Dorin Panaitopol, Yiran Jin, Runsen Tang, Changhwan Park
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One of the major conclusions of the 5G NR NTN 3GPP work in Release-17 was that NTN UE could reuse the current requirements of the TN UE. For this reason, the same terminal can connect to both TNs and to nonterrestrial satellite constellations. Consequently, the market is not fragmented and therefore there will be a real opportunity for both terrestrial and satellite operators to increase the coverage and the quality of the service all over the world. This is one of the most important breakthroughs that 3GPP Release-17 work was able to justify because it clearly shows that satellite connectivity using 5G NR technology is not only for dedicated satellite 5G NR UE with a higher power class. On the other hand, the 3GPP work also shows that the satellite connectivity does not require a dedicated satellite waveform, because 5G NR waveform based on CP-OFDM (for downlink) and DFT-s-OFDM (for uplink) is sufficient. Another important finding is that TN can coexist with NTN on adjacent channels with relaxed ACIR requirements for the tested simulation scenarios. In fact, the satellite 5G NR requirements are lower when compared with terrestrial base station (BS) requirements from previous 3GPP releases. 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This paper will further explain the most challenging and the main surprising outcomes of this work, which opened new market opportunities for both terrestrial and nonterrestrial stakeholders. 5G New Radio nonterrestrial networks (NTNs) for satellite communications are representing a major breakthrough in the history of telecommunication for the capability of reuniting two different types of services, that is, terrestrial and nonterrestrial, by reusing the same waveform and potentially the same type of terminal. One of the major conclusions of the 5G NR NTN 3GPP work in Release-17 was that NTN UE could reuse the current requirements of the TN UE. For this reason, the same terminal can connect to both TNs and to nonterrestrial satellite constellations. Consequently, the market is not fragmented and therefore there will be a real opportunity for both terrestrial and satellite operators to increase the coverage and the quality of the service all over the world. 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引用次数: 1
摘要
3GPP在Release‐17中首次考虑引入移动卫星业务(MSS)频段,用于3GPP用户设备(UE)与卫星的直接连接,并且必须考虑与地面网络(tn)在相邻频段的共存。本文将进一步解释这项工作的最具挑战性和主要令人惊讶的结果,这为地面和非地面利益相关者开辟了新的市场机会。用于卫星通信的5G新型无线电非地面网络(ntn)代表了电信历史上的重大突破,因为它能够通过重复使用相同的波形和可能相同类型的终端,重新统一两种不同类型的业务,即地面和非地面业务。Release‐17中5G NR NTN 3GPP工作的主要结论之一是,NTN UE可以重复使用TN UE的当前需求。由于这个原因,同一个终端可以连接到两个tn和非地面卫星星座。因此,市场不是分散的,因此地面和卫星运营商将有一个真正的机会来增加全世界的覆盖范围和服务质量。这是3GPP Release - 17工作能够证明的最重要的突破之一,因为它清楚地表明,使用5G NR技术的卫星连接不仅适用于具有更高功率等级的专用卫星5G NR终端。另一方面,3GPP的工作还表明,卫星连接不需要专用的卫星波形,因为基于CP - OFDM(下行链路)和DFT - s - OFDM(上行链路)的5G NR波形就足够了。另一个重要的发现是,在测试的模拟场景中,TN可以与相邻信道上的NTN共存,并且ACIR要求宽松。事实上,与之前3GPP版本的地面基站(BS)要求相比,卫星5G NR要求更低。在这些发现之后,卫星生态系统发生了巨大变化,卫星和地面利益相关者现在都看到了潜在的市场机会。
Requirements on Satellite Access Node and User Equipment for Non-Terrestrial Networks in 5G New Radio of 3GPP Release-17
For the first time, 3GPP considered in Release-17 the introduction of mobile satellite service (MSS) frequency bands for 3GPP user equipment (UE) direct connectivity with satellites and had to consider the coexistence in adjacent bands with terrestrial networks (TNs). This paper will further explain the most challenging and the main surprising outcomes of this work, which opened new market opportunities for both terrestrial and nonterrestrial stakeholders. 5G New Radio nonterrestrial networks (NTNs) for satellite communications are representing a major breakthrough in the history of telecommunication for the capability of reuniting two different types of services, that is, terrestrial and nonterrestrial, by reusing the same waveform and potentially the same type of terminal. One of the major conclusions of the 5G NR NTN 3GPP work in Release-17 was that NTN UE could reuse the current requirements of the TN UE. For this reason, the same terminal can connect to both TNs and to nonterrestrial satellite constellations. Consequently, the market is not fragmented and therefore there will be a real opportunity for both terrestrial and satellite operators to increase the coverage and the quality of the service all over the world. This is one of the most important breakthroughs that 3GPP Release-17 work was able to justify because it clearly shows that satellite connectivity using 5G NR technology is not only for dedicated satellite 5G NR UE with a higher power class. On the other hand, the 3GPP work also shows that the satellite connectivity does not require a dedicated satellite waveform, because 5G NR waveform based on CP-OFDM (for downlink) and DFT-s-OFDM (for uplink) is sufficient. Another important finding is that TN can coexist with NTN on adjacent channels with relaxed ACIR requirements for the tested simulation scenarios. In fact, the satellite 5G NR requirements are lower when compared with terrestrial base station (BS) requirements from previous 3GPP releases. The satellite ecosystem tremendously changed after these findings, and both satellite and terrestrial stakeholders now see a potential market opportunity.
期刊介绍:
The journal covers all aspects of the theory, practice and operation of satellite systems and networks. Papers must address some aspect of satellite systems or their applications. Topics covered include:
-Satellite communication and broadcast systems-
Satellite navigation and positioning systems-
Satellite networks and networking-
Hybrid systems-
Equipment-earth stations/terminals, payloads, launchers and components-
Description of new systems, operations and trials-
Planning and operations-
Performance analysis-
Interoperability-
Propagation and interference-
Enabling technologies-coding/modulation/signal processing, etc.-
Mobile/Broadcast/Navigation/fixed services-
Service provision, marketing, economics and business aspects-
Standards and regulation-
Network protocols