Expose "omega" parameter

Admittedly, the original insight behind our treatment of transverse field Ising model (TFIM), on which the MAXCUT solvers are based, wasn't "perfectly physical": through a curve-fitting procedure that managed to encode magnetization curve observables into measurement distributions of qubit samples, we noticed that very simple fitting parameters "fell out" of the model and transferred to validation cases, suggesting there might be some physical reason why the "omega" angular frequency scale should be exactly 3π/2. However, if we expose control of this parameter (with this originally preferred value as default) to direct control by users, it might become possible to address physically similar models (like Fermi-Hubbard) through simple diffeomorphisms on TFIM parameters and linear superposition of multiple curves. (We have not yet produced a statistically adequate model for Fermi-Hubbard, but this seems to be the single "hidden" parameter we need to expose to the user API in order to start fitting Fermi-Hubbard with superposition of multiple curves, to produce measurement distributions.)

What's Changed

• Expose "omega" parameter by @WrathfulSpatula in #2

Full Changelog: v9.9.0...v9.10.0

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