Analiza elementelor finite Jobs

I need an expert in ANSYS for static structural analysis. The project involves modeling and analyzing structures under static loads. Key requirements: - Proficient in ANSYS software - Strong background in structural mechanics - Experience in static load analysis Ideal skills and experience: - Advanced modeling techniques in ANSYS - Ability to interpret and analyze simulation results - Knowledge of material properties and behavior under static loads Please provide a detailed approach and timeline with your bids.

The goal is to recalculate the foundation loads and revise the beam reinforcement schedule for a 3–4-storey residential structure. I am switching the slab system to EPS-FR blocks, which will significantly lower the dead load, so every footing and primary beam now has to be checked and, where necessary, redesigned on the basis of the exact new weight. All modelling and calculations must be carried out in SAAD Pro; the final package should include the native model file, summary tables for reactions and member forces, updated reinforcement drawings, and a concise written report that clearly sets out the assumptions, load combinations and code references used. Because the building combines concrete, steel and masonry elements, please make sure the interaction of these materials is refle...

I need an experienced mechanical engineer to rethink an existing machine so it runs significantly more efficiently. The current design performs its task reliably, but power consumption is high and several moving components cause unnecessary downtime for maintenance. You will receive the original 3-D CAD model (SolidWorks) along with performance logs, vibration data, and photos of wear points. Your task is to analyse the weak spots, propose redesigns for critical sub-assemblies, and demonstrate—through calculation or simulation—that the new concept will cut energy use and extend component life. Key deliverables • Updated CAD files and 2-D manufacturing drawings in native and neutral formats • Brief engineering report detailing the design rationale, efficiency g...

I need a full engineering package for a commercial-grade chest press machine that will live in professional Indian gyms. The machine must handle a 100 kg selectorised weight stack and feel smooth and natural under load. Key mechanical goals • Use a steel tube capsule frame; propose the optimal wall thickness and section size for both strength and cost-efficiency under heavy daily use. • True isolateral movement arms are non-negotiable. I want balanced resistance through the stroke so each side can move independently without crossover. • Overall footprint, seat height, and press path must suit the average Indian user and the tighter floor plans common here. Aim for a compact stance without sacrificing full chest engagement or shoulder safety. • Specify bearing t...

I need a complete SolidWorks model and accompanying static-load analysis that proves the assembly can carry the specified load with a minimum safety factor of 4. All existing part files and any material specifications are already in my package; use exactly what is written there when assigning material properties. Scope • Build or tidy the full 3D assembly in SolidWorks, adding any missing mates or constraints so it behaves realistically. • Produce clear, fully-dimensioned drawings for every part and for the final assembly. • Run a static FEA study that reflects the real boundary conditions and load magnitude supplied in my notes. • Optimise the geometry only if necessary to reach or exceed the 4× safety factor, but keep the general layout unchanged. &bu...

Neo-Hookean is suitable as a starting hyperelastic material model for snap-through structure, especially if we are using a TPU/rubber-like material and the strain level is not extremely high. start with Neo-Hookean for the baseline ANSYS model because it is simple, stable, and easy to calibrate. Then, if my experimental TPU data shows large nonlinear deformation that Neo-Hookean cannot match well, compare it with Mooney–Rivlin or Ogden. For snap-through analysis, the important point is that the material model must handle large strain + large deformation. Neo-Hookean does this much better than a simple linear elastic model. but “A Neo-Hookean hyperelastic material model was initially selected to represent the nonlinear elastic behaviour of the TPU structure under large deform...

I will supply clear dimensional sketches of the steel component along with the static load distributions that it must withstand. From those hand drawings I need you to recreate the geometry in your preferred FEA-capable package—ANSYS, SolidWorks Simulation, Abaqus, or another fully-licensed tool you trust—mesh it appropriately, and run a complete linear static analysis. The finished work should give me: • A clean CAD model that reflects every dimension shown in my sketches. • Screenshots of the mesh and boundary-condition setup so I can see exactly how the loads and constraints were applied. • Result plots for stresses, displacements, and load concentrations, with the critical zones clearly marked. • A concise written report (PDF) summarising the fac...

I need a fast-turnaround electromagnetic FEA study on my “Tab-and-Stab” electric motor concept and have already prepared the full CAD geometry. Your task is to import that model into ANSYS Maxwell, set up a 3-D transient solver, and tell me exactly how efficiently the machine performs when subjected to variable loads across the intended speed range. Scope • Set up materials, winding definition, and boundary conditions that match the data I’ll provide. • Run efficiency sweeps from light to peak torque, capturing any saturation or flux-leakage effects caused by the tab-and-stab laminations. • Return post-processed plots (efficiency maps, torque-speed curves, loss breakdown) plus the *.maxwell or *.aedtz file so I can reproduce the run. Timeframe Eve...

I have a power-board inverter destined for a modern battery-electric vehicle and I need a complete thermal solution developed around it. The work starts with accurate 3-D modelling of the board, then moves into designing an aluminium heatsink that houses an internal liquid-coolant channel. Every design decision must be validated in ANSYS/COMSOL, as that is the simulation environment we use in-house. The study has three inseparable goals: maximise heat-dissipation efficiency, keep every critical component within its target temperature window, and optimise the coolant flow path so pressure drop stays reasonable. You are free to choose the most suitable ANSYS modules—Icepak, Fluent, Mechanical, or Workbench—as long as the final package covers both conjugate heat transfer and CFD....