Hire freelance Heat Transfer designers near Chennai, TN

Forward thinking Mechanical Engineer. Skilled in Design, Analyse and Simulation and with a strong understanding knowledge in Computational Fluid Dynamics-CFD, Gas Dynamics, Heat transfer, Engineering... Read more

Forward thinking Mechanical Engineer. Skilled in Design, Analyse and Simulation and with a strong understanding knowledge in Computational Fluid Dynamics-CFD, Gas Dynamics, Heat transfer, Engineering Mechanics and Principles, Operational and production coupled with excellent communication & presentation skills, Highly motivated and eager to learn new things.

VED — Virtual Engineering & Dynamics — is an engineering research and development firm focused on simulation-driven design, structural performance, and engineering innovation. We help businesses, pro... Read more

VED — Virtual Engineering & Dynamics — is an engineering research and development firm focused on simulation-driven design, structural performance, and engineering innovation. We help businesses, product developers, and research teams investigate engineering challenges, evaluate concepts, and improve designs through computational analysis. Our approach connects research with practical engineering: understanding the problem, identifying the governing physical behaviour, testing design alternatives, and developing evidence to support the next stage of development. Our core capability is advanced finite element analysis using Abaqus and ANSYS, supported by Python and MATLAB for automation, data analysis, and engineering calculations. WHAT WE DO Engineering Research & Feasibility Studies We investigate engineering concepts, review relevant technical literature, identify critical performance requirements, and develop analysis strategies. This helps clients understand technical uncertainties and define a practical development path. Simulation-Driven Design & Development We assess how components and structures respond to loads, temperatures, contact, and material behaviour. By comparing design alternatives, we help identify opportunities to improve strength, stiffness, stability, material utilisation, and overall performance. Advanced Structural & Thermal Analysis Our capabilities include nonlinear structural analysis, heat transfer, sequential thermal–structural analysis, buckling and post-buckling, contact interactions, and selected cyclic and dynamic problems. Material & Interface Behaviour We model concrete, steel, fibre-reinforced cementitious materials, masonry, and composite structural systems. Areas of focus include cracking, crushing, plasticity, bond–slip, cohesive interfaces, friction, and debonding. Validation & Performance Evaluation We compare simulation results with available experimental measurements, analytical solutions, or published benchmarks. We investigate differences, assess sensitivity to modelling assumptions, and explain the confidence and limitations associated with the results. Parametric Research & Design Relationships We develop structured numerical investigations to examine the influence of geometry, material properties, loading, and operating conditions. These studies can support design recommendations, performance relationships, and engineering equations within clearly defined limits. Engineering Automation & Custom Tools We use Python and MATLAB to automate repetitive analysis tasks, extract results, process datasets, and develop calculation workflows that make engineering investigations more efficient and repeatable. OUR CURRENT TECHNICAL STRENGTHS • Structural and civil engineering R&D. • Steel, concrete, and composite structural systems. • Concrete-filled steel tubular members. • Fire-exposed and post-fire structural behaviour. • Strengthening and rehabilitation of masonry systems. • Nonlinear material and interface modelling. • Monotonic and reversed cyclic response. • Experimental–numerical correlation. • Parametric modelling and simulation automation. OUR DEVELOPMENT APPROACH 1. Define the engineering problem and intended application. 2. Review existing knowledge, reference data, and technical constraints. 3. Establish the research or development methodology. 4. Build and verify computational models. 5. Evaluate performance and compare design alternatives. 6. Validate against available evidence. 7. Deliver findings, recommendations, and priorities for further development or physical testing. PROJECT DELIVERABLES Depending on the scope, we provide feasibility assessments, simulation models, analysis files, performance comparisons, parametric datasets, engineering plots, automation scripts, and technical reports. Our reports explain the findings, assumptions, limitations, and recommended next steps so clients can use the work to make development decisions. WHO WE WORK WITH We support businesses developing engineering products, manufacturers investigating component performance, engineering consultants requiring specialist analysis, and academic teams conducting applied research. WHY VED? VED combines a structural engineering research background with practical simulation experience. We approach each assignment as an engineering investigation, connecting the analysis to the question the client needs answered. Our objective is to help clients move from an idea or unresolved technical problem toward a better-understood, evaluated, and improved engineering solution. Share your concept, design challenge, or research objective to discuss a suitable R&D scope, deliverables, and timeline.

End to end Simulation Workflow for Structural Integrity and Dynamic Performance of HVAC Systems, Industrial products & Heavy Structures using FEA Techniques -Linear & Nonlinear Static Analysis → For... Read more

End to end Simulation Workflow for Structural Integrity and Dynamic Performance of HVAC Systems, Industrial products & Heavy Structures using FEA Techniques -Linear & Nonlinear Static Analysis → For structural strength and deformation. -Modal & PSD Analysis → For dynamic behavior. -Solver Calibration, Precision Meshing → Reflecting accuracy. - Harmonic Analysis → To evaluate system response under sinusoidal excitations and detect resonance risks . - Thermal Analysis → For assessing thermal stresses, heat transfer efficiency. -Design Recommendations → durability enhancements.