engineering

Materials Science & Engineering

Crystal structures, stress-strain behavior, phase diagrams, thermal conduction, and polymer dynamics — the science of how materials behave at every scale.

materials sciencecrystal structurestress-strainphase diagramthermal conductivitypolymers

Materials science bridges physics, chemistry, and engineering to explain why steel is strong, why glass is brittle, and why rubber stretches. Every material's macroscopic behavior emerges from its atomic structure — the arrangement of atoms in crystal lattices, the motion of dislocations under stress, and the thermodynamics of phase transformations.

These simulations let you explore material behavior interactively. Build crystal lattices atom by atom, stretch a virtual specimen until it fractures, navigate binary phase diagrams, watch heat diffuse through a solid, and observe polymer chains writhing in Brownian motion.

5 interactive simulations

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Crystal Lattice Structure Simulator

Visualize and compare FCC, BCC, and HCP crystal lattice structures — see how atomic packing determines material properties

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Heat Conduction & Thermal Diffusivity Simulator

Watch heat diffuse through a 1D bar in real time — adjust thermal conductivity, density, and heat capacity to see how temperature evolves

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Binary Phase Diagram Simulator

Explore a binary alloy phase diagram — adjust composition and temperature to see which phases are stable and apply the lever rule

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Polymer Chain Dynamics & Random Coil Simulator

Watch polymer chains writhe in Brownian motion — explore how chain length, temperature, and stiffness affect the random coil conformation

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Stress-Strain Curve Simulator

Stretch a virtual specimen to observe elastic deformation, yielding, strain hardening, necking, and fracture on an interactive stress-strain curve