Oxalic Acid Cocrystal Form for Stable Kinase Inhibitor Solubility

The patent employs computational chemistry tools and predictive algorithms as intermediaries to bridge the gap between desired solid form properties and actual crystalline structures. These computational models predict stable solid forms before synthesis, reducing the complexity of identifying and selecting appropriate polymorphs and salt forms while ensuring stability and solubility improvements.

The invention systematically varies multiple parameters including molecular structure, crystal lattice arrangement, solvent composition, and temperature conditions to optimize solid form properties. By changing these parameters in a controlled manner guided by computational predictions, the patent achieves enhanced stability and solubility while managing the complexity through structured parameter optimization.

The patent replaces traditional trial-and-error experimental approaches with computational chemistry methods. Quantum mechanical calculations, molecular dynamics simulations, and machine learning algorithms predict crystalline forms and their stability before synthesis, eliminating the need for extensive experimental screening and making the prediction process more reliable and less difficult.

The invention implements iterative feedback loops where computational predictions are validated against experimental data, and the models are continuously refined. This feedback mechanism improves the accuracy of crystalline form prediction over time, making it easier to identify stable crystalline structures while maintaining high chemical stability.

The patent develops composite solid forms combining amorphous and crystalline regions within the same material structure. These composite solids leverage the high dissolution rate of amorphous regions while the crystalline network provides physical stability. The computational tools optimize the composition and distribution of these phases to achieve both improved bioavailability and maintained stability.

The invention applies different structural characteristics to different regions of the solid form. Amorphous regions are positioned where rapid dissolution is needed, while crystalline regions are located to provide structural stability. This spatial differentiation of material properties allows simultaneous optimization of dissolution rate and physical stability through controlled local quality variations.