DTN Demonstrations With ESA Ground Segment

IF 2.3 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE journal of radio frequency identification Pub Date : 2024-06-20 DOI:10.1109/JRFID.2024.3415746
Camillo Malnati;Felix Flentge
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Abstract

In this paper we present the results of two Delay Tolerant Networking (DTN) demonstration activities carried out in the European Space Agency (ESA) Ground Segment. The first demonstration has been prepared with the OPS-SAT spacecraft, to demonstrate a full DTN protocol stack with CCSDS File Delivery Protocol (CFDP), Bundle Protocol (BP), Licklider Transmission Protocol (LTP), CCSDS Space Packet Protocol (SPP) and show the ESA Ground Segment BP implementation capabilities. In this first activity we demonstrated in-orbit file transfer on both uplink and downlink over a DTN network stack. The second demonstration has been performed in collaboration with Morehead State University (MSU), NASA JPL and D3TN, with the aim to show interoperability of DTN implementations across space agencies and external partners. Following a loss of communication with the spacecraft and failed lunar orbit insertion, the activity focused on an end-to-end data flow simulation with the spacecraft recorded data, involving the ESA Kourou ground station, the Lunar IceCube Engineering Model (EM), MSU ground segment and an operational DTN network of seven nodes. The demonstrations provide valuable lessons learned about interoperability testing, coordination, and planning in a multi-agency environment. The live operations performed during these activities provided insights on operational requirements that are relevant to future demonstrations and can help avoid some of the issues we encountered. The encouraging results obtained suggest that DTN technologies are getting ready for broader adoption.
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DTN 与欧空局地面段的演示
本文介绍了欧洲航天局(ESA)地面段开展的两项容错网络(DTN)演示活动的结果。第一次演示是在 OPS-SAT 航天器上进行的,目的是演示完整的 DTN 协议栈,包括 CCSDS 文件传输协议 (CFDP)、捆绑协议 (BP)、Licklider 传输协议 (LTP)、CCSDS 空间包协议 (SPP),并展示欧空局地面段 BP 的实施能力。在第一项活动中,我们通过 DTN 网络协议栈演示了上行链路和下行链路的在轨文件传输。第二次演示是与莫黑德州立大学(MSU)、NASA JPL 和 D3TN 合作进行的,目的是展示空间机构和外部合作伙伴之间 DTN 实施的互操作性。在与航天器失去通信和月球轨道插入失败之后,活动重点是利用航天器记录的数据进行端到端数据流模拟,涉及欧空局库鲁地面站、月球冰立方工程模型(EM)、莫黑德州立大学地面段和由七个节点组成的运行中的 DTN 网络。这些演示为多机构环境下的互操作性测试、协调和规划提供了宝贵的经验。在这些活动中进行的实时操作提供了与未来演示相关的操作要求方面的见解,有助于避免我们遇到的一些问题。令人鼓舞的结果表明,DTN 技术正在为更广泛的应用做好准备。
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