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mIoT Slice for 5G Systems: Design and Performance Evaluation.
Riccardo Trivisonno1, Massimo Condoluci2, Xueli An3
1Huawei Technologies, 80992 Munich, Germany. riccardo.trivisonno@huawei.com.
This study introduces an end-to-end network slicing solution for massive Internet of Things (mIoT) services in 5G networks. It addresses core network challenges, reducing signaling and optimizing resources for massive device deployment.
Area of Science:
- Telecommunications Engineering
- Computer Networks
- Internet of Things (IoT)
Background:
- 5G network slicing enables customized communication systems for vertical industries.
- Massive Internet of Things (mIoT) presents significant technical challenges for network design due to massive device deployment and specific service requirements.
- Existing networks struggle with the sporadic connectivity, small data transmission, and Quality of Service (QoS) constraints of mIoT.
Purpose of the Study:
- To present and evaluate an end-to-end (E2E) network slicing solution specifically designed for mIoT services.
- To address the limitations of legacy systems and overcome the load challenges in core networks for mIoT.
- To provide an ad-hoc E2E slice encompassing both access and core networks with enhanced Control and User Planes (CP/UP).
Main Methods:
- Revision of key mIoT requirements and identification of shortcomings in previous network generations.
- Development and evaluation of a novel E2E mIoT network slicing solution.
- Introduction of a new connectivity model to overcome legacy system load limitations, focusing on core network connectivity.
Main Results:
- The proposed solution effectively addresses mIoT requirements from an end-to-end perspective.
- It solves connectivity challenges within the core network, an aspect often overlooked in prior research.
- Demonstrated reduction in Control Plane (CP) signaling and optimized User Plane (UP) resource utilization.
Conclusions:
- The presented E2E mIoT network slicing solution is a viable candidate for next-generation network standards.
- It efficiently handles the demands of massive device deployment.
- The solution offers improved network performance by reducing signaling overhead and enhancing resource management.

