Lecture notes on multidisciplinary industrial engineering,
شاپا ي ISSN فروست
2522-5022
یادداشتهای مربوط به مندرجات
متن يادداشت
Intro; Preface; About the AIMTDR Conference; Mission, Vision, Challenges and Direction of AIMTDR Conference; AIMTDR 2016 Conference: Objectives and Organization; Editorial Acknowledgements; Contents; About the Editors; 1 Study on the Delamination of GFRP Composites in Drilling: A Finite Element Model; 1 Introduction; 1.1 Mechanism of Drilling; 1.1.1 Thrust Force; 1.1.2 Torque; 1.1.3 Radial Components of the Cutting Forces; 1.2 Problems Associated with Drilling of FRPs; 1.2.1 Abrasive Tool Wear; 1.2.2 Thermal Softening of Matrix; 1.2.3 Matrix Cracking; 1.2.4 Fiber Pullout; 1.2.5 Fuzzing.
متن يادداشت
1.2.6 Delamination1.3 Delamination Mechanism; 1.3.1 Peel-Up Delamination Mechanism; 1.3.2 Pushout Delamination; 2 Literature Review; 2.1 Experimental Methods; 2.2 Analytical Methods; 2.3 Finite Element Method; 3 Finite Element Formulation; 3.1 Modeling of Twist Drill; 3.2 Workpiece Modeling; 3.3 Material Modeling; 3.3.1 Material Constitutive Relation for the Bulk Material; 3.3.2 Damage Modeling for FRP Composites; Tsai-Hill Criteria; Inter-Ply Failure: Delamination; Constitutive Behavior for Traction-Separation Modeling of Cohesive Zone; 3.4 User Subroutine "VUSDFLD"; 3.5 Mesh Generation.
متن يادداشت
1.5 Effect of Nozzle Position1.6 Experimental Techniques to Determine Droplet Size; 1.6.1 Optical Imaging Analyzers; 1.6.2 Laser Diffraction Analyzers; 1.6.3 Phase-Doppler Particle Analyzers (PDPA); 2 CFD Simulations for MQL Milling; 2.1 Numerical Modeling and Simulation of MQL; 2.2 CAD Model; 2.3 Grid Partitioning and Meshing; 2.3.1 Grid Partitioning; 2.3.2 Boundary Conditions; 2.4 Assumptions; 2.5 CFD Simulation; 2.5.1 Turbulence Model; 2.5.2 Discrete Phase Model (DPM); Governing Equations for DPM; 2.6 MQL Droplet Size Prediction; 2.7 Experimental Validation; 3 Experimentation.
متن يادداشت
3.1 Experimental Setup3.2 Experimental Results; 3.2.1 Effect of Air Pressure; 3.2.2 Effect of Flow Rate; 3.2.3 Effect of Droplet Size; 3.2.4 Effect of Wetting Area; 3.2.5 Micrograph Analysis; 4 Conclusions; References; 3 Finite Element Method and Experimental Study of Self-reacting Friction Stir Welding of Aluminium Alloy AA6061-T6; 1 Introduction; 2 Experimental Procedure; 3 Numerical Model; 3.1 Model Description; 3.2 Material Properties; 3.3 Boundary Conditions; 4 Results and Discussion; 5 Conclusions; References.
متن يادداشت
3.5.1 Mass Scaling Analysis3.6 Interaction and Contact Definition; 3.7 Boundary Conditions and Loads; 4 Results and Discussion; 4.1 Effect of Feed Rate on Thrust Force and Torque; 4.2 Effect of Speed on Thrust Force and Torque; 4.3 Effect of Drill Point Angle on Thrust Force and Torque; 5 Conclusions; References; 2 Computational Fluid Dynamics Analysis of MQL Spray Parameters and Its Influence on MQL Milling of SS304; 1 Introduction; 1.1 Classification of MQL; 1.2 Mist Formation in MQL; 1.3 Effect of Pressure and Flow Rate Over Droplet Size; 1.4 Effect of Droplet Deposition Distance.
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0
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8
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یادداشتهای مربوط به خلاصه یا چکیده
متن يادداشت
This book focuses on numerical simulations of manufacturing processes, discussing the use of numerical simulation techniques for design and analysis of the components and the manufacturing systems. Experimental studies on manufacturing processes are costly, time consuming and limited to the facilities available. Numerical simulations can help study the process at a faster rate and for a wide range of process conditions. They also provide good prediction accuracy and deeper insights into the process. The simulation models do not require any pre-simulation, experimental or analytical results, making them highly suitable and widely used for the reliable prediction of process outcomes. The book is based on selected proceedings of AIMTDR 2016. The chapters discuss topics relating to various simulation techniques, such as computational fluid dynamics, heat flow, thermo-mechanical analysis, molecular dynamics, multibody dynamic analysis, and operational modal analysis. These simulation techniques are used to: 1) design the components, 2) to investigate the effect of critical process parameters on the process outcome, 3) to explore the physics of the process, 4) to analyse the feasibility of the process or design, and 5) to optimize the process. A wide range of advanced manufacturing processes are covered, including friction stir welding, electro-discharge machining, electro-chemical machining, magnetic pulse welding, milling with MQL (minimum quantity lubrication), electromagnetic cladding, abrasive flow machining, incremental sheet forming, ultrasonic assisted turning, TIG welding, and laser sintering. This book will be useful to researchers and professional engineers alike.