Hsieh Tzuen-Wuu, Lin Jian-Ping, Yu Chih-Min, Ku Meng-Lin, Wang Li-Chun
School of Big Data, Fuzhou University of International Studies and Trade, Fuzhou 350200, China.
College of Information Engineering, Yango University, Fuzhou 350015, China.
Sensors (Basel). 2025 Aug 3;25(15):4773. doi: 10.3390/s25154773.
This paper presents the multi-triangular ring and self-routing protocol (MTRSRP), which is a new decentralized strategy designed to boost throughput and network efficiency in multiring scatternets. MTRSRP comprises two primary phases: leader election and scatternet formation, which collaborate to establish an effective multi-triangular ring topology. In the leader election phase, nodes exchange broadcast messages to gather neighbor information and elect coordinators through a competitive process. The scatternet formation phase determines the optimal number of rings based on the coordinator's collected node information and predefined rules. The master nodes then send unicast connection requests to establish piconets within the scatternet, following a predefined role table. Intra- and inter-bridge nodes were activated to interconnect the piconets, creating a cohesive multi-triangular ring scatternet. Additionally, MTRSRP incorporates a self-routing addressing scheme within the triangular ring architecture, optimizing packet transmission paths and reducing overhead by utilizing master/slave relationships established during scatternet formation. Simulation results indicate that MTRSRP with dual-bridge connectivity outperforms the cluster-based on-demand routing protocol and Bluetooth low-energy mesh schemes in key network transmission performance metrics such as the transmission rate, packet delay, and delivery ratio. In summary, MTRSRP significantly enhances throughput, optimizes routing paths, and improves network efficiency in multi-ring scatternets through its multi-triangular ring topology and self-routing capabilities.
本文提出了多三角环与自路由协议(MTRSRP),这是一种全新的去中心化策略,旨在提高多环散射网的吞吐量和网络效率。MTRSRP包括两个主要阶段:领导者选举和散射网形成,二者协同建立有效的多三角环拓扑结构。在领导者选举阶段,节点通过交换广播消息来收集邻居信息,并通过竞争过程选举协调器。散射网形成阶段根据协调器收集的节点信息和预定义规则确定最佳环数。然后,主节点按照预定义的角色表发送单播连接请求,以在散射网内建立微微网。激活桥内和桥间节点以互连微微网,从而创建一个紧密的多三角环散射网。此外,MTRSRP在三角环架构中纳入了自路由寻址方案,通过利用散射网形成过程中建立的主/从关系来优化数据包传输路径并减少开销。仿真结果表明,具有双桥连接性的MTRSRP在诸如传输速率、数据包延迟和交付率等关键网络传输性能指标方面优于基于簇的按需路由协议和蓝牙低功耗网状网络方案。总之,MTRSRP通过其多三角环拓扑结构和自路由功能显著提高了吞吐量,优化了路由路径,并提升了多环散射网的网络效率。