Bestseller · 5G Physical Layer
Mastering 5G PHY

Mastering 5G PHY: Complete Development Training

The only course that takes you from 3GPP spec to actual PHY algorithm design — covering every signal, channel, and reference signal in 5G NR, step by step.

4.6 / 5 (349 reviews) 👥 1,802 students enrolled 🎬 101 lectures ⏱ 20 hours 15 minutes 🌐 English 🏆 Certificate on completion
Enroll on Udemy ↗ 🏷️ Get Discount Coupon
📡
⭐ 4.6
349 ratings · 1,802 students
Lectures101
Duration20h 15m
LevelAll levels
LanguageEnglish
Certificate✓ Yes
PlatformUdemy
Enroll Now on Udemy ↗ Get Discount Code 🏷️

30-day money-back guarantee

What You'll Learn

OFDM basics and its role in wireless communication
Understanding 5G NR Physical Layer 3GPP specification
Essential and advanced modules in 5G PHY
SSBurst: PSS, SSS and PBCH demodulation chain
PDCCH: CRC, CORESET, search spaces, blind decoding
PDSCH & PUSCH: complete physical layer processing
CSI-RS: channel estimation and beam management
DMRS for DL and UL channels
PUCCH formats 0–4 with signal generation
PRACH: preamble generation, cyclic shift, receiver design
SRS: uplink channel sounding & codebook-based MIMO
PTRS: phase noise estimation and compensation
HARQ: concepts, CBG transmission, codebooks
SU-MIMO, MU-MIMO & beamforming fundamentals
5G throughput calculation by hand
Operating bands, ARFCN, GSCN, sampling rates

About This Course

Welcome to the most comprehensive 5G Physical Layer training available. Whether you're a seasoned engineer, a developer, or a fresher looking to break into the field, this course provides everything you need to succeed.

You will learn everything from the basics to advanced concepts of the 5G PHY. Step-by-step explanations and simple visualizations make even the most complex topics easy to understand. By the end of the training, you will have a solid understanding of 5G signals and channels, enabling you to build, optimize, and innovate in RAN networks confidently.

This training stands out for its logical structure, expert guidance, and industry relevance. If you are ready to transform your career, gain in-demand skills, and lead the future of wireless communication, this is the perfect starting point.

Every topic is grounded in 3GPP TS 38.212 and related specifications, so you'll always know exactly what standard defines each procedure and why it was designed that way.

Course Curriculum

13 sections · 101 lectures · 20 hours 15 minutes total

1. Introduction

▶ 3GPP standards — who writes 5G? Meetings, TDocs, specifications
▶ What is the Physical Layer? Different channels in 5G PHY
▶ Overview of the full 5G NR stack

2. Essential Modules of 5G Physical Layer

▶ CRC: Cyclic Redundancy Checks in 5G PHY
▶ Channel coding techniques: LDPC & Polar codes
▶ Rate matching: bit selection and bit interleaving
▶ Scrambling: pseudo-random sequences, C_init values
▶ Modulation: QPSK, 16QAM, 64QAM, 256QAM
▶ OFDM: cyclic prefix, resource grid, BWP
▶ Numerology, slots, frames, resource blocks

3. Synchronization Signal Burst (SSBurst)

▶ PSS, SSS: structure and generation
▶ PBCH demodulation: complete chain
▶ End-to-end SSBurst receiver design

4. Physical Downlink Control Channel (PDCCH)

▶ CORESET: configuration and structure
▶ Search spaces and DCIs in 5G
▶ PDCCH transmitter chain: CRC to resource mapping
▶ Blind decoding of control information
▶ UE multiplexing in PDCCH

5. Physical Downlink/Uplink Shared Channel (PDSCH & PUSCH)

▶ Resource allocation in time and frequency
▶ MCS tables and transport block size calculation
▶ SU-MIMO and MU-MIMO
▶ DMRS for shared channels — complexity and configuration
▶ Frequency multiplexing of multiple UEs

6. Physical Random Access Channel (PRACH)

▶ When does UE send PRACH? Role in random access
▶ PRACH signal generation
▶ Cyclic shift, restricted sets
▶ Short and long PRACH formats
▶ Receiver design for PRACH detection

7. Physical Uplink Control Channel (PUCCH)

▶ What does PUCCH carry? HARQ-ACK, SR, CSI
▶ PUCCH Format 0: sequence and resource mapping
▶ PUCCH Format 1: signal generation & receiver
▶ PUCCH Formats 2, 3 & 4 in full detail

8. Channel State Information Reference Signal (CSI-RS)

▶ CSI-RS for channel estimation and beam management
▶ CDM groups, ZP and NZP CSI-RS
▶ CSI-IM for interference management
▶ CQI, RI, and PMI feedback

9. Sounding Reference Signal (SRS)

▶ Significance of SRS in uplink channel sounding
▶ Codebook and non-codebook-based MIMO with SRS
▶ Step-by-step SRS signal generation

10. Phase Tracking Reference Signal (PTRS)

▶ What is phase noise? Where does it come from?
▶ Impact of phase noise in 5G systems
▶ PTRS generation in DL and UL
▶ Phase noise estimation at the receiver

11. HARQ (Hybrid Automatic Repeat reQuest)

▶ HARQ concept and operation
▶ CBG-based transmission
▶ HARQ codebooks for PDSCH

12. Additional Topics

▶ Operating bands in 5G NR
▶ RSRP & RSRQ measurements
▶ Sampling rates in 5G
▶ ARFCN and GSCN
▶ TDD slot structures
▶ 5G throughput calculation by hand
▶ PAPR — Peak to Average Power Ratio

13. Add-on: Timing Advance

▶ Timing advance concept and procedures in 5G

Who This Course is For

  • 3G/4G/5G Engineers working in testing who want to move into development
  • 4G/5G L2/MAC engineers who want to build deeper PHY understanding
  • 4G/5G Physical Layer engineers who want in-depth knowledge from first principles
  • 4G/5G Radio Network Optimization engineers
  • Graduating students looking for jobs in the 4G/5G/6G field
  • Freshers wanting to switch into core 5G/6G roles

Get a Discount

Use this month's discount coupon at Udemy checkout:

5GPHY-APR-26

Click the code to copy · Coupon updates monthly

Apply Coupon & Enroll ↗

Coupon format: 5GPHY-MON-YY (e.g. 5GPHY-APR-26 for April 2026)

Related Reading

Blog Posts to Supplement This Course

5G PHY

Rate-Matching in 5G: What & Why?

Understand bit selection and interleaving — a key section of the course explained in article form.

Read article →
5G PHY

Scrambling in 5G — What and Why?

How pseudo-random sequences suppress interference in every 5G channel.

Read article →
Performance

5G NR Data Rate Calculation

Calculate 5G throughput from first principles — PRBs, DMRS overhead, MCS, layers.

Read article →