EURECOM 5G Experimental Site

Slides:



Advertisements
Similar presentations
KANSEI TESTBED OHIO STATE UNIVERSITY. HETEREGENOUS TESTBED Multiple communication networks, computation platforms, multi-modal sensors/actuators, and.
Advertisements

HetnetIP Ethernet BackHaul Configuration Automation Demo.
PhantomNet An end-to-end mobile network testbed Kobus Van der Merwe Robert Ricci.
LTE pre-SI Test Suite Implementation in TTCN3: A case study 1 Pramod Shrivastava Intel Mobile Communication Nitin Bodas Larsen & Toubro Infotech Ranganath.
Experimentation using FIRE Wireless testbed tools Nikos Makris University of Thessaly Testbed Interoperability Workshop – FIA 2014.
Virtual Packet Core Cloud solution for LTE. if you need to construct LTE network for 1mln users... How will it work for operator?
LTE rollout: spectrum challenges
Sponsored by the National Science Foundation1GEC 23 – 17 June 2015www.geni.net Applying GENI Principles to LTE Networks Abhimanyu Gosain and Ivan Seskar.
Munawwar M. Sohul Dr. Taeyoung Yang Dr. Jeffrey H. Reed a
LTE Architecture KANNAN M JTO(3G).
Wireless Cloud GENi-FIRE Workshop Washington D.C. September 17 th, 2015 Ivan Seskar WINLAB (Wireless Information Network Laboratory) Rutgers University.
Long Term Evolution (LTE) and System Architecture Evolution (SAE)
COPYRIGHT © 2011 ALCATEL-LUCENT SHANGHAI BELL. ALL RIGHTS RESERVED. lightRadio TM Network MH Wireless Brieifing Center.
Features of Long Term Evolution (LTE)
Huawei E5172 CAT4 Router Review.
FLEX - FIRE LTE TESTBEDS FOR OPEN EXPERIMENTATION PROJECT OVERVIEW Nikos Makris, University of Thessaly (UTH) Contract number: Starting date: 1/1/2014.
LTE Introduction Tzu-chin Liu 15th March 2012.
Automating Wireless IP Network And Virtualized Mobile Core Functions HetnetIP: Wireless IP Backhaul Management Automation and Multi-tenant Portal.
RT-OPEX: Flexible Scheduling for Cloud-RAN Processing
3GPP Network Slicing Georg Mayer, 3GPP CT Chairman, Huawei
Connectionless Services for M-CORD
4G LTE in GENI Abhimanyu Gosain agosain (at) bbn (.) com GEC-24
WIMAX AND LTE.
Mobile-CORD Progress and MWC Plan
Week #01 Introduction to Heterogeneous Networks (HetNet)
LTE Long Term Evolution
Long Term Evolution (LTE) and System Architecture Evolution (SAE)
Product Roadmap & Strategy
A glimpse into the future, looking beyond 2025
Hub One Experiment August 2014.
Zemin Yang, Secretary-General, CCSA
Wireless Network Cloud
Private GSM/Mobile Network
Universal Mobile Telecommunication System (UMTS)
Focus areas Internet of Things (IoT) Network and Cloud SW
Month Year doc.: IEEE yy/xxxxr0 November 2017
Heavy Reading’s View Automated 4G/5G Core Networks
Vision and Technologies for 5G
LTE Long Term Evolution
5G: Developments and Action Agenda
Long Term Evolution (LTE)
An Overview on LTE.
Casablanca Platform Enhancements to Support 5G Use Case (Network Deployment, Slicing, Network Optimization and Automation Framework) 5G Use Case Team.
Mobile Synchronization Trends 4G to 4.5G to 5G
Future Railway Mobile Communications System (FRMCS)
Zemin Yang, Secretary-General, CCSA
Casablanca Platform Enhancements to Support 5G Use Case (Network Deployment, Slicing, Network Optimization and Automation Framework) 5G Use Case Team.
Erik Guttman, Chairman of 3GPP TSG SA Samsung Electronics
Introduction & Final Summary
Virtual Central Office
Virtual Central Office Looking Ahead to the 5G Edge
Casablanca Platform Enhancements to Support 5G Use Case (Network Deployment, Slicing, Network Optimization and Automation Framework) 5G Use Case Team.
Casablanca Platform Enhancements to Support 5G Use Case (Network Deployment, Slicing, Network Optimization and Automation Framework) 5G Use Case Team.
Casablanca Platform Enhancements to Support 5G Use Case (Network Deployment, Slicing, Network Optimization and Automation Framework) 5G Use Case Team.
WF on LTE-NR Coexistence
Casablanca Platform Enhancements to Support 5G Use Case (Network Deployment, Slicing, Network Optimization and Automation Framework) 5G Use Case Team.
RAN Functional Decomposition the options and interfaces…
Casablanca Platform Enhancements to Support 5G Use Case (Network Deployment, Slicing, Network Optimization and Automation Framework) 5G Use Case Team.
Candidate for ONAP Dublin Implementation 5G RAN E2E Slice Design, Deploy and Manage 5G Use Case Team.
Zemin Yang, Secretary-General, CCSA
Wireless Standards adaptation
ONAP 5G USE CASE ENHANCEMENTS
Discussion on IMT-2020 mMTC and URLLC
Vasilis Maglogiannis [1], Jerome A
5G Technology Enablers, Regulatory Environment and Business Models
Overview of 3GPP and 5G standards
Definition and Evaluation of Latency in 5G with Heterogeneous Use
ONAP-to-Edge Secure site reachability
LETI INNOVATION DAYS June 25th of 2019
Overview of 5G technology landscape
Presentation transcript:

EURECOM 5G Experimental Site Communication Systems Department EURECOM

EURECOM 5G Deployment (2019-2020) Outdoor RRS (16 -> 64 elements) Indoor RRS (32 elements) 1GbE 2x20GbE 4x20GbE Outdoor deployment of 5G-NR RRUs (+LTE-M/NB-IoT) Frequency allocations in place / pending 3600-3680 MHz TDD (61 dBm EIRP, NR band 78) => 5G eMBB/URLLC 2580-2610 MHz TDD (61 dBm EIRP, LTE band 38) => 4G legacy 698 – 703/753 – 758 MHz FDD (LTE band 68) => IoT / ProSe 733 – 736/788 – 791 MHz FDD (LTE band 14) => IoT / ProSe 703 – 748/758 – 803 MHz FDD (LTE band 28 / NR band 28, 57 dBm EIRP, pending) => 5G Experimental Playground for OAI Target scenarios : eMBB, URLLC, mMTC, D2D

Technologies EURECOM’s 5G Experimentation Infrastructure is based on the OpenAirInterface and Mosaic5G software packages along with commercially-available RF and computing equipment. The test site can be used to experiment with the following 3GPP technologies 3GPP 5G NR (including RU,DU and CU node functions) 3GPP 4G LTE-A (including RU,DU-LTE and CU-LTE node functions) 3GPP 4G LTE-M 3GPP 4G NB-IoT 3GPP 4G LTE-Sidelink (ProSe / V2X) 3GPP Rel 15 EPC (MME,HSS,S+PGw) 3GPP Rel 15 5GCore (end 2019) OAI Towards 5G

HW/Interconnection / Orchestration RAN / EPC cloud OpenShift x86 cluster (Xeon Gold 36-core servers) CumulusOS switching fabric 20 4G RRUs (TDD Band 38,2585-2605 MHz) 2x8-antenna 5G NR RRU (TDD Band n78, 3600-3680 MHz) 2x2-antenna 4G IoT/Sidelink RRU (FDD Bands 14,68) 2x2-antenna 5G FDD Band n28 (pending agreement) Control-plane (EPC/CU) can be remote (OAI VNFs at remote site for CU) Will be controllable in ONAP environment (5G-EVE / OPNFV VCO 3.0) Access via Internet / GEANT SSH / IPSEC for control-plane via RENATER/GEANT User-plane is locally-connected for high-speed services or via RENATER/GEANT for low-speed services. OAI Towards 5G

Physical Architecture Extension for OAI CI Framework Extension Fall 2019 CURRENT DEPLOYMENT Internet/GEANT UE Pool CI RF Indoor RRU Net Outdoor RRU Net OAI Towards 5G

Current Physical Deployment (Server room) Platform gateway 1x Atom C2758 Switching Fabric 3x EdgeCore 54-Port 25G/100G Ethernet Switches Xeon servers 4x Xeon Gold 6154 1x Xeon Silver 4114 1x Xeon E5-2640-v4 5G RRUs (in server room for testing) 2x USRP N310 OAI Towards 5G

Current Physical Deployment (Indoor Band 38 RRUs) OAI Towards 5G

Outdoor Components (Geography) 4G/5G Radio Site OAI Towards 5G

Feedback: Privacy Policy Feedback
Do Not Sell My Personal Information
About project: SlidePlayer Terms of Service

© 2025 SlidePlayer.com. Inc. All rights reserved.