Nonlinear superposition of solutions to self-gravitating fluid equations

Physics – Fluid Dynamics

Scientific paper

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Euler Equations Of Motion, Fluid Dynamics, Galactic Rotation, Gravitation, Superposition (Mathematics), Angular Momentum, Poisson Equation, Star Distribution

Scientific paper

An analytic procedure for nonlinearly superposing axisymmetric, stationary, self-gravitating solutions to Euler's equation or the Jeans equations to generate new and more general classes of solutions is presented. Two examples of the method are given. The first uses a nonlinear superposition of two Maclaurin spheroids to produce a large family of self-gravitating toroidal solutions of Euler's equation. The second example examines some possible consequences of the nonlinear superposition on galactic mass modeling studies based on the Jeans equations. It is shown that (1) regions of reduced stellar density may lead to local angular momentum enhancement and (2) a flat composite rotation velocity profile may be nonlinearly constructed from two or more mass components with decreasing rotation curves.

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