Artürs Lindenbergs
Research Subjects
Artürs Lindenbergs has a total of 8 co-authors. Here are the top co-authors by number of shared publications:
- Arvi Sadam
Ericsson Eesti, Valukoja 8, 11415 Tallinn, Estonia
1 shared publication - Helmut W. Zaglauer
Airbus Defence and Space GmbH, Claude-Dornier-Straße, 88090 Immenstaad, Germany
1 shared publication - Johan Scholliers
VTT Technical Research Centre of Finland, P.O. Box 1300, 33101 Tampere, Finland
1 shared publication - Kati Kõrbe Kaare
Tallinn University of Technology
1 shared publication - Kristjan Kuhi
Department of Mechanical and Industrial Engineering, Tallinn University of Technology (TalTech), Ehitajate Tee 5, 19086 Tallinn, Estonia
1 shared publication - Lasse Nykanen
Vedia Oy
1 shared publication
Latest Publications
- Open Access
Seamless 5G Multi-Hop Connectivity Architecture and Trials for Maritime Applications
This paper provides a study of the different alternatives that are being considered in the 5G-ROUTES project to establish seamless 5G connectivity in a maritime environment both from an architectural point of view and also from the definition of field trials to evaluate the performance and dependability of the proposed solution. As expected, the main challenge in providing 5G connectivity on the sea is to provide coverage over large areas of open water. Thus, as a starting point, this paper presents a measurement campaign that was conducted to assess the current coverage in the Baltic Sea, which concluded that the current terrestrial networks cannot guarantee sufficient coverage. Next, the solution architecture and trials proposed by 5G-ROUTES are described, which are based on the integration of satellite and leading-edge multi-hop connectivity in 5G networks. Utilizing satellite backhaul can potentially overcome the connectivity challenge from the terrestrial domain to the maritime domain, while multi-hop connectivity ensures that coverage is extended among the different ships that are navigating the sea. Furthermore, this paper describes how the project will evaluate, in field trials tailored to this maritime environment, common connectivity key performance indicators (KPIs) such as latency, throughput, availability and reliability. This paper concludes by providing a vision for applying the obtained results and insights to maritime transportation and other remote areas where the deployment of a suitable 5G infrastructure may be challenging or costly. The findings will be used to guide the design of future 5G networks for marine applications and to identify the most effective methods for providing secure and dependable communication in a maritime setting.
Open AccessSeamless 5G Multi-Hop Connectivity Architecture and Trials for Maritime Applications
This paper provides a study of the different alternatives that are being considered in the 5G-ROUTES project to establish seamless 5G connectivity in a maritime environment both from an architectural point of view and also from the definition of field trials to evaluate the performance and dependability of the proposed solution. As expected, the main challenge in providing 5G connectivity on the sea is to provide coverage over large areas of open water. Thus, as a starting point, this paper presents a measurement campaign that was conducted to assess the current coverage in the Baltic Sea, which concluded that the current terrestrial networks cannot guarantee sufficient coverage. Next, the solution architecture and trials proposed by 5G-ROUTES are described, which are based on the integration of satellite and leading-edge multi-hop connectivity in 5G networks. Utilizing satellite backhaul can potentially overcome the connectivity challenge from the terrestrial domain to the maritime domain, while multi-hop connectivity ensures that coverage is extended among the different ships that are navigating the sea. Furthermore, this paper describes how the project will evaluate, in field trials tailored to this maritime environment, common connectivity key performance indicators (KPIs) such as latency, throughput, availability and reliability. This paper concludes by providing a vision for applying the obtained results and insights to maritime transportation and other remote areas where the deployment of a suitable 5G infrastructure may be challenging or costly. The findings will be used to guide the design of future 5G networks for marine applications and to identify the most effective methods for providing secure and dependable communication in a maritime setting.