Low Bandwidth Wireless Mesh Networks for Rural Education With Cognitive Load Reduction and Persistence Gains
Durdona LutfullayevaProfessor, International Islamic Academy of Uzbekistan, Tashkent, Uzbekistan. 1965dd@mail.ru0000-0002-8598-8745
Bakhtijon IsroilovaTashkent Institute of Irrigation and Agricultural Mechanization Engineers, National Research University, Tashkent, Uzbekistan. isroilovabaxtijon@gmail.com0000-0002-0285-964X
Avazbek TulyaevAssociate Professor, University of Uzbekistan named after Mirzo Ulugbek, Uzbekistan. avazbektulyayev@gmail.com0009-0002-1606-2874
Kamola HaydarovaAssociate Professor, Termez State University, Termez, Uzbekistan. kamolahaydarova6235@gmail.com0009-0008-0700-1854
Xulkar XolikulovaAssociate Professor, Law Enforcement Academy of the Republic of Uzbekistan, Tashkent, Uzbekistan. xalikulova81@mail.ru0009-0005-1111-2109
Ozod AzimovUrgut Branch of Samarkand State University, Samarkand, Uzbekistan. ozodazimov196@gmail.com0009-0001-6274-7869
Komiljon GulyamovAssociate Professor, National Institute of Fine Arts and Design named after Kamoliddin Bekhzod, Uzbekistan. k.gulyamov68@yandex.com0009-0002-2556-258X
Surayyo KhaydarovaJizzakh State Pedagogical University, Jizzakh, Uzbekistan. surayyo.uz@mail.ru0000-0003-4879-4623
Keywords: Wireless Mesh Networks (Wbwmns) Are Being Utilized in Rural Education for Low Bandwidth, Cognitive Load Reduction, Persistence Gains, Adaptive Content Delivery, Network Performance, And Scalable Connectivity. Technology, Rural Development.
Abstract
This investigation examines the capacity of low-bandwidth wireless mesh networks to mitigate educational disparities in rural environments by reducing cognitive load and promoting durable content retention. Intermittent and fragmented connectivity across remote educational zones impedes sustained access to audiovisual and interactive resources, thereby widening the achievement gap relative to urban peer groups. The present initiative advances a modular mesh-network infrastructure specifically calibrated for constrained capital and operating budgets, permitting incremental scaling while embedding redundancy within and among rural primary and secondary campuses. Utilizing adaptive routing algorithms, the fabric assembles a dynamic, self-correcting lattice that provides persistent, standards-aligned resource delivery, overcoming the weaknesses of conventional backbone and satellite deployment modalities. The primary innovation of our design lies in the integration of cognitive-load-sensitive mechanisms across the entire network topology. A salient embodiment of this is our anticipatory dynamic content caching algorithm, which assimilates historical and contextual tensor information in order to project future curricular needs. Educational artifacts are thus instantly retrievable, thus avoiding the intrinsic fatigue associated with wait times, an effect magnified when operating over intermittent, low-bandwidth links. In parallel, our link-aware routing protocol dynamically reoptimizes data trajectories in real time, using continuous telemetry of link health measurements. By diverging packets away from localized loss zones or congestion, the protocol stabilizes aggregate throughput and compresses jitter. The synergistic effect of these two layers equips learners with a stable, high-definition pedagogical sequence, effectively decoupling instructional advancement from the unpredictable fluctuations of the underlying network infrastructure.