Search arXiv⌕ Search

arXiv · 2609.16094

Multiorder Fractional Operators: The Conformable Multiorder Derivative and Its Associated Multiorder Integral

Abstract

This paper introduces a novel class of non-linear multiorder fractional differential operators. First, we provide intuitive and formal justifications for the existence of multiorder differential operators through differential analysis and Omega-derivative formulations. We then define the conformable multiorder derivative as a functional quotient of fractional derivatives and establish its analytical properties rigorously. Furthermore, leveraging fundamental principles of mathematical analysis, we construct its inverse operator, termed the conformable multiorder integral. Detailed step-by-step proofs of all theoretical properties are presented. Illustrative examples and applications to solving elementary multiorder differential equations are thoroughly examined. Finally, comprehensive conclusions and strategic outlooks for prospective research directions are discussed.

Explore related subjects

Keep this discovery

Explore connections, maps & timelines

BibTeXRIS

Carlos E Cadenas R. 2026-09-14. Multiorder Fractional Operators: The Conformable Multiorder Derivative and Its Associated Multiorder Integral. https://arxiv.org/abs/2609.16094

Cite the original work for its findings. Save a collection to share your selection of sources.

KEEP EXPLORING

Related papers

Collatz/Bařina a$n$+b conjecture proofs by 16/64: Cayley a$n$+b tree not Cantor-Gödel-Conway-Wolfram undecidable

Lothar Collatz considered biperiodic iterations, and conjectured that picturing $n\mathrm{\to3}n\mathrm{+1}$ iterations for odd numbers and $n\mathrm{\to}n/2$ for even numbers, and proving that all natural numbers have a root path to the `trivial' cyclic root $(c=4)\to2\to1\to c\to\dots$, would connect elementary graph theory and number theory. John H. Conway replied that a$n$+b conjectures, except 1$n$+1, are undecidable due to a-periodic even $a\,\nmid\;$n$=a$n$_\text{odd}$+b successors. Biperiodic a$n$+b conjectures give disproofs of undecidability by Cantor diagonals, Gödel numbers, Conway unpredictability, and Wolfram irreducibility. The Cayley tree of Collatz-Conway $a\,\nmid\;$n$=a$n$_\text{odd}$+b numbers paired with Cantor binary tree numbers $y_{\ge0}$ is the $E=V=F=\mathbb{N}_0$ tree $T_{\ge 0}$ with its cyclic root $c=1a+1$ paired with $0$ and arrows ($E$dges) to wondrously ordered same-colour arrowhead nodes $a\,\nmid\;$n$=a$n$_\text{odd}$+b ($V$ertices) with same-numbered upwardly open sites above (sur$F$aces), paired with well-ordered root paths $y$, projecting to the Cartesian $y$-axis well-ordered sites $n$, paired with wondrously ordered root paths $y$. Tree $T_{\ge0}$ transforms into the integer Cartesian upper half graph $C_H$, providing a Hamiltonian tour from and back to the root $c$ at its origin $(0,0)$. The infinite Turing-Leibniz tape $T_L$ of proven $an_{odd}+b$ conjectures shows Turing-computable roots $c_{η\ge1}=2^{2^{η-1}+1}$ and $c$-expressible lowest trunk nodes $c^2$, 'cotree density' Hamiltonian tour proofs, and 'root-trunk' proofs $c^2<\frac{c}{2}(c-1)^2$. The $c$-roots generate also proven Mersenne prime $a=c-1$ conjectures: Collatz$_{\eta1}$ 3$n$+1 ($16<18$) and Bařina$_{\eta2}$ $7n\pm1$ ($64<196$).

math.GM↗

Formalization of Langlands's Second Main Lemma for Local Epsilon Factors

We describe the Lean 4 formalization of Langlands's Second Main Lemma for local epsilon factors over nonarchimedean local fields, in mixed and equal characteristic. The lemma compares the induction expressions attached to compatible characters of the intermediate fields of a bicyclic extension of prime-square degree. We explain the mathematical constructions and comparisons that constitute the proof, and identify their Lean declarations.

math.GM↗

A Local Proof of Langlands's First Main Lemma for Local Epsilon Factors over Nonarchimedean Local Fields

We give a complete local proof of Langlands's First Main Lemma for local epsilonfactors over nonarchimedean local fields. The proof builds on Dwork's p-adic calculations and Langlands's formulation of the local method. The present paper reformulates these calculations in a common normalization and extends the argument to equal characteristic. A more systematic treatment of stationary parameters and conductor cases is intended to make the calculations easier to follow. The author has also completed a local proof of Langlands's Second Main Lemma. Together with the present result and Langlands's remaining reductions, this gives a complete proof of the local construction of local epsilon factors envisioned by Langlands.

math.GM↗