm for recrystallized microstructure modeling of severely deformed copper | Kazeminezhad, M. | 2008 |
Annealing.
Boolean functions. Copper. Equal channel angular pressing. Forecasting. Forming. Grain size and shape. Metal pressing. Microstructure. Monte Carlo methods. Oxygen. Pressing (forming) Recrystallization (metallurgy) Strain. Strain rate. Annealing temperature. Annealing temperatures. Deformed copper. Dislocation densities. Dislocation modeling. Experimental data. Flow field model. Grain sizes. Monte Carlo algorithms. Oxygen-free high conductivity copper. Rate distributions. Recrystallized grains. Recrystallized microstructures. Stored energy. Mathematical models. |
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| 4 | مقاله | Prediction of the mechanical properties of rods after cold forging and heat treatment | Kazeminezhad, M. | 2013 |
FEM.
Cold forging. Hall Petch relationship. Hardness values. Hybrid algorithms. Monte Carlo model. Finite element method. Forging. Hardness. Mechanical properties. Monte Carlo methods. Plastic flow. Heat treatment. |
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| 5 | مقاله | Modeling of austenite to ferrite transformation | Kazeminezhad, M. | 2012 |
Kinetics.
Model. Phase transformation. Austenite-to-ferrite transformation. Boundary migration. Chemical free energy. Cooling rates. Ferrite grain size. Q-state Potts model. Strain-free. Algorithms. Austenite. Enzyme kinetics. Free energy. Models. Phase transitions. Steel. Ferrite. |
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| 6 | مقاله | Combination of the upper bound and potts models for simulation of microstructure in wire drawing and annealing processes | Kazeminezhad, M. | 2009 |
Annealing conditions.
Annealing processes. Coarse grains. Copper wires. Die angles. Drawing processes. Drawn wires. Grain size distributions. Grain sizes. Modeling results. Potts models. Reduction in areas. Simulation. Stored energies. Stored energy distributions. Upper bounds. Annealing. Copper. Grain size and shape. Microstructure. Simulated annealing. Wire. Wire drawing. |
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| 7 | مقاله | Modeling nano-scale grain growth of intermetallics | Kazeminezhad, M. | 2009 |
Conventional materials.
Grain sizes. Growth of intermetallics. Monte Carlo. Monte carlo simulations. Nano-scale. Nanostructured intermetallics. Power laws. Real time. Simulation. Time units. Grain size and shape. Heating. Intermetallics. Materials. Monte Carlo methods. Nanocrystalline materials. Nanotechnology. Palladium. Zirconium. Grain growth. |
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| 8 | مقاله | A comparison of low carbon steel and Al-Mg alloy sheets in quasi-static tearing collisions | Kazeminezhad, M. | 2009 |
Absorbed energies.
Aluminum alloy sheets. Inclination angles. Low carbon steels. Mean values. Mg alloy sheets. Wedge angles. Wedge tools. Absorption. Alloys. Alumina. Aluminum. Aluminum alloys. Aluminum metallurgy. Aluminum sheet. Carbon steel. Energy absorption. Light metals. Magnesium printing plates. Steel. Superconducting wire. Steel sheet. |
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| 9 | مقاله | Relationship between the stored energy and indentation hardness of copper after compression test: Models and measurements | Kazeminezhad, M. | 2008 |
Compression testing.
Copper. Differential scanning calorimetry. Indentation. Mathematical models. Vickers hardness testing. Indentation hardness. Energy storage. |
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| 10 | مقاله | Monte Carlo simulation of recrystallization with hardness input of cold worked metal | Kazeminezhad, M. | 2008 |
Annealing.
Compression testing. Data compression. Monte Carlo methods. Microstructure. Monte Carlo modelling. Recrystallization. Simulation. Hardness. |
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| 11 | مقاله | A study on the computation of the redundant deformation factor in wire drawing of austenitic 304 stainless steel | Kazeminezhad, M. | 2008 |
Computation theory.
Deformation. Finite element method. Velocity. Wire drawing. Redundant deformation factors. Spherical velocity fields. Superposition methods. Trapezoidal velocity. Austenitic stainless steel. |
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| 12 | مقاله | Modeling the effect of redundant strain factor on the microstructure inhomogeneity of drawn and annealed wire | Kazeminezhad, M. | 2007 |
Annealing.
Grain size and shape. Mathematical models. Monte Carlo methods. Strain control. Wire drawing. Annealing time. Grain size distribution. Microstructure inhomogeneity. Redundant strain factor. Microstructure. |
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| 13 | مقاله | Simulation the ultra-fine microstructure evolution during annealing of metal processed by ECAP | Kazeminezhad, M. | 2008 |
Annealing.
Copper. Epitaxial growth. Equal channel angular pressing (ECAP) Evolutionary algorithms. Forming. Lithography. Mathematical models. Metal analysis. Metal pressing. Microstructure. Morphology. Nucleation. Pressing (forming) Simulated annealing. Steel analysis. Annealing temperature. Experimental data. Fine microstructure. Grain sizes. Microstructure evolutions. Monte Carlo modelling. Nucleation rates. Pure copper. Simulation results. Microstructural evolution. |
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| 14 | مقاله | On the modeling of the static recrystallization considering the initial grain size effects | Kazeminezhad, M. | 2008 |
Dislocation-grain size interaction model.
Static recrystallization. Computer simulation. Copper. Dislocations (crystals) Grain size and shape. Mathematical models. Nucleation. Recrystallization (metallurgy) |
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| 15 | پایان نامه | بررسی ریزساختار و خواص مکانیکی پس از اعمال نورد سرد و آنیل بر ورق فولادی کمکربن تغییرشکل شدید یافته Investigation of Microstructure and Mechanical Properties after Performing Cold Rolling and Annealing on Severely Deformed Low Carbon Steel | جعفری، زهرا Jafari, Zahra | صنعتی شریف | 1402 | فولاد کم کربن Low Carbon Steel / نورد سرد Cold Rolling / تابکاری Annealing / ریزساختار Microstructure / خواص مکانیکی Mechanical Properties / تغییر شکل شدید پلاستیک Severe Plastic Deformation / تغییرشکل شدید در قالب شیاردار Constrained Groove Pressing (CGP) |
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| 16 | مقاله | The effect of 3D and 2D deformations on flattened wires | Kazeminezhad, M. | 2008 |
Finite element method.
Friction. Strain measurement. Flattened wires. Slab element method. Strain fields. Wire. |
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| 17 | مقاله | Deformation inhomogeneity in flattened copper wire | Kazeminezhad, M. | Elsevier Ltd, | 2007 |
Deformation.
Friction. Shear bands. Strain. Wire. Finite and slab element method. Flattened wire. Inhomogeneity factor. Copper. Polynomials. |
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| 18 | مقاله | Applicability of the FSEM for analyzing wire flat rolling process | Kazeminezhad, M. | 2006 |
Electronic equipment.
Finite element method. Metallography. Metallurgy. Microhardness. Numerical analysis. Piston rings. Rolling. Strain control. Stress analysis. Finite and slab element method (FSEM) Macroscopic shear bands. Stress (materials) Vickers microhardness measurements. Wire. |
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| 19 | مقاله | Calculation of the rolling pressure distribution and force in wire flat rolling process | Kazeminezhad, M. | 2006 |
Differential equations.
Pressure distribution. Stresses. Wire. Neutral angle. Rolling force. Rolling pressure distribution. Wire flat rolling. Rolling. |
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| 20 | مقاله | A theoretical and experimental investigation on wire flat rolling process using deformation pattern | Kazeminezhad, M. | Elsevier Ltd, | 2005 |
Materials science.
Plastic deformation. Rolling. Flat rolling process. Height measurements. Material properties. Width. Wire. Deformation. processing technique. Research. Rolling. |
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