
Assess FR2 millimeter-wave propagation across 28–71 GHz bands, comparing LOS and NLOS under rain, oxygen, foliage, and body blockage; plan with beamforming and sub-6 fallback for reliability.
Explore free-space path loss calculations across 700 mhz, 3.5 ghz, and 28 ghz, and master propagation mechanisms, shadow fading, small-scale fading models, and millimeter-wave beamforming challenges for 5g planning.
Learn how to optimize antenna tilt and import pattern files to predict RF coverage, comparing mechanical and electrical tilt, validating pattern files, and applying environment-specific down tilt rules.
Explore massive MIMO fundamentals from 32T32R to 128T128R, comparing array, beamforming, and multi-user MIMO gains, and how EIRP and SSB versus traffic beam gains shape 5G mid-band deployments.
Compare analog, digital, and hybrid beamforming architectures and their RF chain requirements. Explain SSB beam sweeping, and how SSB coverage and CSI-RS capacity beams guide 5G NR planning.
Design millimeter wave antenna systems and master beam management for 28 and 39 GHz, covering 8x8 and 16x16 patches, P1-P3 alignment, and multi-panel IAB strategies against body blockage.
Explore margins and losses in 5g nr link budgets, including shadow fade, BPL, interference, foliage, and vehicle penetration, to design reliable indoor and outdoor coverage.
Learn a six-step coverage planning methodology for 5g nr, from operator requirements and ul mapl through propagation, site counts, and monte carlo validation using rsrp, rsrq, and sinr maps.
Define 5G coverage with SSR, SRP, SSS-INR, CSIR-SRP; compare idle vs connected modes; use layered macro, small cell, indoor design to 98% coverage and mitigate pilot pollution using SINR planning.
Plan millimeter wave FR2 coverage by constructing beam corridors along streets, analyzing LOS and blockage, and selecting 64–128 beam SSB configurations to balance range and latency.
Apply Shannon capacity to 5G NR scenarios and quantify practical throughput with the four-factor formula, accounting for TDD, MIMO, and overhead, and distinguish peak versus average SE.
Explore how 3 to 10 meter antenna heights alter propagation, apply small-cell models, and compare dedicated, shared, and carrier aggregation spectrum strategies for HetNet deployments.
Want to become an expert in 5G NR RF planning and radio network design?
This is the most comprehensive 5G NR RF planning course available online — with 21+ hours of expert-led video, 85 lectures, and 16 structured modules that take you from core fundamentals to advanced, real-world 5G network design. Whether you are an RF engineer moving from 4G LTE, a network planner working on 5G rollouts, or a telecom professional upgrading your skill set, this course delivers the practical knowledge you need to plan, design, and optimize 5G NR radio networks with confidence.
Why Students Choose This Course
5G NR has transformed radio network planning — new spectrum bands (sub-6 GHz and mmWave), Massive MIMO, flexible OFDM numerologies, beamforming, and ultra-dense network architectures demand entirely new planning skills. This course bridges theory and hands-on practice, giving you the tools, methodologies, and industry best practices used by RF planning professionals worldwide.
What You Will Learn
5G NR fundamentals — evolution from LTE to 5G, spectrum allocation (FR1 and FR2), NR frame structure, OFDM numerology, and 3GPP standards
Massive MIMO antenna systems and beamforming — analog, digital, and hybrid beamforming, beam management for macro and small cell deployments
5G NR link budget analysis — sub-6 GHz and mmWave bands, beamforming gains, body loss, penetration loss, and interference margins
Step-by-step 5G coverage planning — coverage objectives, maximum allowable path loss (MAPL), coverage predictions, and Monte Carlo simulations
Capacity planning and dimensioning — traffic modeling, throughput estimation per cell, user density analysis, and optimal site count determination
5G site selection, survey processes, site acquisition, frequency and PCI planning, neighbor optimization, and mobility management
Small cell and HetNet planning — C-RAN, fronthaul/backhaul design, and multi-layer network coordination
Indoor 5G RF design — DAS, small cells, and Distributed Indoor Systems (DIS) for enterprise and venue deployments
Hands-on RF planning tools and simulation workflows including propagation models, clutter analysis, and site optimization
Advanced use cases — Fixed Wireless Access (FWA), V2X, IoT/mMTC, and network slicing with differentiated QoS
RF project lifecycle — planning documentation, regulatory compliance, EMF safety, and stakeholder coordination
Capstone project — design a complete 5G RF network from scratch
Future-ready topics — 5G-Advanced (Release 18+), 6G research directions, AI/ML in RF planning, and Open RAN architecture
Course Highlights
21+ hours of structured, expert-led video content
85 lectures across 16 progressive modules
Hands-on exercises and a capstone network design project
Designed for working professionals — practical lessons you can apply immediately on the job
Covers both sub-6 GHz and mmWave 5G planning scenarios
Who This Course Is For
RF planning and optimization engineers
Network design professionals
Telecom project managers and technical consultants
Engineering students building expertise in 5G radio network planning
Anyone working with 5G deployments, site design, coverage optimization, or capacity planning
Enroll now and master the skills to plan, design, and optimize 5G NR radio networks like a professional.