Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  propose a discrete approximation of Gaussian curvature over quadrilateral meshes using a linear combination of two angle deficits. Let g"i"j and b"i"j be the coefficients of the first and second fundamental forms of a smooth parametric surface F. Suppose F is sampled so that a surface mesh is obtained. Theoretically  show that for vertices of valence four, the considered two angle deficits are asymptotically equivalent to rational functions in g"i"j and b"i"j under some special conditions called the parallelogram criterion. Specifically, the numerators of the rational functions are homogenous polynomials of degree two in b"i"j with closed form coefficients, and the denominators are g"1"1g"2"2-g"1"2^2. Our discrete approximation of the Gaussian curvature derived from the combination of the angle deficits has quadratic convergence rate under the parallelogram criterion. Numerical results which justify the theoretical analysis are also presented.
['Dan Liu', 'Guoliang Xu']
I am writing a research paper on a idea Angle deficit approximation of Gaussian curvature and its convergence over quadrilateral meshes
[{"from": "human", "value": "I am writing a research paper on a idea Angle deficit approximation of Gaussian curvature and its convergence over quadrilateral meshes"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  propose a discrete approximation of Gaussian curvature over quadrilateral meshes using a linear combination of two angle deficits. Let g\"i\"j and b\"i\"j be the coefficients of the first and second fundamental forms of a smooth parametric surface F. Suppose F is sampled so that a surface mesh is obtained. Theoretically  show that for vertices of valence four, the considered two angle deficits are asymptotically equivalent to rational functions in g\"i\"j and b\"i\"j under some special conditions called the parallelogram criterion. Specifically, the numerators of the rational functions are homogenous polynomials of degree two in b\"i\"j with closed form coefficients, and the denominators are g\"1\"1g\"2\"2-g\"1\"2^2. Our discrete approximation of the Gaussian curvature derived from the combination of the angle deficits has quadratic convergence rate under the parallelogram criterion. Numerical results which justify the theoretical analysis are also presented."}]