aiqbench analysis
This paper presents a novel mathematical framework for drone stabilization using distributed feedback control with unbounded memory, reducing complex integro-differential equations to manageable systems of ordinary differential equations. While the application targets robotics and optimization, the core contribution lies in advancing theoretical machine learning methods for handling infinite-dimensional state spaces within autonomous system control. The work offers significant value to researchers focusing on the mathematical foundations of AI-driven robotic motion planning rather than consumer drone hardware or general connectivity standards.
Integro-differential equations in angular stabilization of drone motion by distributed feedback control
arXiv:2607.18251v1 Announce Type: new Abstract: In this paper, we propose angular stabilization of drone motion using distributed feedback control in the form of an integral operator. It should be stressed that the memory of this integral operator could be unbounded. It is intuitively clear that large length of the observation time open new possibilities to construct better control based on previous states of the control object. Unbounded memory in control requires the creation of a certain approach different from standard ones to the study of integro-differential equations. One of the goals of this article is to propose a certain universal approach that allows us to study the stability of integro-differential equations in the case of unbounded memory in the integral operator specifying the feedback control in stabilization. The approach we propose allows us to reduce the study of integro-differential equations to the analysis of systems of ordinary differential equations. In general, such systems can consist of an infinite number of equations. In relation to the so-called linear approximation in the problem of angle stabilization manages to limit itself to relatively simple exponential kernels in the integral control and arrive at a system with a finite number of equations. The examples explain that more complex kernels, for example, linear combinations of the exponential kernels, can enhance the stabilization capabilities. We obtain new unexpectable results on the exponential stability of integro-differential equations. Then we apply them to stabilization of drone flight.
Abstract:In this paper, we propose angular stabilization of drone motion using distributed feedback control in the form of an integral operator. It should be stressed that the memory of this integral operator could be unbounded. It is intuitively clear that large length of the observation time open new possibilities to construct better control based on previous states of the control object. Unbounded memory in control requires the creation of a certain approach different from standard ones to the study of integro-differential equations. One of the goals of this article is to propose a certain universal approach that allows us to study the stability of integro-differential equations in the case of unbounded memory in the integral operator specifying the feedback control in stabilization. The approach we propose allows us to reduce the study of integro-differential equations to the analysis of systems of ordinary differential equations. In general, such systems can consist of an infinite number of equations. In relation to the so-called linear approximation in the problem of angle stabilization manages to limit itself to relatively simple exponential kernels in the integral control and arrive at a system with a finite number of equations. The examples explain that more complex kernels, for example, linear combinations of the exponential kernels, can enhance the stabilization capabilities. We obtain new unexpectable results on the exponential stability of integro-differential equations. Then we apply them to stabilization of drone flight.
Artificial Intelligence (cs.AI); Machine Learning (cs.LG); Optimization and Control (math.OC)
arXiv:2607.18251 [cs.AI]
(or arXiv:2607.18251v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2607.18251 Focus to learn more arXiv-issued DOI via DataCite
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Full text under the publisher's open licence · 333 words
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