Within the landscape of military technology, the time has come for automated systems to assume missioncritical responsibilities demanding computational speeds that are beyond human capabilities. Swarm robotics exhibits a diversity of applications in many fields including surveillance, reconnaissance, and more. Regardless of the specific application, meticulous planning and optimization of traversal routes coupled with seamless communication among individual robots assumes a pivotal role. Optimized cooperative route planning enables heightened operational efficiency, yielding a reduction in operational costs while elevating overall productivity. The significance of optimization extends to each robotic ensemble and an understanding of the intricacies of route selection fosters enhanced collaborative synergy. Consequently, the swarm attains a heightened capability to undertake intricate and multifaceted missions, transcending the limits of individual capabilities. Traditional approaches have restricted the potential of swarm-based systems. There has been little focus on cooperative route planning for swarms, essentially eliminating the advantages that swarm systems provide. We propose to rectify this imbalance by considering and addressing frequently overlooked variables of dynamic obstacles and cooperative route planning. Our approach leverages the fusion of advanced machine learning techniques and the reinforcement of communication channels among the constituent agents within the swarm. The deployment of efficient machine learning models facilitates real-time adaptation to the ever-changing optimal path, effectively mitigating the negative impact of dynamic obstacles in the mission environment. Furthermore, by reinforcing the communication infrastructure within the swarm, our approach fosters a heightened sense of synergetic collaboration among swarm agents. This approach unleashes the swarm robotics’ full potential by amplifying its efficiency and expanding the scope of possible applications, ushering in a new era of versatile and high-performing swarm robotic solutions.
In the era of rapidly expanding image data, the demand for improved image compression algorithms has grown significantly, particularly with the integration of deep learning approaches into traditional image processing tasks. However, many of the existing solutions in this domain are burdened by computational complexity, rendering them unsuitable for real-time deployment on standard devices as they often necessitate complex systems and substantial energy consumption. This work addresses the growing paradigm of edge computing for real-time applications by introducing a novel, on-edge device solution. This innovative approach aims to strike a balance between efficiency and accuracy, adhering to the practical constraints of real-world deployment. By presenting demonstrations of the proposed solution’s performance on readily available devices, we provide tangible evidence of its applicability and viability in real-world scenarios. This advance contributes to the ongoing dialogue about the need for accessible and efficient image compression algorithms that can be deployed real-time applications on edge devices, bridging the gap between the demanding computational requirements of deep learning and the practical limitations of everyday hardware. As data continues to surge, solutions like this become ever more critical in ensuring effective image compression, aligning with on-edge computing within AI. This research paves the way for improved image processing in real-time applications while conserving computational resources and energy consumption.
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