HUNTERTUTORING

Finite element methods

Graduate · Engineering

Syllabus focus

Standard syllabus · STEM / applied

Pricing

Graduate-level rates are set on consultation. See the pricing page for K–12 and undergraduate rates.

Topics typically covered

Standard syllabus

Weak form and element formulations

  • Calculus of variations and Euler-Lagrange equations
  • Weighted residual methods: Galerkin approach
  • Weak form derivation for Poisson and elasticity problems
  • Shape functions for 1D and 2D elements
  • Isoparametric mapping and numerical integration
  • Element stiffness and mass matrix assembly
  • Patch test and element completeness
  • Locking phenomena: shear and volumetric
  • Mixed formulations and reduced integration
  • A priori and a posteriori error estimates (intro)

Solvers and nonlinear extensions

  • Direct versus iterative linear solvers
  • Preconditioning and sparse matrix storage
  • Newton-Raphson for nonlinear equilibrium
  • Material nonlinearities: plasticity intro
  • Contact algorithms: penalty and Lagrange multipliers
  • Large deformation and updated Lagrangian formulations
  • Dynamic FE: Newmark time integration
  • Eigenvalue solvers for modal analysis
  • Adaptive mesh refinement strategies
  • Parallel FE on HPC clusters

STEM / applied

Implementation and software development

  • Building a 1D/2D FE code in MATLAB or Python
  • Open-source frameworks: FEniCS, deal.II survey
  • Pre- and post-processing pipelines
  • Verification using manufactured solutions
  • Validation against benchmark problems
  • Coupled multiphysics FE (thermal-stress-fluid)
  • Isogeometric analysis overview
  • Reduced-order modeling from FE snapshots
  • Industry ANSYS/Abaqus scripting and automation
  • Thesis using custom or extended FE tools

Research applications

  • Biomechanics FE: tissue and implant modeling
  • Crashworthiness and impact simulation
  • Geomechanics and coupled poroelastic FE
  • Electromagnetics FE formulations (survey)
  • Topology optimization with FE sensitivities
  • Uncertainty quantification in FE predictions
  • Digital twin calibration with sensor data
  • Publication-quality FE result visualization
  • Conference presentation of FE research
  • Qualifying exam FEM preparation

Notes

Topics reflect common engineering syllabi at US colleges and universities. Exact order, depth, and applied emphasis vary by institution, department, and instructor.