Computational Research Laboratory

Modeling the directionality of physical phenomena — from combustion stratification to atmospheric exhaust dynamics.

Anisotropic Labs works at the intersection of computational fluid dynamics, hydrogen combustion, and aerospace engineering — from annular combustor stratification to near-field exhaust thermodynamics and nonlinear dynamical systems.

CFDHydrogen CombustionAerospace
Simulation viewport — combustor mesh — stratification field
CFDComputational fluid dynamics & flow stratificationHydrogen combustion, exhaust thermodynamics, and multi-jet mixing analysis.MethodsNumerical methods for ODE/PDE systemsSimulation paired with experimental validation and reproducible workflows.Multi-physicsRigid-body dynamics & aerodynamic couplingNonlinear systems from pendulum mechanics to aerospace configurations.Open researchTransparent computational scienceDocumented models, structured pipelines, and open frameworks.CFDComputational fluid dynamics & flow stratificationHydrogen combustion, exhaust thermodynamics, and multi-jet mixing analysis.MethodsNumerical methods for ODE/PDE systemsSimulation paired with experimental validation and reproducible workflows.Multi-physicsRigid-body dynamics & aerodynamic couplingNonlinear systems from pendulum mechanics to aerospace configurations.Open researchTransparent computational scienceDocumented models, structured pipelines, and open frameworks.
Focus Areas

Research across combustion, exhaust, and nonlinear dynamics.

Area 01

Hydrogen Combustion & Stratification

CFD analysis of mixing non-uniformity in multi-jet hydrogen combustors, using H₂O mass fraction as a stratification proxy in annular geometries.

Area 02

Aerospace Exhaust & Contrails

Near-field exhaust simulations across hydrogen and kerosene configurations, with saturation-ratio analysis for contrail formation potential.

Area 03

Nonlinear Dynamical Systems

Computational study of friction-governed pendulum dynamics, validated against 240 fps motion-tracking with 98.5% predictive accuracy.

Research Philosophy

Anisotropic properties — directionally dependent physical behaviour — govern the problems worth solving.

The lab treats simulation as a scientific instrument: explicit assumptions, reproducible methods, and models framed as measurable questions rather than decorative visualisation.

Collaboration

Work with Anisotropic Labs

Open to collaboration on CFD, hydrogen combustion, and partnerships with research groups and educators.