With this Hybrid Hybrid professional master’s degree, you will master the most effective simulation tools to evaluate the response of electrical networks to different contingency scenarios”

Power Substations and High Voltage lines are the fundamental pillars of the power transmission network, enabling the efficient transfer of energy from generation points to end consumers. With the increasing focus on sustainability and energy efficiency, the modernization of these infrastructures has gained unprecedented relevance. Therefore, it is essential that experts develop solutions in the maintenance of High Voltage Electrical Infrastructures addressing aspects such as the integration of renewable energies, substation automation and asset life cycle management. 

In this scenario,TECH presents a revolutionary Hybrid professional master’s degree in Design, Construction and Maintenance of High Voltage Electrical Infrastructures and Electrical Substations. Composed of 10 specialized modules, the academic itinerary will delve into the most recent innovations in areas such as the transport of electrical energy, the maintenance of electrical substations or the operation of infrastructures. In this way, graduates will develop advanced skills to design High Voltage lines, also using state-of-the-art simulation tools. 

Moreover, the methodology of this university degree is divided into two stages. The first phase is theoretical and is taught in a convenient 100% online format, which allows engineers to individually plan their own schedules. In addition, TECH employs its disruptive Relearning system, which promotes progressive and natural learning without the need to resort to traditional memorization. Subsequently, the program includes a 3-week internship in a prestigious entity specialized in High Voltage Electrical Infrastructures and Electrical Substations. This will enable graduates to apply their knowledge in a real environment, working alongside a team of experienced professionals in this field.

You will have access to the multimedia resources library and the entire syllabus from day one, without fixed schedules or attendance”

This Hybrid professional master’s degree in Design, Construction and Maintenance of High Voltage Electrical Infrastructures and Electrical Substations contains the most complete and up-to-date educational program on the market. The most important features include:

• Development of more of 100 case studies are given by experts in high voltage electrical infrastructure and electrical substations
• Its graphic, schematic and practical contents provide essential information on those disciplines that are indispensable for professional practice
• Practical exercises where the self-assessment process can be carried out to improve learning
• Special emphasis is given to innovative methodologies in the project, construction and Maintenance of High Voltage Electrical Infrastructures and Electrical Substations
• All of this will be complemented by 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
• Furthermore, you will be able to carry out an internship in one of the best companies

You will have access to the multimedia resources library and the entire syllabus from day one, without fixed schedules or attendance”

In this Professional Master's Degree proposal, of a professionalizing nature and blended learning modality, the program is aimed at updating engineering professionals who provide services for the Construction and Maintenance of High Voltage Electrical Infrastructures and Electrical Substations. The contents are based on the latest scientific evidence, and oriented in a didactic way to integrate theoretical knowledge in practice, and the theoretical-practical elements will facilitate the updating of knowledge and will facilitate decision making significantly.

Thanks to its multimedia content elaborated with the latest educational technology, they will allow the engineering professional a situated and contextual learning, that is, a simulated environment that will provide an immersive learning programmed to learn in real situations. The design of this program is based on Problem-Based Learning, by means of which they will have to try to solve the different situations of professional practice that will be presented to them throughout the program. For this purpose, students will be assisted by an innovative interactive video system created by renowned experts in the field of educational coaching with extensive experience.

You will implement new technologies that improve the efficiency, sustainability and safety of electrical infrastructures"

Are you looking to incorporate into your practice the most sophisticated techniques to mitigate the environmental impact of electrical projects? Achieve it through this revolutionary university program in less than a year"

This program has been designed by authentic references in the field of High Voltage Electrical Infrastructures and Electrical Substations. Therefore, they have developed a variety of teaching materials that stand out both for their high quality and for adapting to the demands of today's labor market. Composed of 10 specialized modules, the syllabus will delve into the latest advances in subjects such as the transport of electrical energy, electricity distribution or the maintenance of electrical substations. In addition, the syllabus will delve into new trends in the condition assessment of power transformers and telecommunications systems.

You will develop leadership skills to effectively manage human and technical resources involved in electrical infrastructure projects”

Module 1. High and Very High Voltage Infrastructure and Associated Resource Management

1.1. The Electric System

1.1.1. Electricity Distribution
1.1.2. Reference Standards
1.1.3. Regulated Activities and Activities in Free Competition

1.2. Generating Electric Energy

1.2.1. Power Generation Technologies and Costs
1.2.2. Regulated Activities in the Electricity Sector
1.2.3. Supply Assurance and Infrastructure Planning

1.3. Electric Energy Distribution

1.3.1. Transportation and Operation of the Electric System
1.3.2. Distribution
1.3.3. Quality of Supply

1.4. Marketing

1.4.1. The Retail Market
1.4.2. The Wholesale Market

1.5. Access Tolls, Charges and Tariff Deficits

1.5.1. Access Tolls
1.5.2. Tariff Deficits

1.6. Planning and Management of Human Resources

1.6.1. Recruitment and Selection of Human Resources
1.6.2. Human Resources Management

1.7. Environmental Management

1.7.1. Environment Aspects and Their Management
1.7.2. Control Measures

1.8. Organization and Quality Management

1.8.1. Assuring Quality
1.8.2. Supplier Analysis
1.8.3. Associated Costs

1.9. Financing Sources and Cost Analysis

1.9.1. Electricity Distribution Revenues and Expenses
1.9.2. Economic Data of the Facilities
1.9.3. Financial Plan

1.10. Bidding, Contracting and Awarding

1.10.1. Types of Bidding
1.10.2. Awarding Process
1.10.3. Formalizing the Contract

Module 2. Planning and Organization of Projects

2.1. European Legislative Framework

2.1.1. Electricity Sector Legislation
2.1.2. Construction Legislation
2.1.3. Occupational Health and Safety Legislation

2.2. Environmental Regulations and Requirements

2.2.1. International, National and Local Regulations
2.2.2. Types of Environmental Evaluation
2.2.3. Environmental Impact

2.3. High Voltage Interconnection Policy in the European Union

2.3.1. International Energy Infrastructure Policy
2.3.2. Financial Instruments
2.3.3. Future Perspectives

2.4. The Electricity Market

2.4.1. Daily Market Price Traini ng
2.4.2. Electricity Forward Pricing Training

2.5. Processing of High Voltage Files

2.5.1. Necessary Documentation
2.5.2. Procedure
2.5.3. Common Administrative Procedure, Domanial, Patrimonial, Patrimonial and Public Interest Assets
2.5.4. Expropriation Phase

2.6. Projects and Procurement Management

2.6.1. Types of Processes
2.6.2. Participants in Project Execution

2.7. Planning and Control in Construction of High Voltage Electrical Infrastructures and Electrical Substations

2.7.1. Planning and Control
2.7.2. Responsibility Centers

2.8. Specifications

2.8.1. Object of the Specifications
2.8.2. Specifications of Administrative Clauses
2.8.3. Particular Technical Specifications

Module 3. Electric Power Transmission

3.1. High Voltage Lines

3.1.1. Applicable Legislation
3.1.2. Easements and Safety Distances
3.1.3. Bird and Fauna Protection

3.2. Composition of High Voltage Lines

3.2.1. Wiring and Conductors
3.2.2. Supports and Foundations
3.2.3. Grounding and Lightning Protection

3.3. Technology in High Voltage Lines

3.3.1. Pipelines and Transmission Towers
3.3.2. Accessories: Splices, Terminals and Lightning Arresters
3.3.3. Grounding Systems

3.4. Design and Electrical Calculations

3.4.1. Data Collection for Design
3.4.2. Electrical Calculations

3.5. Design and Mechanical Calculations

3.5.1. Data Collection for Design
3.5.2. Mechanical Calculations

3.6. Aerial Line Construction

3.6.1. Civil Works
3.6.2. Reinforcing and Hoisting of Towers
3.6.3. Laying and Stapling

3.7. Construction of Underground Lines

3.7.1. Civil Works
3.7.2. Laying
3.7.3. Tests and Trials

3.8. Occupational Risks in Overhead Line Construction

3.8.1. Safety in Relation to the Services Affected
3.8.2. Risk Analysis and Their Prevention
3.8.3. Preventative Organization
3.8.4. Document Requirements

3.9. High Voltage Overhead Line Study

3.9.1. Needs Assessment
3.9.2. Interpretation of Wiring and Conductor Tables
3.9.3. Data Processing

3.10. Subway High Voltage Line Study

3.10.1. Needs Assessment
3.10.2. Interpretation of Wiring and Conductor Tables
3.10.3. Data Processing

Module 4. Electric Energy Distribution

4.1. Electrical Substations

4.1.1. Applicable Legislation
4.1.2. Human and Material Resources of Installation Companies
4.1.3. Parts of an Electrical Substation

4.2. Working of an Electrical Substation

4.2.1. Classification of an Electrical Substation
4.2.2. Identifying Elements of an Electrical Substation
4.2.3. Architecture of High Voltage Networks

4.3. Components of an Electrical Substation

4.3.1. Primary Equipment
4.3.2. Secondary and Control Equipment
4.3.3. Identifying an Electrical Substation

4.4. Transformers

4.4.1. Power Transformers
4.4.2. Intensity Transformers
4.4.3. Voltage Transformers
4.4.4. Auxiliary Services Transformer

4.5. Maneuvering and Cutting Devices

4.5.1. Disconnectors
4.5.2. Switches
4.5.3. Breakers

4.6. Protection Systems

4.6.1. Location of the Protections
4.6.2. Protection Relays
4.6.3. Security Distances
4.6.4. Grounding Systems

4.7. Auxiliary Devices

4.7.1. Lightning Arrester Self-Valves
4.7.2. Capacitor Battery
4.7.3. Wave Traps
4.7.4. Generator Set and Battery Bank

4.8. Electrical Substation Settings

4.8.1. Bar Diagrams
4.8.2. AIS Technologies vs. GIS Comparison

4.9. Electrical Substation Construction

4.9.1. Civil Works
4.9.2. Building
4.9.3. Commissioning

4.10. Electrical Substation Analysis

4.10.1. High Voltage Substation (30-66 KV)
4.10.2. Very High Voltage Substation (132-400 KV)

Module 5. Mandatory Ancillary Services in High Voltage Electrical Infrastructures

5.1. Insulation Coordination

5.1.1. Coordination Procedure
5.1.2. Coordination Methods
5.1.3. Coordination of Isolation in Transmission Lines and Power Substations

5.2. Fire Protection System

5.2.1. Reference Legislation
5.2.2. Passive Protection
5.2.3. Active Protection

5.3. Telecommunication System

5.3.1. SCADA Systems
5.3.2. Power Line Carrier – PLC
5.3.3. Remote Management and Control

5.4. Protection and Control System

5.4.1. Faults and Disturbances
5.4.2. Protection Systems
5.4.3. Control System

5.5. Security and Emergency Systems

5.5.1. Alternating Current Services
5.5.2. Continuous Current Services
5.5.3. Boards

5.6. Prevention of Occupational Risks

5.6.1. Job Descriptions
5.6.2. Machinery
5.6.3. Temporary Facilities
5.6.4. Security Conditions

5.7. Waste Management

5.7.1. Amount of Waste Estimation
5.7.2. Reuse, Appraisal or Disposal Operations
5.7.3. Segregation Measures

5.8. Quality Control

5.8.1. Receiving Control of Products, Equipment and Systems
5.8.2. Work Execution Control
5.8.3. Finished Work Control

5.9. Automation of Electrical Infrastructures

5.9.1. Protocol IEC 61850
5.9.2. Levels of Control
5.9.3. Interlocks

5.10. Preparation of Quotations

5.10.1. High Voltage Lines
5.10.2. Electrical Substations

Module 6. Infrastructure Operation and Maintenance

6.1. Performance and Safety Criteria for Operation within the Power System

6.1.1. Control Parameters
6.1.2. Operating and Allowable Margins on Control Parameters
6.1.3. Reliability Criteria

6.2. Power System Operating Procedures

6.2.1. Transportation Network Maintenance Program
6.2.2. International Connections Management
6.2.3. Information Exchanged by the System Regulator

6.3. Operating Principles

6.3.1. Priority Order
6.3.2. Equipment Operation and Maneuvering
6.3.3. Switch Operations
6.3.4. Disconnectors Operation

6.4. Supervision and Control

6.4.1. Instalment Supervision
6.4.2. Events, Alarms and Signalling
6.4.3. Execution of Maneuvers and Procedures

6.5. Maintenance

6.5.1. Action Areas
6.5.2. Maintenance Organization
6.5.3. Maintenance Levels

6.6. Maintenance Management

6.6.1. Team Management
6.6.2. Human Resource Management
6.6.3. Work Management
6.6.4. Management Control

6.7. Corrective Maintenance

6.7.1. Equipment Fault Diagnosis
6.7.2. Wear Mechanisms and Protection Techniques
6.7.3. Breakdown Analysis

6.8. Predictive Maintenance

6.8.1. Establishing a System of Predictive Maintenance
6.8.2. Techniques of Predictive Maintenance

6.9. Management of Computer-Assisted Maintenance

6.9.1. Maintenance Management Systems
6.9.2. Functional and Organizational Description of a CMMS
6.9.3. Development Stages of an CMMS Implementation

6.10. Current Trends in Infrastructure Maintenance

6.10.1. RCM Reliability Centered Maintenance
6.10.2. TPM Total Productive Maintenance
6.10.3. Root Cause Analysis
6.10.4. Assigning Jobs

Module 7. Maintenance of High Voltage Transmission Lines

7.1. Qualification of Professionals and Companies

7.1.1. High Voltage Professional Credentials
7.1.2. Authorized Companies
7.1.3. Technical and Human Resources

7.2. Regulatory Inspections

7.2.1. Verification and Inspection of High Voltage Power Lines
7.2.2. Defect Classification
7.2.3. Minimal Technical Resources

7.3. Inspection Procedures

7.3.1. Cable Installations in Visitable Galleries and Overhead Lines
7.3.2. Certification for Partial Discharge Measurements
7.3.3. Tests to Be Performed in Periodic Inspections

7.4. Low Voltage Works

7.4.1. The Five Golden Rules
7.4.2. Close-Proximity Works

7.5. High Voltage Works

7.5.1. Electric Potential Work
7.5.2. Electric Remote Works
7.5.3. Electric Contact Works

7.6. Yearly Maintenance Plan

7.6.1. Corrosion Protection
7.6.2. Insulator Washing
7.6.3. Thermographic Review
7.6.4. Cutting and Pruning of Vegetation
7.6.5. Using Drones

7.7. Preventative Maintenance

7.7.1. Equipment Subject to Preventative Maintenance
7.7.2. Techniques of Predictive Maintenance
7.7.3. Maintenance of Underground Networks

7.8. Locating Breakdowns in Underground Lines

7.8.1. Cable Breakdowns
7.8.2. Processes and Methods of Locating Breakdowns
7.8.3. Using Equipment

7.9. Corrective Maintenance in High Voltage Lines

7.9.1. Overhead Lines
7.9.2. Underground Lines

7.10. Malfunctions in High Voltage Lines

7.10.1. Defects and Anomalies After Inspection
7.10.2. Electric Network Connection
7.10.3. Environmental Conditions
7.10.4. Line Surroundings

Module 8. Electrical Substation Maintenance

8.1. Qualification of Professionals and Companies

8.1.1. Professional Credentials for Electrical Substations
8.1.2. Authorized Companies
8.1.3. Technical and Human Resources

8.2. Regulatory Inspections

8.2.1. Verification and Inspection
8.2.2. Defect Classification

8.3. Direct Current Testing

8.3.1. Solid Insulation
8.3.2. Remaining Insulation
8.3.3. Test Execution

8.4. Alternating Current Testing

8.4.1. Solid Insulation
8.4.2. Remaining Insulation
8.4.3. Test Execution

8.5. Other Critical Tests

8.5.1. Test for the Insulation Oil
8.5.2. Power Factor Testing

8.6. Preventative Maintenance of Electrical Substations

8.6.1. visual Inspection
8.6.2. Thermography

8.7. Disconnectors and Lightning Arresters Maintenance

8.7.1. Disconnectors
8.7.2. Lightning Arresters

8.8. Switch Maintenance

8.8.1. General Inspection
8.8.2. Preventative Maintenance
8.8.3. Predictive Maintenance

8.9. Power Transformer Maintenance

8.9.1. General Inspection
8.9.2. Preventative Maintenance
8.9.3. Predictive Maintenance

8.10. Elaborating a Maintenance Manual

8.10.1. Routine Maintenance
8.10.2. Critical Inspections
8.10.3. Corrective Maintenance

Module 9. Current Trends and Ancillary Services

9.1. New Trends

9.1.1. Maintenance Based on Reliability
9.1.2. Development of a System Based on Reliability
9.1.3. Cusum Control Tool

9.2. Power Transformer Condition Assessment

9.2.1. Risk Evaluation
9.2.2. Load and Temperature Tests
9.2.3. Gas Fuel Chromatography
9.2.4. Parameters to Be Controlled in Power Transformers

9.3. Encapsulated Substation Maintenance: GIS

9.3.1. Components
9.3.2. Settings
9.3.3. System Operations

9.4. Telecommunication System: Protection and Control

9.4.1. Reliability, Availability and Redundancy
9.4.2. Media
9.4.3. System Operations

9.5. Safety and Emergencies

9.5.1. Self-Protection Measures and Means
9.5.2. Emergency Action Plan

9.6. Maintenance Organization

9.6.1. Elaborating Work Order
9.6.2. Elaborating Maintenance Sheets
9.6.3. Maintenance Schedule

9.7. Low Voltage Maintenance

9.7.1. Electrical Panel Operations
9.7.2. Technical-Regulatory Inspections and Revisions

9.8. Fire Protection System

9.8.1. Legislative Framework
9.8.2. Inspections and Revisions

9.9. Explosive Atmospheres

9.9.1. Evaluation Methodologies
9.9.2. Risk of Explosion Evaluation

9.10. Workers Qualifications

9.10.1. Worker Training and Information
9.10.2. Identifying Jobs With Electrical Risk
9.10.3. Worker Consultation and Participation

Module 10. Setting and Coordination of Safeguards in National High Voltage Networks

10.1. Protection Coordination

10.1.1. Impedances
10.1.2. Intensities
10.1.3. Protections

10.2. Protection Functions

10.2.1. Distance Function
10.2.2. Overcurrent Function
10.3.3. Demands on the Protection System

10.3. Generalities

10.3.1. Circuits
10.3.2. Transformers

10.4. Protections for Meshed Network Circuits

10.4.1. Generalities
10.4.2. Fouls Between Phases
10.4.3. Ground Faults
10.4.4. Resistive Faults

10.5. Radial Distribution Circuit Protections

10.5.1. Generalities
10.5.2. Fouls Between Phases
10.5.3. Ground Faults

10.6. Coupling Protections for Meshed Networks

10.6.1. Generalities
10.6.2. Fouls Between Phases
10.6.3. Ground Faults

10.7. Coupling Protections for Non Meshed Networks

10.7.1. Generalities
10.7.2. Fouls Between Phases
10.7.3. Ground Faults

10.8. Transformer Protections for Meshed Networks

10.8.1. Generalities
10.8.2. Phase to Phase Faults, HV Winding
10.8.3. Phase to Earth, HV Winding
10.8.4. Phase to Earth, Tertiary Winding

10.9. Transformer Protections for Non Meshed Networks

10.9.1. Generalities
10.9.2. Primary Winding, Interphase Faults
10.9.3. Primary Winding, Ground Faults

10.10. Considerations to Consider

10.10.1. Calculation Procedure: Infeed Factor
10.10.2. Homopolar Compensation Factor
10.10.3. High Voltage Circuit Breaker Opening Procedure

You will implement preventive maintenance strategies in High Voltage Infrastructures, using advanced technologies such as condition monitoring and failure analysis”