If you are looking for quality training that will help you specialize in one of the fields with the most professional prospects, this is your best option”

Advances in telecommunications are happening all the time, as this is one of the fastest evolving areas. It is therefore necessary to have Information Technology experts who can adapt to these changes and have first-hand knowledge of the new tools and techniques that are emerging in this field.

This Postgraduate diploma in Transmission Systems addresses the complete range of topics involved in this field. Its study has a clear advantage over other programs that focus on specific blocks, which prevents students from knowing the interrelation with other areas included in the multidisciplinary field of telecommunications. In addition, the teaching team of this educational program has made a careful selection of each of the topics of this program in order to offer students the most complete study opportunity possible and always linked to current events.

This program is aimed at those interested in attaining expert knowledge of Transmission Systems. The main objective of this Postgraduate diploma is for students to specialize their knowledge in simulated work environments and conditions in a rigorous and realistic manner so that they can later apply it in the real world.

In addition, as it is a 100% online Postgraduate diploma, the student is not constrained by fixed timetables or the need to move to another physical location, but can access the contents at any time of the day, balancing their professional or personal life with their academic life.

Do not miss the opportunity to take this Postgraduate diploma in Transmission Systems with us. It's the perfect opportunity to advance your career"

This Postgraduate diploma in Transmission Systems contains the most complete and up-to-date educational program on the market. The most important features include:

• The development of practical cases presented by experts in Transmission Systems
• The graphic, schematic, and practical contents with which they are created, provide scientific and practical information on the disciplines that are essential for professional practice
• Practical exercises where self assessment can be used to improve learning
• Special emphasis on innovative methodologies in Transmission Systems
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments
• Content that is accessible from any fixed or portable device with an Internet connection

This Postgraduate diploma is the best investment you can make when choosing a refresher program to update your existing knowledge of Transmission Systems”

The teaching staff includes professionals from the field of information technology, who bring their experience to this specialization program, as well as renowned specialists from leading societies and prestigious universities.

The multimedia content, developed with the latest educational technology, will provide the professional with situated and contextual learning, i.e., a simulated environment that will provide immersive education programmed to learn in real situations.

This program is designed around Problem-Based Learning, whereby the professional must try to solve the different professional practice situations that arise during the academic year. For this purpose, the professional will be assisted by an innovative interactive video system developed by renowned and experienced experts in Transmission Systems.

This program comes with the best educational material, providing you with a contextual approach that will facilitate your learning"

This 100% online Postgraduate diploma will allow you to combine your studies with your professional work"

The structure of the contents has been designed by the best professionals in the from the engineering sector, with extensive experience and recognized prestige in the profession.

We have the most complete and up to date educational program on the market. We strive for excellence and for you to achieve it too"

Module 1. Physical

1.1. Fundamental Forces

1.1.1. Newton's Second Law
1.1.2. The Fundamental Forces of Nature
1.1.3. Gravitational Force
1.1.4. The Electric Force

1.2. Conservation Laws

1.2.1. What is Mass?
1.2.2. The Electric Charge
1.2.3. The Millikan Experiment
1.2.4. Conservation of Linear Momentum

1.3. Energy

1.3.1. What is Energy?
1.3.2. Measuring Energy
1.3.3. Energy Types
1.3.4. Dependence on the Observer's Energy
1.3.5. Potential Energy
1.3.6. Derivation of Potential Energy
1.3.7. Energy Conservation
1.3.8. Energy Units

1.4. Electric Field

1.4.1. Static Electricity
1.4.2. Electric Field
1.4.3. Capacity
1.4.4. Potential

1.5. Electrical Circuits

1.5.1. Circulation of Electric Charge
1.5.2. Batteries
1.5.3. Alternating Current

1.6. Magnetism

1.6.1. Introduction and Magnetic Materials
1.6.2. Magnetic Field
1.6.3. Electromagnetic Introduction

1.7. Electromagnetic Spectrum

1.7.1. Maxwell's Equations
1.7.2. Optics and Electromagnetic Waves
1.7.3. The Michelson Morley Experiment

1.8. The Atom and Subatomic Particles

1.8.1. The Atom
1.8.2. The Atomic Nucleus
1.8.3. Radioactivity

1.9. Quantum Physics

1.9.1. Color and Heat
1.9.2. Photoelectric Effect
1.9.3. Matter Waves
1.9.4. Nature as Probability

1.10. Relativity

1.10.1. Gravity, Space and Time
1.10.2. Lorentz Transformations
1.10.3. Speed and Time
1.10.4. Energy, Momentum and Mass

Module 2. Electromagnetism, Semiconductors and Waves

2.1. Mathematics for Field Physics

2.1.1. Vectors and Orthogonal Coordinate Systems
2.1.2. Gradient of a Scalar Field
2.1.3. Divergence of a Vector Field and Divergence Theorem
2.1.4. Rotation of a Vector Field and Stokes' Theorem
2.1.5. Classification of Fields: Helmholtz Theorem

2.2. Electrostatic Field I 

2.2.1. Fundamental Postulates
2.2.2. Coulomb's Law and Fields Generated by Charge Distributions
2.2.3. Gauss' Law
2.2.4. Electrostatic Potential

2.3. Electrostatic Field II

2.3.1. Material Media: Metals and Dielectrics
2.3.2. Boundary Conditions
2.3.3. Capacitors
2.3.4. Electrostatic Forces and Energy
2.3.5. Problem-Solving with Boundary Values

2.4. Stationary Electric Currents

2.4.1. Current Density and Ohm's Law
2.4.2. Load and Current Continuity
2.4.3. Current Equations
2.4.4. Resistance Calculations

2.5. Magnetostatic Field I

2.5.1. Fundamental Postulates
2.5.2. Vector Potential
2.5.3. Biot-Savart’s Law
2.5.4. The Magnetic Dipole 

2.6. Magnetostatic Field II 

2.6.1. Magnetic Field in Material Resources
2.6.2. Boundary Conditions
2.6.3. Inductance
2.6.4. Forces and Energy

2.7. Electromagnetic Fields

2.7.1. Introduction
2.7.2. Electromagnetic Fields
2.7.3. Maxwell's Laws of Electromagnetism
2.7.4. Electromagnetic Waves

2.8. Semiconductor Materials

2.8.1. Introduction
2.8.2. Difference between Metals, Insulators and Semiconductors
2.8.4. Current Carriers
2.8.5. Carrier Density Calculation

2.9. Semiconductor Diode

2.9.1. The PN Junction
2.9.2. Derivation of the Diode Equation
2.9.3. The Diode in Large Signal: Circuits
2.9.4. The Diode in Small Signal: Circuits

2.10. Transistors

2.10.1. Definition
2.10.2. Characteristic Curves of the Transistor
2.10.3. Bipolar Junction Transistor
2.10.4. Field Effect Transistors

Module 3. Fields and Waves

3.1. Mathematics for Field Physics

3.1.1. Vectors and Orthogonal Coordinate Systems
3.1.2. Gradient of a Scalar Field
3.1.3. Divergence of a Vector Field and Divergence Theorem
3.1.4. Rotation of a Vector Field and Stokes' Theorem
3.1.5. Classification of Fields: Helmholtz Theorem

3.2. Introduction to Waves 

3.2.1. Wave Equation
3.2.2. General Solutions to Wave Equations: D’Alembert Solution 
3.2.3. Harmonic Solutions to Wave Equations
3.2.4. Wave Equation in the Transformed Domain 
3.2.5. Wave and Standing Wave Propagation

3.3. The Electromagnetic Field and Maxwell's Eq

3.3.1. Maxwell's Equations
3.3.2. Continuity on the Electromagnetic Boundaries
3.3.3. Wave Equation
3.3.4. Monochromatic or Harmonic Dependence Fields

3.4. Propagation of Uniform Plane Waves

3.4.1. Wave Equation
3.4.2. Uniform Plane Waves
3.4.3. Lossless Media Propagation 
3.4.4. Propagation in Lossy Media 

3.5. Polarization and Incidence of Uniform Plane Waves

3.5.1. Electric Transversal Polarization
3.5.2. Magnetic Transversal Polarization
3.5.3. Lineal Polarization
3.5.4. Circular Polarization
3.5.5. Elliptical Polarization
3.5.6. Normal Incidence of Uniform Plane Waves
3.5.7. Oblique Incidence of Uniform Plane Waves

3.6. Basic Concepts of Transmission Line Theory

3.6.1. Introduction
3.6.2. Circuit Model of the Transmission Line
3.6.3. General Equations of the Transmission Line
3.6.4. Wave Equation Solution in Both the Time Domain and the Frequency Domain
3.6.5. Low-Loss and No-Loss Lines
3.6.6. Power

3.7. Completed Transmission Line

3.7.1. Introduction
3.7.2. Reflection
3.7.3. Stationary Waves
3.7.4. Input Impedance
3.7.5. Load and Generator Mismatch
3.7.6. Transitory Response 

3.8. Wave Guide and Transmission Lin

3.8.1. Introduction
3.8.2. General Solutions for TEM, TE and TM Waves
3.8.3. Parallel Plane Guide
3.8.4. Rectangular Guide
3.8.5. Circular Wave Guide
3.8.6. Coaxial Cable
3.8.7. Plane Lines 

3.9. Microwave Circuits, Smith Chart and Impedance Match

3.9.1. Introduction to Microwave Circuits

3.9.1.1. Equivalent Voltages and Currents
3.9.1.2. Impedance and Admittance Parameters
3.9.1.3. Scattering Parameters

3.9.2. The Smith Chart 

3.9.2.1. Definition of the Smith Chart
3.9.2.2. Simple Calculations
3.9.2.3. Smith's Letter on Admissions 

3.9.3. Adaptation of Impedances. Simple Stub
3.9.4. Adaptation of Impedances. Doble Stub
3.9.5. Quarter-Wave Transformers

3.10. Introduction to Antennae 

3.10.1. Introduction and Brief Historical Review
3.10.2. Electromagnetic Spectrum
3.10.3. Radiation Diagram 

3.10.3.1. System of Coordinates
3.10.3.2. Three Dimensional Diagrams 
3.10.3.3. Two Dimensional Diagrams 
3.10.3.4. Level Curves

3.10.4. Fundamental Parameters of Antennae 

3.10.4.1. Radiated Power Density 
3.10.4.2. Directivity 
3.10.4.3. Gain
3.10.4.4. Polarization
3.10.4.5. Impedances
3.10.4.6. Adaptation
3.10.4.7. Area and Effective Longitude 
3.10.4.8. Transmission Equation

Module 4. Transmission Systems Optical Communication

4.1. Introduction to Transmission Systems

4.1.1. Basic Definitions and Transmission System Model 
4.1.2. Description of Some Transmission Systems 
4.1.3. Normalization within Transmission Systems 
4.1.4. Units used in Transmission Systems, Logarithmic Representation
4.1.5. MDT Systems

4.2. Characterization of the Digital Signal

4.2.1. Characterization of Analog and Digital Sources 
4.2.2. Digital Codification of Analog Signals
4.2.3. Digital Representation of the Audio Signal 
4.2.4. Representation of the Video Signal 

4.3. Transmission Media and Disturbance

4.3.1. Introduction and Characterization of Transmission Media 
4.3.2. Metallic Transmission Lines 
4.3.3. Fiber Optic Transmission Lines
4.3.4. Radio Transmission 
4.3.5. Comparison of Transmission Media 
4.3.6. Disturbances in Transmission 

4.3.6.1. Attenuation
4.3.6.2. Distortion
4.3.6.3. Noise
4.3.6.4. Channel Capacity

4.4. Digital Transmission Systems

4.4.1. Digital Transmission Systems Model 
4.4.2. Comparison between Analog and Digital Transmission 
4.4.3. Fiber Optic Transmission System 
4.4.4. Digital Radio Link 
4.4.5. Other Systems

4.5. Optical Communication Systems. Basic Concepts and Optical Elements

4.5.1. Introduction to Optical Communication Systems
4.5.2. Fundamental Relationships about Light 
4.5.3. Modulation Formats 
4.5.4. Power and Time Balance 
4.5.5. Multiplexing Techniques 
4.5.6. Optical Networks 
4.5.7. Non-Wavelength-Selective Passive Optical Elements
4.5.8. Wavelength-Selective Passive Optical Elements

4.6. Fiber Optics

4.6.1. Characteristic Parameters of Single-Mode and Multimode Fibers 
4.6.2. Attenuation and Temporal Dispersion 
4.6.3. Non-Lineal Effects 
4.6.4. Regulations on Fiber Optics 

4.7. Optical Transmitting and Receiving Devices

4.7.1. Basic Principles of Light Emission 
4.7.2. Stimulated Emission
4.7.3. Fabry-Perot Resonator 
4.7.4. Required Conditions for Achieving Laser Oscillation
4.7.5. Characteristics of Laser Radiation 
4.7.6. Light Emission in Semiconductors 
4.7.7. Semiconductor Lasers
4.7.8. Light-Emitting Diodes, LEDs
4.7.9. Comparison between LED and Semiconductor Laser
4.7.10. Light Detection Mechanisms in Semiconductor Junctions
4.7.11. P-N Photodiodes 
4.7.12. PIN Photodiode 
4.7.13. Avalanche Photodiodes or APDs 
4.7.14. Basic Configuration of the Receptor Circuit

4.8. Transmission Media in Optical Communication

4.8.1. Refraction and Reflection
4.8.2. Propagation in a Confined Two-Dimensional Medium 
4.8.3. Different Types of Optical Fibers 
4.8.4. Physical Properties of Optical Fibers 
4.8.5. Dispersion in Optical Fibers 

4.8.5.1. Intermodal Dispersion 
4.8.5.2. Phase Speed and Group Phase 
4.8.5.3. Intermodal Dispersion

4.9. Multiplexing and Switching in Optical Networks

4.9.1. Multiplexing in Optical Networks
4.9.2. Photonic Switching 
4.9.3. WDM Networks Basic Principles
4.9.4. Characteristic Components of a WDM System
4.9.5. Architecture and Functioning of WDM Networks 

4.10. Passive Optical Networks (PON)

4.10.1. Coherent Optical Communication 
4.10.2. Optical Time Division Multiplexing (OTDM) 
4.10.3. Characteristic Elements of Passive Optical Networks 
4.10.4. Architecture of PON Networks
4.10.5. Optical Multiplexing in PON Networks

This training will allow you to advance in your career comfortably”