Low Latency and Highly Secure Protocols for Critical Communications

随着越来越多的设备被开发和互联，通信基础设施对无人机控制、远程手术和车对车通信等许多应用变得至关重要和时间敏感。这些关键通信必须对干扰、干扰和入侵具有弹性，并且通常需要提供极低延迟的服务。本提案的目标是探索与这一关键通信基础设施相关问题的各种解决方案。该提案涵盖了数字通信领域的几个主题。它围绕两个主要主题：低延迟通信和流量分析，但涉及通信堆栈的几个层，从物理层到应用层。站在两个关键领域的十字路口：通信网络中的延迟优化和安全性，拟议的项目旨在显著减少安全通信网络中的延迟。****通过考虑两种不同消息类型的传输，进一步限制了这一目标：短关键消息和长非关键消息。这里所说的消息类型的“关键”方面是指它们的延迟需求。关键消息需要比非关键消息更低的延迟（更快的端到端传输）。典型的关键信息涉及实时或近实时系统的信号和控制信息（即远程无人机控制、公用事业基础设施监控、远程医疗等）。为了实现这一全球目标，提出了一种基于网络状况监测的系统方法。工作计划还规定了涉及定义、实时提取和分析这种网络状况指标的研究活动。利用本地的网络范围指标，即网段级别，性能数据将支持部署新的安全路由和规划方案，这将对延迟产生重大的积极影响

As more devices are developed and interconnected, the communication infrastructure becomes critical and time-sensitive for many applications such as drone control, remote surgery and vehicle to vehicle communication. These critical communications must be resilient to interference, jamming, intrusions, and are often required to provide services with extremely low latency. The goal of this proposal is to explore various solutions to issues related to this critical communication infrastructure. The proposal encompasses several topics spanning the field of digital communications. It centers around two main topics: low-latency communications and traffic analysis, but involves several layers of the communication stack, ranging from the physical layer to the application layer. Standing at the crossroad between two key domains: latency optimization and security in communication networks, the proposed project aims at the ambitious objective of significantly reducing latency in secure communication networks.****This objective is furthermore circumscribed by taking into account the transmission of two different message types: short critical messages, and long non-critical messages. The 'critical' aspect of said message types herein refers to their latency requirement. A critical message requires lower latency (faster end-to-end transmission) than a non-critical message. A typical critical message relates to signaling and control information for real-time, or near real-time, systems (i.e. remote drone control, utility infrastructure monitoring, telemedicine, etc.). In order to achieve this global objective, a systemic approach based on the monitoring of network conditions is proposed. Research activities involving the definition, the real-time extraction and the analysis of such network condition metrics are also provisioned in the work-plan. Leveraging network-wide metrics with local, i.e. network segment level, performance data will support the deployment of novel secure routing and planning schemes which shall have a significant positive impact on latency.**