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Return Link Service Provider (RLSP) Acknowledgement Service to confirm the detection and localization of the SAR Galileo alerts

机译:返回链接服务提供商(RLSP)确认服务,以确认SAR Galileo警报的检测和定位

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The French Space Agency, CNES, has contributed to the international COSPAS-SARSAT program since its creation in 1982. This program is a cooperation of 43 states and agencies committed to detecting and locating radio beacons activated by persons, aircraft or vessels in distress. Within this consortium the Return Link Service Provider, RLSP, will be the facility responsible for the establishment of the Return Link Messages and their coordination with the Galileo system, interfacing on one side with the COSPAS-SARSAT system and on the other side with the Galileo Ground Mission Segment (CMS). The first version of the RLSP, will enable the Return Link Service provision including the Acknowledgement Service separated into two types: 1 Typel - System Acknowledgement (Galileo sends message automatically when the alert has been received and located), 2 Type 2 - Rescue Coordination Centers (RCC) Acknowledgement (RLSP transmits the message after authorization from the responsible RCC). Through the acknowledgement service provision, the RLSP will play a very important role in the COSPAS-SARSAT network, because for the first time ever, it will be possible to send feedback messages to the beacons that sent a distress, thus completing the cycle with the beacons. Considering these functionalities and the interfaces to put in place with Galileo and COSPAS-SARSAT networks, the European Commission entrusted the CNES in order to manage the development of the whole system and also to operate the RLSP with high levels of objectives. After a brief recall of the RLSP functions and COSPAS-SARSAT system, this paper will present the numerous technologies and methods put in place to guarantee the performances and the high availability of the system (99.95%) in order to ensure operations on a 7d/24h basis. The infrastructure and COTS used or developed to design the RLSP functionalities will be described. Design concepts such as redundancy, scalability, virtualization, real timeon real time, the database and the Web server will be detailed. The paper will highlight the integration of all these components and their interfaces with external entities. The GMS communicates through a cyphered network, the COSPAS-SARSAT network via a VPN, and the Rescue Coordination Centers using the internet. More than 250 RCC across the world will connect to the RLSP web site to acknowledge distress beacons. By consequence the architecture is key to the success of this project. A security tradeoff, involving national and international actors was made, between the architecture and security measures so that the RLSP can be connected to both a closed secured environment such Galileo, and also to the outside world via the internet. The main outcomes of this tradeoff will be exposed in article and presentation. This paper will demonstrate how the CNES concepts of operations, with the RLSP, will address the European Commission's high level objectives mentioned here above which makes the RLSP state of the art in modern technology. Finally, the paper will conclude with some important lessons learned from the Accreditation, Integration and Qualification phases and the first months in operations of this system.
机译:自1982年创建以来,法国航天局(CNES)就为国际COSPAS-SARSAT计划做出了贡献。该计划由致力于探测和定位遇险人员,飞机或船只激活的无线电信标的43个国家和机构合作。在该联盟中,回程链接服务提供商RLSP将成为负责建立回程链接消息并与Galileo系统进行协调的设施,一方面与COSPAS-SARSAT系统进行交互,另一方面与Galileo进行对接。地面任务部分(CMS)。 RLSP的第一个版本将启用包括确认服务在内的返回链接服务条款,该服务分为两种类型:1类型1-系统确认(伽利略在收到和定位警报后自动发送消息),2类型2-救援协调中心(RCC)确认(RLSP在负责的RCC授权后发送消息)。通过确认服务的提供,RLSP将在COSPAS-SARSAT网络中扮演非常重要的角色,因为这是有史以来第一次有可能将反馈消息发送到发送遇险信号的信标,从而完成了与信标。考虑到这些功能以及与Galileo和COSPAS-SARSAT网络建立的接口,欧洲委员会委托CNES来管理整个系统的开发并以很高的目标操作RLSP。在简要回顾RLSP功能和COSPAS-SARSAT系统后,本文将介绍为确保系统性能和高可用性(99.95%)而采用的多种技术和方法,以确保在7d / 24小时制。将描述用于设计RLSP功能的基础结构和COTS。将详细介绍诸如冗余,可伸缩性,虚拟化,实时/非实时,数据库和Web服务器之类的设计概念。本文将重点介绍所有这些组件及其与外部实体的接口的集成。 GMS通过加密网络,通过VPN的COSPAS-SARSAT网络以及使用互联网的救援协调中心进行通信。全世界超过250个RCC将连接到RLSP网站,以确认遇险信标。因此,架构是该项目成功的关键。在体系结构和安全措施之间进行了涉及国家和国际参与者的安全权衡,以便RLSP既可以连接到Galileo这样的封闭安全环境,又可以通过Internet连接到外部世界。这种权衡的主要结果将在文章和演示文稿中介绍。本文将展示带有RLSP的CNES操作概念如何解决上文提到的欧洲委员会的高层目标,这使RLSP在现代技术中处于最先进水平。最后,本文将总结从认证,集成和鉴定阶段以及该系统运行的头几个月中获得的一些重要经验教训。

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