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Li2020 contains a fairly up to date set of numerical methods for fractional derivatives and integrals.
It would be very cool to implement most of this and compare.
Chapter 3: Riemann-Liouville quadrature
✔️ 3.1.I: Fractional rectangular rule
✔️ 3.1.II: Fractional trapezoidal rule
✔️ 3.1.III: Fractional Simpson's rule
❌ 3.1.IV: Fractional Newton-Cotes rules
❔ 3.1.V: Cubic Hermitian interpolation rules
❔ 3.2: Fractional multistep methods
✔️ 3.3.I: Spectral approximations with Jacobi polynomials
❔ 3.3.II: Spectral approximations with Legendre polynomials
Already works for Jacobi with $\alpha = \beta = 0$.
❔ 3.3.III: Spectral approximations with Chebyshev polynomials
Already works for Jacobi with $\alpha = \beta = -1/2$.
❔ 3.4: Diffusive approximations
The text was updated successfully, but these errors were encountered:
alexfikl
changed the title
[general] Implement methods from Li2020
[quad|diff] Implement methods from Li2020
Sep 4, 2023
alexfikl
changed the title
[quad|diff] Implement methods from Li2020
[quad] Implement methods from Li2020
Sep 4, 2023
Generic Newton-Cotes is quite hard to implement (Li2020 doesn't give any details) since we can't nicely integrate arbitrary order Lagrange polynomials.
alexfikl
changed the title
[quad] Implement methods from Li2020
Implement methods from Li2020
Dec 11, 2024
Li2020 contains a fairly up to date set of numerical methods for fractional derivatives and integrals.
It would be very cool to implement most of this and compare.
3.1.IV: Fractional Newton-Cotes rulesThe text was updated successfully, but these errors were encountered: