MASTER 5G/6G MODEM, PHY & WIRELESS SoC ENGINEERING
Become a 5G/6G Modem, PHY & Wireless SoC Engineer
Build practical skills in wireless communication systems, 5G NR physical-layer concepts, digital baseband processing, modem architecture, RTL design, verification and open-source engineering workflows.
Learn how wireless communication algorithms connect with digital hardware and System-on-Chip (SoC) implementation through simulation, automation and project-based practice.
- 4–6 Months
- 150+ Practical Training Hours
- Live Online Training
- Open-Source Wireless Simulation & Digital Design Labs
What You Will Learn
Wireless Communication & 5G/6G Fundamentals
Understand the technology behind modern wireless systems.
Build the foundation needed to understand how digital information is transmitted and received over wireless communication networks.
- Wireless communication fundamentals
- Cellular network architecture
- Evolution from 4G LTE to 5G NR
- Introduction to 6G research directions
- Frequency bands and spectrum concepts
- FR1 and FR2 fundamentals
- Transmitter and receiver architecture
- Modulation and demodulation
- Link budget and channel fundamentals
- Introduction to 3GPP specifications
Digital Signal Processing for Wireless Systems
Understand how digital signals are represented and processed.
Learn the mathematical and computational foundations used in modem and physical-layer implementations.
- Signals and systems fundamentals
- Sampling and quantisation
- Discrete-time signal processing
- Complex numbers and I/Q representation
- Fourier transform fundamentals
- Digital filtering
- Noise and signal-to-noise ratio
- Constellation diagrams
- Modulation and demodulation algorithms
- Fixed-point and floating-point representation
5G NR Physical Layer & Modem Architecture
Explore the main processing stages of a 5G modem.
Understand how the physical layer transforms information into radio signals and recovers transmitted information at the receiver.
- Introduction to 5G NR PHY
- Downlink and uplink concepts
- Resource blocks and resource elements
- OFDM fundamentals
- Subcarrier spacing and numerology
- Modulation and coding concepts
- Reference signals and pilot concepts
- Synchronisation fundamentals
- Channel estimation
- Equalisation and detection
- Introduction to MIMO
- PHY transmitter and receiver processing chains
Python-Based Wireless Simulation
Simulate and analyse wireless algorithms before hardware implementation.
Use Python to develop models, generate signals and evaluate the behaviour of selected communication algorithms.
- Python for wireless engineering
- NumPy-based signal processing
- Generating digital communication signals
- QPSK and QAM simulation
- OFDM transmitter modelling
- OFDM receiver modelling
- Adding noise and channel effects
- Bit error rate (BER) analysis
- Signal constellation visualisation
- Performance comparison across scenarios
Digital Baseband & Modem Algorithm Development
Connect communication algorithms with implementation requirements.
Explore how algorithms are structured for efficient digital processing and how implementation constraints influence modem design.
- Digital baseband processing architecture
- Transmitter and receiver functional blocks
- Modulation mapping and demapping
- FFT and IFFT processing concepts
- Channel estimation and equalisation algorithms
- Synchronisation and detection fundamentals
- Data path and control path concepts
- Latency and throughput analysis
- Fixed-point implementation considerations
- Algorithm verification and performance evaluation
RTL Design & Wireless Hardware Verification
Explore the implementation of selected modem functions in digital hardware.
Translate suitable digital signal-processing blocks into RTL and verify their behaviour against reference models.
- Digital hardware design fundamentals
- Verilog HDL and SystemVerilog concepts
- RTL modelling of selected processing blocks
- Fixed-point arithmetic in hardware
- Testbench development
- Reference-model comparison
- Simulation and waveform analysis
- Functional checking and corner-case testing
- Python-based verification using Cocotb
- Synthesis fundamentals using Yosys
Wireless SoC Architecture & Open-Source Tools
Understand how modem functions fit into a larger digital system.
Explore the relationship between signal-processing blocks, digital interfaces, control logic and hardware implementation.
- Introduction to Wireless SoC architecture
- Processing blocks and data-flow organisation
- Control and data path separation
- Hardware interface fundamentals
- Buffering and data movement concepts
- Clock and reset fundamentals
- Throughput and latency considerations
- Linux-based development workflows
- Git-based project management
- Open-source simulation and synthesis tools
End-to-End Wireless Modem Engineering Project
Connect wireless simulation, algorithm analysis, RTL and verification.
Develop a project that demonstrates how a selected wireless processing function moves from a software model toward a verified digital hardware implementation.
- Define the modem function and design requirements
- Build a Python reference model
- Simulate the selected communication algorithm
- Evaluate signal quality and performance metrics
- Develop RTL for a suitable digital processing block
- Create testbenches and verification scenarios
- Compare RTL outputs against the reference model
- Run supported synthesis and inspect results
- Document performance, limitations and design trade-offs
- Present the final project and technical report
Hands-On Modem & SoC Practice
From Wireless Algorithms to Verified Digital Hardware
Practise an engineering workflow that connects wireless communication concepts, signal-processing algorithms, digital hardware implementation and verification.
Wireless Requirements & System Planning
- Understand the selected wireless application
- Identify the transmitter or receiver function
- Study relevant 5G NR concepts and specifications
- Define input, output and operating conditions
- Prepare the initial functional specification
Modem Architecture & Signal-Processing Design
- Identify the processing stages in the selected modem function
- Define signal formats and data flow
- Select suitable modulation or processing methods
- Analyse algorithmic complexity and constraints
- Prepare a functional block diagram
Python-Based Algorithm Simulation
- Develop a software reference model
- Generate representative input signals
- Implement the selected communication algorithm
- Simulate noise and relevant channel conditions
- Analyse outputs and verify expected behaviour
OFDM & Wireless Performance Analysis
- Generate OFDM signals using a software model
- Explore subcarrier and symbol organisation
- Implement a suitable receiver-processing stage
- Measure bit error rate under selected conditions
- Compare performance across simulation scenarios
Digital Baseband RTL Development
- Select a suitable hardware-friendly algorithm
- Define the RTL module interface
- Implement the processing logic in Verilog/SystemVerilog
- Consider fixed-point arithmetic and data widths
- Simulate the RTL and inspect waveforms
Verification & Reference-Model Comparison
- Create test scenarios for the RTL block
- Generate input vectors from the software model
- Apply the same inputs to the RTL implementation
- Compare hardware outputs against expected results
- Debug functional mismatches and rerun tests
Synthesis & Hardware-Oriented Analysis
- Prepare synthesizable RTL
- Run synthesis using Yosys
- Inspect the generated netlist
- Review supported area and timing reports
- Document implementation trade-offs and limitations
Project Integration & Technical Delivery
- Organise simulation, RTL and testbench files
- Maintain the project using Git
- Run the final verification suite
- Document algorithm and hardware results
- Present the final project and engineering conclusions
Build Practical Wireless SoC Engineering Skills
Wireless Fundamentals → PHY Algorithms → Simulation → RTL → Verification → Synthesis
Understand Wireless Systems
Learn the communication principles behind modern modem and PHY architectures.
Model the Algorithms
Use Python to simulate selected digital communication functions.
Analyse Performance
Evaluate metrics such as BER, signal quality and algorithm behaviour under defined conditions.
Develop Digital Hardware
Translate suitable processing functions into synthesizable RTL.
Verify the Implementation
Compare RTL behaviour against software reference models and test cases.
Explore Synthesis
Use open-source tools to inspect the synthesised design and supported implementation metrics.
Deliver the Project
Present the design, simulation results, verification evidence and technical documentation.
Course Journey
Wireless Communication Fundamentals → Digital Signal Processing → 5G NR Fundamentals → OFDM → Modulation & Demodulation → Python Simulation → Channel Modelling → BER Analysis → Modem Architecture → Digital Baseband → Fixed-Point Concepts → Verilog/SystemVerilog → RTL Simulation → Cocotb Verification → Yosys Synthesis → Wireless SoC Project
What the Job Market Is Telling Us
5G/6G Modem & Wireless SoC Engineering
News & Industry Insights
— Global 5G Deployment Is Creating Continuing Engineering Work
Ericsson's June 2026 Mobility Report states that global 5G subscriptions passed three billion during the first quarter of 2026. It forecasts 6.4 billion subscriptions by the end of 2031. The continuing expansion of 5G networks sustains engineering needs across modem development, radio systems, digital baseband, network performance and device integration.
— India’s 5G Expansion Creates a Significant Technical Ecosystem
Ericsson forecasts that India will have more than 1.1 billion 5G subscriptions by the end of 2031. Continued adoption, growing data consumption and the expansion of 5G services strengthen the importance of wireless engineering, modem performance, digital signal processing and device-side implementation skills.
— 6G Development Is Moving from Research Towards Standardisation
The wireless industry has already begun 6G standardisation discussions, with the first commercial services anticipated around 2030. Research into AI-native networks, integrated sensing and communication, energy efficiency and new radio technologies will create specialised development and research opportunities as the technology matures.
— Wireless Hardware Needs Both Communication and Chip-Design Skills
Modem and Wireless SoC engineering bring together digital signal processing, communication algorithms, hardware design, verification and system integration. Engineers who understand both wireless algorithms and their implementation in digital hardware can explore specialised roles in modem development, PHY engineering, baseband processing and wireless silicon.
Leading Semiconductor & Technology Companies to Explore
Qualcomm, MediaTek, Samsung Semiconductor, Apple, Intel, Broadcom, NVIDIA, AMD, Arm, NXP Semiconductors, Marvell Technology, Ericsson, Nokia, Samsung Networks, Keysight Technologies, Anritsu, Synopsys, Cadence Design Systems, Infineon Technologies, STMicroelectronics.
Tools & Technologies
Programming & Numerical Computing
Python | NumPy | SciPy | Matplotlib
Wireless Simulation
Python-Based Modem Models | OFDM Simulation | Modulation Models | Channel Simulation | BER Analysis
Hardware Description Languages
Verilog HDL | SystemVerilog
Open-Source Simulation & Verification
Icarus Verilog | Verilator | GTKWave | Cocotb
Synthesis & Digital Design
Yosys | Open-Source RTL Analysis
Development Environment
Linux | Bash | Git | GitHub | Automated Test Scripts
Wireless Engineering Concepts
5G NR PHY | OFDM | QPSK/QAM | MIMO Fundamentals | Channel Estimation | Equalisation | Digital Baseband
Who is this Program For?
Electronics & Communication Engineering Graduates
Build practical foundations in wireless communication, digital signal processing and modem engineering.
VLSI & Digital Design Engineers
Extend digital hardware skills into wireless baseband and communication-system applications.
Wireless & Telecom Engineers
Strengthen understanding of 5G NR PHY processing, modem architecture and digital implementation.
Embedded & Firmware Engineers
Explore the interaction between digital communication algorithms, hardware interfaces and SoC architecture.
DSP & Signal-Processing Engineers
Connect mathematical models with hardware-oriented implementation and verification.
Engineering Students & Researchers
Develop a project portfolio involving wireless simulation, digital algorithms and RTL-based verification.
Your Carrer Outcome
Explore Career Paths Across Wireless & Digital Hardware Engineering
The programme develops foundational skills relevant to areas such as:
Why Primebit Solution?
Telecom-Focused Learning
Connect wireless communication fundamentals with modem and digital baseband engineering.
Algorithms + Hardware
Understand how software models can guide the development and verification of digital hardware blocks.
Practical Simulation
Use Python to model communication algorithms and examine performance under controlled conditions.
Open-Source Toolchain
Practise with accessible simulation, verification and synthesis tools.
Cross-Domain Engineering
Explore the relationship between wireless systems, digital signal processing, RTL and SoC architecture.
Project-Oriented Development
Build demonstrable work that combines simulation, implementation, verification and technical documentation.
PROGRAM AT A GLANCE
Duration & Practical Hours
4–6 Months
Mode
Live Online Training
Core Focus
5G/6G Modem, PHY & Wireless SoC Engineering
Simulation
Python-Based Wireless Models
Practical Training
150+ Hours
Hardware
Verilog/SystemVerilog & RTL Verification
Open-Source Tools
Cocotb, Verilator, Icarus Verilog & Yosys
Project
Wireless Algorithm Simulation, RTL & Verification
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Frequently Asked Questions
Basic mathematics, programming and electronics knowledge will help. Learners new to digital communications should complete the introductory modules before progressing to modem algorithms and RTL implementation.
Yes. The course introduces selected PHY concepts such as OFDM, modulation, numerology, reference signals, channel estimation and equalisation. The exact depth of standards coverage depends on the final curriculum.
The programme focuses on selected wireless algorithms, software simulation and digital hardware blocks. A complete, standards-compliant commercial modem requires much broader implementation, interoperability testing, performance optimisation and specialised validation.
The course introduces 6G research directions and their relationship to evolving wireless-system concepts. It will not claim to teach a finalised 6G commercial standard where specifications and requirements remain under development.
Yes. The learning pathway prioritises Python-based simulation, open-source HDL simulators, Cocotb and Yosys. Additional software-radio tools can be explored where appropriate and supported.
The core learning pathway can use software simulation and supported RTL tools. Optional FPGA or software-defined radio exercises require compatible hardware and a suitable lab environment.
It builds foundations in wireless systems, digital signal processing, RTL and verification. Further specialisation in computer architecture, hardware implementation, real-time processing and production SoC development may be needed for specific roles.
Simulate. Design. Verify. Integrate.
BUILD YOUR 5G/6G WIRELESS HARDWARE ENGINEERING CAREER
Build practical foundations across:
- 5G NR PHY & Modem Architecture
- Digital Signal Processing
- Python-Based Wireless Simulation
- Digital Baseband & RTL
- Hardware Verification
- Open-Source Digital Design Tools
- Wireless SoC Engineering
Connect wireless communication theory with practical digital hardware engineering at Primebit Solution.
Primebit Solution — Practical Training for Modern Engineering Careers
- 5G/6G Modem
- PHY & Baseband
- RTL & ASIC Verification
- Python Simulation
- EDA Tools
Simulate the wireless algorithms. Design the digital hardware. Shape the future of wireless semiconductor technology.