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5G RAN SA Planning, Design & Dimensioning telecom trainig course

5G RAN SA Planning, Design & Dimensioning

5G RAN SA Planning, Design & Dimensioning will offer delegates a good and deep understanding on 5G NR Radio Access Network (RAN) planning and dimensioning procedures with focus on the Stand Alone (SA) design & deployment
Aimed At
Course Review
Why Choose this Course
You will learn
Course Outline
Training Format
FAQ's

Customer Tailored

We can tailor the included topics,tech level,and duration of this course right to your team’s technical requirements and needs. - MCNS offers courses to companies, institutions, departments etc and not to individuals as per open courses.
Aimed At

5G RAN SA Planning, Design & Dimensioning is mainly aimed at a technical audience. It is suitable for technical professionals, RAN operators, Radio planning engineers, RAN optimization engineers, Research Institutes, defense sector, who currently are or will be involved in deploying and designing 5G SA.

Prerequisites: Those wishing to take this course should have a good and solid understanding of 5G technology, with emphasis on 5G NR air interface.

Course Review

5G RAN SA Planning, Design & Dimensioning leads the audience into a deep dive towards 5G Stand Alone (SA) technology planning, design and dimensioning principles, both from understanding as well as configuration perspective. It offers an understanding of the opportunities, challenges, and risks that’s needed to exploit and deploy the 5G SA technology with emphasis on massive MIMO beamforming solutions. It teaches how to maximize RAN network capacity and enhance data transmission, evaluate service quality, optimize usage of radio network resources, design the RACH channel, plan for paging capacity, dimension TAs and RNA for RRC-inactive users, consider quality requirements for RAN reference signals and channels and finally dimension the front-haul and back-haul transmission network capacity. Finally it also considers some 5G RAN SA optional features to improve performance. The course is supported by proper excel dimensioning (calculator) files for practical exercises and case studies.

Course Benefits for individuals (Professionals)
  • Understanding 5G SA RAN requirements
  • Explore 5G RAN coverage and capacity principles
  • Learn how to plan for cell edge users as well as average cell performance conditions
  • Understand the principles behind the control channels and reference signals capacity and coverage requirements
  • Learn how to complete special topics on capacity and coverage (i.e. Paging, RACH planning & dimensioning, TA planning)
  • Learn how to configure basic parameters
  • Practice on capacity and coverage planning tools (e. excel calculators examples) through practical exercises
Course Benefits for your Organization
  • Equip organization engineers with the necessary knowledge to accomplish difficult and complex tasks related to 5G NR SA RAN plan, design and optimization.
  • Keep ahead of competitors in offering well planned and high quality customers’ 5G services
  • Identify new revenue streams that can be enabled through 5G
  • Prepare for future network expansions and quality performance optimization
You will learn
The key points you will learn through this course

5G Radio Technology Review

Basics on Standalone (SA) Planning

SA mobility planning scenarios

5G SA Special Design Requirements

5G SA Transport Network Design Requirements

Course Outline
A short brief of your program details & schedule

5G New Radio (NR) Technology Preview

  • 5G Air interface overview
  • 5G NR FR1 and FR2 bands
  • Scalable numerology
  • NR frame structure
  • FDD – TDD modes
  • NR signals and channels review
  • Stand-Alone (SA) architecture
  • 5G SA Services: eMBB, massive IoT, URLLC

MIMO &mMIMO Technology overview

  • LTE to 5G MIMO review
  • 3GPP Massive MIMO standardization
  • Beam-forming principles
  • Active Antenna Systems; Active Antenna Units
  • Massive MIMO panels and EiRP
  • Massive MIMO Digital beamforming gain: Practical approach
  • Massive MIMO Analog/Hybrid beamforming gain: Practical approach
  • MIMO TM3, TM4, TM8-10 modes for SA deployment: gain and performance

5G Channel Modeling

  • What is a Mobile Channel model ?– general principles
  • Non-Line of Sight and Rayleigh modeling
  • LoS and Rice modeling
  • Shadow modeling
  • Site modeling : Macro, micro, pico
  • Doppler effects and channel models
  • FR1 Pathloss models (below 3 GHz, C-Band, 5-6 GHz)
  • FR2 Pathloss models for mmW (24-30 GHz, 30-40 GHz, 50-60 GHz)
  • Example: Link budget analysis overview; various cases (rural, urban, dense urban, O2I)
  • Exercise: Link Budget calculations using Excel

Uplink Planning

  • Network quality requirements
  • Vendor (equipment) UL requirements
  • RACH and RACH success probability
  • Power control factor
  • Uplink Interference factor: Optional features for Interference mitigation
  • Coverage planning for PUSCH channel
  • Coverage planning for control channels (PUCCH, RACH)
  • Coverage planning for signals (SRS, DMRS)
  • 5G NR SA sector UL capacity estimations – single service
  • 5G NR SA sector UL capacity estimations – combined services
  • 5G NR SA UL throughput estimation (average, cell edge, max) vs SINR
  • 5G NR SA & Carrier Aggregation UL capacity
  • Exercise: UL capacity estimations using Excel spread-sheet calculator

Downlink Planning

  • Network quality requirements
  • Vendor (equipment) DL requirements
  • Power gain calculation
  • Interference factor: Optional features for Interference mitigation
  • Coverage planning for PDSCH channel
  • Coverage planning (including aggregation level) for control channel PDCCH
  • Coverage planning for signals (PSS, SSS, PBCH, SIB1, SIBx, CSI-RS, DMRS, PTRS, TRS)
  • 5G NR SA sector DL capacity estimations – single service
  • 5G NR SA sector DL capacity estimations – combined services
  • 5G NR SA DL throughput estimation (average, cell edge, max) vs SINR
  • 5G NR SA & Carrier Aggregation DL capacity
  • Exercise: DL capacity estimations using Excel spread-sheet calculator

SA mobility planning

  • SA mobility scenarios
  • SA Handover events (A2, A3, A5) and parameter settings
  • SA RwR conditions
  • SA Radio Link Failure coverage estimation

RACH Root sequence Planning

  • RACH Root Sequence planning
  • RSI and sectorization
  • RACH Preamble selection and cell size coordination
  • RACH SINR requirements
  • RACH collision probability vs capacity
  • Exercise: RACH collision probability and RACH decoding vs. SINR using Excel spread-sheet calculator

5G NR SA Paging Dimensioning Considerations

  • 5G NR Paging review
  • 5G NR Paging intensity
  • 5G NR SA Paging capacity estimation
  • NG interface capacity estimation vs paging intensity
  • 5G NR SA Paging Success rate estimation
  • Exercise: Paging Capacity estimations and Paging decoding probability vs SINR SINR using Excel spread-sheet calculator

SA Tracking Area Dimensioning Considerations

  • TA & TA list capacity considerations
  • Tracking area Update (TAU) signaling load
  • Notification area (RNA) capacity planning
  • RRC-Inactive state and signaling loading

D-RAN Deployment

  • Distributed (D-RAN) deployment requirements
  • Back-haul transport network requirements
  • Optical fiber throughputs and capacity
  • MW-Link throughput and capacity
  • Exercise: capacity estimations using Excel spread-sheet calculator

C-RAN Deployment

  • Centralized (C-RAN) deployment requirements
  • Passive (RRU) vs. Active Antenna Unit (AAU) requirements
  • CPRI and eCPRI standards and requirements
  • Front-haul transport network requirements
  • Back-haul transport network requirements
  • Optical fiber throughputs and capacity
  • MW-Link throughput and capacity
  • Exercise: capacity estimations using Excel spread-sheet calculator

v-RAN Deployment

  • virtual (v-RAN) or cloud RAN deployment requirements
  • CU-DU split architectures and deployment scenarios
  • Passive (RRU) vs. Active Antenna Unit (AAU) requirements
  • CPRI and eCPRI standards and requirements
  • F1 interface requirements
  • E1 interface requirements
  • Optical fiber throughputs and capacity
  • MW-Link throughput and capacity
  • Exercise: capacity estimations using Excel spread-sheet calculator

Xn Deployment

  • SA Xn interface deployment requirements
  • Xn-AP and Xn-UP capacity and throughput considerations
  • Optical fiber throughputs and capacity
  • MW-Link throughput and capacity
  • Exercise: capacity estimations using Excel spread-sheet calculator
Training Format

Instructor-Led Training

On-Site Classroom: 4days

Web delivered (Virtual): 4 days

Excellent and descriptive course material (pdf file) will be provided

FAQ's

How is 5G SA coverage affected?

It is well known that higher radio frequencies have shorter wavelengths, meaning they can’t travel too far without high attenuation. Consequently 5G SA “cells” have to be smaller if an MNO wants to provide access to those high-frequency bands. 5G networks require more infrastructure, and that infrastructure offers less coverage. However, Low Power Wide Area Networks (LPWANs) like Narrowband IoT (NB-IoT) and LTE-M are beginning to incorporate 5G technologies. Massive Machine-Type Communication (mMTC) is the 5G evolution of NB-IoT and LTE-M, and it will facilitate greater 5G coverage.

How is 5G SA outdoor to indoor planning affected?

From basic physics it is well known that higher frequencies have a harder time penetrating buildings, which means they have poor indoor coverage. 5G can use bands in low and mid-range frequencies as well, but indoor applications will often not be able to use the higher bands. As a common practice we can say that 5G connectivity is most useful in big cities where there’s a higher concentration of cellular devices (and greater demand for high-speed, low latency Internet). But it will take time for MNOs to build up the infrastructure needed to provide widespread 5G coverage.

What is the 5G SA operating frequency range? highest Modulation Scheme used in LTE-A?

5G networks can facilitate connectivity on low frequencies below 1 Gigahertz (GHz), mid frequencies from 1 GHz to 6 GHz, and high frequencies from 6 GHz to over 100 GHz. Additionally, a 5G network can connect devices over both licensed and unlicensed bands, giving providers greater flexibility with how they use the radio frequency spectrum. While the substantially higher frequencies allow for greater data speeds, this also creates new coverage and infrastructure challenges for engineers that want to take advantage of 5G.

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