Prof. A De

Areas Of Expertise

• Finite element method
• Manufacturing engineering
• Numerical modelling of manufacturing processes
• Welding and other joining processes
• Fatigue racheting behaviour
• Nuclear powr plants
• Welding Automation
• Welding process optimization ,Arc Welding
• High strength low alloy structural steel
• Resistance spot weldability
• Automotive aluminum alloys
• Heat transfer
• Resistance spot weldability
• Gas metal arc welding
• Friction stir welding
• Aluminium alloys
• Coupled electrical-thermal-mechanical analysis
• Curved face electrode
• Finite element modelling
• Resistance spot welding process
• Neural network
• Pulsed current
• Weld quality
• Conduction Mode
• Fluid flow
• Laser
• Laser Beam Welding
• AC and DC welding machines
• Instantaneous current wave form
• Numerical modeling
• Resistance spot welding
• Heat conduction
• Laser spot welding
• Modeling
• Parameter optimization
• Conduction Mode
• Heat transfer
• Laser Beam Welding
• Multivariable optimisation
• Aluminum welding
• Concentration profile
• Friction stir welding
• Numerical models
• Plastic flow
• Thermal cycles
• Numerical modelling
• Stress analysis
• Heat transfer analysis
• Multivariate optimization
• LENS (TM) technique
• Direct metal deposition
• Net shaping lens
• Components
• Fabrication
• Deposition
• Model
• Pool
• LENS^TM technique
• Fusion welding
• Genetic algorithm
• Finite-element-analysis
• Gas tungsten
• Fluid-flow
• Transfer model
• Arc welds
• Optimization
• Algorithm
• Parameters
• Prediction
• Aluminum alloy
• Convection
• High temperature deformation
• Modelling
• Adaptive volumetric heat source
• Transient heat transfer
• Arc welding
• Convective heat transfer
• Inverse model
• Numerical optimization
• Multivariable optimization
• Reliable calculations
• Phase-change
• ARC
• Metal
• Simulation
• Numerical optimisation
• Pool convection
• Laser
• Experimental study
• Mechanical properties
• Tandem submerged arc welding
• Weld geometry