Microwave Systems Engineering Training

Commitment 8-10 Days, 7-8 hours a day.
Language English
User Ratings Average User Rating 4.8 See what learners said
Delivery Options Instructor-Led Onsite, Online, and Classroom Live


This Microwave Systems Engineering Training course is intended to provide the participants with a sound understanding of Radio Transmission Systems Engineering and to allow them to understand the major engineering considerations involved when planning and deploying digital microwave radio transmission networks.

At the end of this Microwave Systems Engineering Training course, you will understand the essentials of radio systems engineering and radio link planning and will be able to design and manage microwave networks such that the best network topologies are selected and paths are designed for the lowest possible operations and maintenance costs. A description of the transmission network of RAN & UTRAN is given as an example and a basic transmission rate hierarchy is provided as well.

  • 8-10 days of Microwave Systems Engineering Training with an expert instructor
  • Microwave Systems Engineering Electronic Course Guide
  • Certificate of Completion
  • 100% Satisfaction Guarantee


  • This program can be taught in eight to ten days (8-10 days), depending on the depth desired by the client, and can be divided into two courses of four-to-five days each (a four-to-five day basic course and a four-to-five day advanced course).

Upon completing this Microwave Systems Engineering Training course, learners will be able to meet these objectives:


The target audience for this Microwave Systems Engineering Training course:

  • Those who wish to undertake a comprehensive program of instruction in microwave systems engineering principles and techniques.

The knowledge and skills that a learner must have before attending this Microwave Systems Engineering Training course are:


Transmission Networks
  • Short-haul microwave networks
  • Long-haul microwave networks
Transmission Rates Hierarchy
  • PCM basics
  • PDH network
  • SDH network
  • ATM basics
Network Topologies
  • Tandem configurations
  • Star configurations
  • Mesh configurations
  • Star-Mesh configurations
  • Mixed networks
  • Transmission networks for Cellular
  • GSM:  PCM over Optical; PDH, SDH
  • GPRS:  IP over Ethernet and Frame Relay
  • UMTS:  Frames over ATM
  • LTE: IP-based traffic, the MBPN network
Brief Introduction to Wireless Radio Communications
  • Wireless systems design challenges
  • The wireless channel
  • Propagation models
  • Large scale propagation
  • Small scale propagation
  • Rayleigh model
  • Ricean model
  • Nakagami model
  • Wireless multipath channels
  • Spatial channel models and antennas
  • Space-Frequency Diversity
Microwave Systems Engineering Training – Modulation Schemes
  • AM systems
  • FM systems
  • Digital Wireless systems
  • Line codes
  • ASK, FSK, PSK, MSK, QPSK, and QAM modulation schemes presentation
  • Modulation techniques over fading channels
Key Radio Fundamentals
  • Equalization principles
  • Fundamental principles of channel coding
  • Error correction & error detection principles
  • Introduction to Forward Error Correction Coding (FEC)
  • Block coding
  • Convolutional coding
  • Interleaving
  • Diversity principles
  • Multiple Access Techniques
  • FDMA
  • TDMA
  • Direct sequence spread spectrum principles
  • Automatic Transmission Power Control (ATPC)
  • Errorless Vs. Hitless Receiver Switching
Transmitter Receiver Characteristics
  • System Gain
  • Dispersive Fade Margin
  • Radio Thermal Noise
  • Signal to Noise ratio S/N
  • Receiver sensitivity
  • Modulation and S/N
  • Design principles
Antenna System Considerations; Transmission Lines
  • Antenna classifications
  • Antenna types
  • Standard antennas
  • High-performance antennas
  • Extra high-performance antennas
  • Transmission lines basics
  • Antenna electrical characteristics (Gain, Antenna Lobes, Beam width,  Antenna Polarization, VSWR)
  • Antenna system accessories (Antenna Dehydrators, Antenna Grounding, Antenna Fields)
Antenna Installations
  • Feeder cables
  • Customer library
  • Safety regulations
  • Mounting connectors
  • Sealing connectors
  • Antenna spacing and direction requirements
  • Site Installation planning and procedures
  • Site Installation documentation
  • Earthing and lightning protection
  • Roxtec installation
  • Antenna system testing
  • Practical exercises
Microwave Propagation
  • Microwave propagations in Fading Free conditions
  • Fading Mechanisms in MW networks
  • Ground reflections
  • Radio meteorological parameters
Microwave Systems Engineering Training – MW Radio Planning
  • Propagation and prediction methods
  • Frequency planning and interference calculations
  • Far interference planning principles
  • Radio spectrum and channel arrangements

Quality over MW links

MW Links Design
  • Access and Short haul radio parts
  • Marconi LH system description
  • Case studies
Tools for Planning
  • Planning with ATPC
  • TEMS link planner tool
  • Planning examples – case studies
Passive Repeaters – Planning Considerations
  • Outdoor
  • Indoor
RF Exposure Principles
  • Outline the fundamental characteristics of a radio wave
  • Describe the exposure quantities (field strength and power density)
  • Understand dosimetric quantity Specific Absorption Rate (SAR)
  • Describe the guidelines relating to electromagnetic field exposure
  • Outline the major organizations setting RF exposure limits (ICNIRP, IEEE)
  • Describe RF exposure assessment methods and standards
  • Estimate the RF exposure from an antenna
  • Describe how to achieve a safe installation
  • Transmission Network Commissioning
  • MW Network Management Principles
  • Real MW links and Vendor Technology Elements
Transmission MW Links for Cellular Networks
  • Capacity planning considerations
  • Case studies
Microwave Systems Engineering TrainingMicrowave Systems Engineering Training Course Wrap-Up


    Are you Human?