Advancing the Control of Low-Altitude Wireless Networks: Architecture, Design Principles, and Future Directions

TL;DR

This paper presents a comprehensive framework for low-altitude wireless networks (LAWN) focusing on architecture, design principles, and future challenges to enable reliable control and communication in dynamic aerial-ground environments.

Contribution

It introduces a modular LAWN architecture, discusses key design trade-offs, and provides a case study demonstrating closed-loop control under wireless constraints.

Findings

Proposed a modular LAWN architecture with key performance metrics.

Analyzed control, communication, and estimation trade-offs.

Case study showing effective closed-loop coordination.

Abstract

This article introduces a control-oriented low-altitude wireless network (LAWN) that integrates near-ground communications and remote estimation of the internal system state. This integration supports reliable networked control in dynamic aerial-ground environments. First, we introduce the network's modular architecture and key performance metrics. Then, we discuss core design trade-offs across the control, communication, and estimation layers. A case study illustrates closed-loop coordination under wireless constraints. Finally, we outline future directions for scalable, resilient LAWN deployments in real-time and resource-constrained scenarios.