By studying this TECH Postgraduate diploma, you will be up to date on the main advances in Instrumentation and Sensors in Electronic Systems, which will be fundamental to position you as one of the best electronic engineers of the moment” 

Sensors are an essential part of electronic instrumentation, allowing the generation and measurement of electrical signals that can be understood by other operators, which undoubtedly allows effective connections between the two devices. Furthermore, the specialization in this field is highly demanded by engineers, since it opens the door to specific job opportunities. For this reason, many professionals, both recent graduates and those with years of experience, decide to continue their studies with specialized postgraduate programs to broaden their qualifications and become the most competitive engineers in the market. 

In order to improve their qualification, TECH has created this Postgraduate diploma in Instrumentation and Sensors in Electronic Systems, which will enable engineers to get up to date on the specifications of these mechanisms, which are essential to achieve the necessary quality in electronic systems. A program designed by experienced professionals that will mark a turning point in the qualification of professionals. 

This Postgraduate diploma analyzes the different types of sensors and actuators found in industrial processes and specifies the types of control systems in order to understand the intervention of an actuator device depending on a physical or chemical variable to be measured. Moreover, specialized knowledge is developed on the current applications of power electronics, specifically devices that allow variation of the waveform of the electrical signal, known as converters, which are present in sectors as varied as domestic, industrial, military or aerospace. 

A 100% online program that will allow students to manage their own study time, meaning they are not hindered by by fixed schedules or the need to commute to another physical location. They can access all the contents at any time of the day, allowing them to balance their professional and personal life with their academic life.

The electronic engineering sector is looking for professionals like you, capable of adapting to the new times with the solvency of a top-level specialist” 

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

• Case studies presented by engineering experts
• 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 the self-assessment process can be carried out to improve learning
• Special emphasis on innovative methodologies in Instrumentation and Sensors in Electronic 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 

Improve your professional electronic sensor development skills with this program” 

Its teaching staff includes professionals from the field of engineering, who contribute their work experience to this program, as well as renowned specialists from leading companies and prestigious universities. 

Its multimedia content, developed with the latest educational technology, will allow professionals to learn in a contextual and situated learning environment, i.e., a simulated environment that will provide immersive specialization for real situations.

The design of this program focuses on Problem-Based Learning, by means of which students must try to solve the different professional practice situations that arise during the academic year. For this purpose, the student will be assisted by an innovative interactive video system created by renowned and experienced experts.

A cutting-edge teaching methodology to assist students’ learning"

The online format of this Postgraduate diploma will give you the opportunity to self-manage your study time"

The faculty of this Postgraduate diploma has selected the most relevant information on Instrumentation and Sensors in Electronic Systems, which will give engineers the opportunity to become true specialists in the creation of this type of machinery, which is essential for the measurement of electrical signals. The syllabus is organized in three modules and will provide professionals with the keys in order to specialize in this field. 

A well-structured syllabus that will guide you through the latest concepts in instrumentation and electronic sensors. You only have to bring your enthusiasm to study” 

Module 1. Instruments and Sensors

1.1. Measurement 

1.1.1. Measurement and Control Characteristics 

1.1.1.1. Accuracy 
1.1.1.2. Loyalty 
1.1.1.3. Repeatability 
1.1.1.4. Reproducibility 
1.1.1.5. Derivatives 
1.1.1.6. Linearity 
1.1.1.7. Hysteresis 
1.1.1.8. Resolution 
1.1.1.9. Scope 
1.1.1.10. Errors 

1.1.2. Classification of Instruments 

1.1.2.1. According to its Functionality 
1.1.2.2. According to the Variable to Control 

1.2. Regulation 

1.2.1. Regulatory Systems 

1.2.1.1. Open Loop Systems 
1.2.1.2. Closed Loop Systems 

1.2.2. Types of Industrial Processes 

1.2.2.1. Continuous Processes 
1.2.2.2. Discrete Processes 

1.3. Caudal Sensors 

1.3.1. Flow Rate 
1.3.2. Units Used for Caudal Measurement 
1.3.3. Types of Caudal Sensors 

1.3.3.1. Volume Flow Measurement 
1.3.3.2. Flow Measurement by Mass 

1.4. Pressure Sensors 

1.4.1. Pressure 
1.4.2. Units Used for Pressure Measurement 
1.4.3. Types of Pressure Sensors 

1.4.3.1. Pressure Measurement via Mechanical Elements 
1.4.3.2. Pressure Measurement via Electromechanical Elements 
1.4.3.3. Pressure Measurement via Electronic Elements 

1.5. Temperature Sensors 

1.5.1. Temperature 
1.5.2. Units Used for Temperature Measurement 
1.5.3. Types of Temperature Sensors 

1.5.3.1. Bimetallic Thermometer 
1.5.3.2. Glass Thermometer 
1.5.3.3. Resistance Thermometer 
1.5.3.4. Thermistors 
1.5.3.5. Thermocouples 
1.5.3.6. Radiation Pyrometers 

1.6. Level Sensors 

1.6.1. Liquids and Solids Level 
1.6.2. Units Used for Temperature Measurement 
1.6.3. Types of Level Sensors 

1.6.3.1. Liquid Level Gauges 
1.6.3.2. Solid Level Gauges 

1.7. Sensors for Other Physical and Chemical Variables 

1.7.1. Sensors for Other Physical Variables 

1.7.1.1. Weight Sensors 
1.7.1.2. Speed Sensors 
1.7.1.3. Density Sensors 
1.7.1.4. Humidity Sensors 
1.7.1.5. Flame Sensors 
1.7.1.6. Solar Radiation Sensors 

1.7.2. Sensors for Other Chemical Variables 

1.7.2.1. Conduction Sensors 
1.7.2.2. pH Sensors 
1.7.2.3. Gas Concentration Sensors 

1.8. Actuators 

1.8.1. Actuators 
1.8.2. Engines 
1.8.3. Servo-Valves 

1.9. Automatic Control 

1.9.1. Automatic Regulation 
1.9.2. Types of Regulators 

1.9.2.1. Two-Step Controller 
1.9.2.2. Provider Controller 
1.9.2.3. Differential Controller 
1.9.2.4. Proportional-Differential Controller 
1.9.2.5. Integral Controller 
1.9.2.6. Proportional-Integral Controller 
1.9.2.7. Proportional-Integral-Differential Controller 
1.9.2.8. Digital Electronic Controller 

1.10. Control Applications in Industry 

1.10.1. Selection Criteria of a Control System 
1.10.2. Examples of Typical Controls in Industry 

1.10.2.1. Ovens 
1.10.2.2. Dryer 
1.10.2.3. Combustion Control 
1.10.2.4. Level Control 
1.10.2.5. Heat Exchangers 
1.10.2.6. Central Nuclear Reactor

Module 2. Power Electronic Converters

2.1. Power Converter 

2.1.1. Power Electronics 
2.1.2. Applications of Power Electronics 
2.1.3. Power Conversion Systems 

2.2. Converters 

2.2.1. Converters 
2.2.2. Types of Converters 
2.2.3. Characteristic Parameters 
2.2.4. Fourier Series

2.3. AC/DC Conversion. Single-Phase Uncontrolled Rectifiers 

2.3.1. AC/DC Converters 
2.3.2. Diode 
2.3.3. Uncontrolled Half-Wave Rectifier 
2.3.4. Full-Wave Uncontrolled Rectifier 

2.4. AC/DC Conversion. Single-Phase Uncontrolled Rectifiers 

2.4.1. Thyristor 
2.4.2. Half-Wave Controlled Rectifier 
2.4.3. Full-Wave Controlled Rectifier 

2.5. Three-Phase Rectifiers 

2.5.1. Three-Phase Rectifiers 
2.5.2. Three-Phase Controlled Rectifiers 
2.5.3. Three-Phase Uncontrolled Rectifiers 

2.6. DC/AC Conversion. Single-Phase Inverters 

2.6.1. DC/AC Converters 
2.6.2. Single-Phase Square Wave Controlled Inverters 
2.6.3. Single-Phase Inverters Using Sinusoidal PWM Modulation 

2.7. DC/AC Conversion. Three-Phase Inverters 

2.7.1. Three-Phase Inverters 
2.7.2. Three-Phase Square Wave Controlled Inverters 
2.7.3. Three-Phase Inverters Using Sinusoidal PWM Modulation 

2.8. DC/DC Conversion 

2.8.1. DC/DC Converters 
2.8.2. DC/DC Converters Classification 
2.8.3. DC/DC Converters Control 
2.8.4. Reducing Converter 

2.9. DC/DC Conversion. Elevating Converter 

2.9.1. Elevating Converter 
2.9.2. Reducing-Elevating Converter 
2.9.3. Cúk Converter 

2.10. AC/AC Conversion 

2.10.1. AC/AC Converters 
2.10.2. AC/AC Converters Classification 
2.10.3. Voltage Regulators 
2.10.4. Cycloconverters

Module 3. Industrial Communications

3.1. The Systems in Real Time 

3.1.1. Classification 
3.1.2. Programming 
3.1.3. Planning 

3.2. Communication Networks 

3.2.1. Transmission Media 
3.2.2. Basic Configurations 
3.2.3. CIM Pyramid 
3.2.4. Classification 
3.2.5. OSI Model 
3.2.6. TCP/IP Model 

3.3. Fieldbuses 

3.3.1. Classification 
3.3.2. Distributed and Centralized Systems 
3.3.3. Distributed Control Systems 

3.4. BUS 

3.4.1. Physical Level 
3.4.2. Level of Scope 
3.4.3. Error Control 
3.4.4. Components 

3.5. Elements

3.5.1. Physical Level 
3.5.2. Level of Scope 
3.5.3. Error Control 
3.5.4. DeviceNet 
3.5.5. ControlNet 

3.6. Profibus 

3.6.1. Physical Level 
3.6.2. Level of Scope 
3.6.3. Level of Application 
3.6.4. Communication Model 
3.6.5. Operation System 
3.6.6. ProfiNet 

3.7. Modbus 

3.7.1. Physical Media 
3.7.2. Access to the Media     
3.7.3. Series Transmission Modes 
3.7.4. Protocol 
3.7.5. TCP Modbus 

3.8. Industrial Ethernet 

3.8.1. ProfiNet 
3.8.2. TCP Modbus 
3.8.3. Ethernet/IP     
3.8.4. EtherCAT 

3.9. Wireless Communication 

3.9.1. 802.11 Networks (Wi-Fi) 
3.9.2. 802.15.1 Networks (Bluetooth) 
3.9.3. 802.15.4 Networks (ZigBee) 
3.9.4. WirelessHART 
3.9.5. WiMAX 
3.9.6. Mobile Phone-Based Networks     
3.9.7. Satellite Communications 

3.10. IoT in Industrial Environments

3.10.1. The Internet of Things 
3.10.2. IoT Device Characteristics 
3.10.3. Application of IoT in Industrial Environments 
3.10.4. Security Requirements 
3.10.5. Communication Protocols: MQTT and CoAP

Get to know the main industrial communications and learn how to solve problems in these mechanisms”