Approach
Physics-driven. Data-calibrated.
We choose the right method for the problem: first-principles when the physics is well understood, semi-empirical when calibration data exists, hybrid when both are needed. Every model is validated against real measurements. The result is a model grounded in physics that works reliably beyond the range of available test data.
Define the Physics
Identify the governing physics. Define the geometry, material properties, boundary conditions, and loading. The system dictates the mathematics.
Build the Model
Formulate the equations. Discretize using finite element, finite difference, spectral, or Monte Carlo methods. Validate against known solutions.
Simulate and Analyze
Run the simulations. Vary the parameters. Identify the sensitivities. Deliver understanding, not just numbers: technical reports with validated recommendations and quantified uncertainty.
Capabilities
Our computational methods.
Finite Element Analysis
Structural, thermal, and coupled-field simulations for complex geometries under realistic loading.
Molecular Dynamics
Atomistic simulations: diffusion, phase transitions, defect mechanics, surface interactions.
Computational Fluid Dynamics
Flow and heat transfer modeling for thermal management, ventilation, and process optimization.
Statistical Mechanics
Thermodynamic modeling of phase equilibria, reaction kinetics, and degradation from statistical first principles.
Time-Series Analysis
Fourier and wavelet transforms, spectral analysis, and signal processing for sensor and process data.
Numerical Optimization
Constrained optimization, sensitivity analysis, and parameter estimation for system design.
Density Functional Theory
First-principles electronic structure calculations for predicting material properties, defect energetics, band structure, and thermodynamic stability from quantum mechanics.
Boltzmann Transport
Charge carrier and phonon transport modeling for thermoelectric figure of merit optimization, electrical conductivity, and thermal conductivity prediction in crystalline solids.
Contact
Bring us your
hardest problem.
If you are facing a materials science or energy systems problem, we would like to hear about it.
Get in touch