EXACT SOLUTIONS OF GOVERNING EQUATIONS FOR TWO-DIMENSION STEADY STATE CRYSTAL GROWTH
Fucheng Liao
Abstract
Fucheng Liao
Abstract
A class of partial differential equations (PDE) which describe two-dimension steady state crystal growth for concentration were studied. By using Fourier series expansion method, we can change the PDE into a set of ordinary differential equations (ODEs). Making use of properties of ODEs, the exact solution of the PDE was obtained. The result shows that the concentration in the solid-liquid interface is exponentially damped oscillation.
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A class of partial differential equations (PDE) which describe two-dimension steady state crystal growth for concentration were studied. By using Fourier series expansion method, we can change the PDE into a set of ordinary differential equations (ODEs). Making use of properties of ODEs, the exact solution of the PDE was obtained. The result shows that the concentration in the solid-liquid interface is exponentially damped oscillation.
Key concepts: Ordinary differential equation, Mathematical analysis, Mathematics, Partial differential equation, Ode, Dimension (graph theory), Steady state (chemistry), Fourier series