Master's Degree in Continuing Education in Energy Technologies
PRESENTATION
Objectives
• Lead the integration of hydrogen as an energy carrier in industrial decarbonization strategies. • Design strategies to optimize crude oil refining processes and incorporate biofuels. • Manage the liquefied natural gas value chain, evaluating its role in the global energy mix and energy efficiency. • Implement the design and optimization of advanced photovoltaic systems using PVsyst. • Manage wind farm projects, applying micrositing techniques to maximize their performance and energy management. • Assess the impact of emerging energy technologies and their potential in shaping the future of energy. • Develop a strategic vision for decision-making in the transition toward sustainable energy models.
Methodology
At Educa PHAROS, we use a highly practical methodology focused on the direct application of knowledge in the student’s professional environment, combining theoretical content with real-world cases, digital tools, and support from a team of specialized instructors.
Program
- History of Hydrogen
- What is hydrogen?
- Current Electricity and Energy Matrix
- Hydrogen as an Energy Carrier
- Outlook for the Hydrogen Roadmap
- PEM Electrolysis
- Alkaline Electrolysis
- SOEC and AEM Electrolysis
- Hydrogen Storage
- Hydrogen Distribution
- Fuel Cells
- PEM Fuel Cells
- AT Fuel Cells
- Hydrogen Turbines and Engines
- Fuel-Cell Vehicles
- Refueling stations
- Sizing of Major Equipment
- Safety Considerations. Explosive Atmospheres
- Design of Hydrogen-Related Facilities and Fuel Cells
- Example of an installation calculation.
- Crude (I)
- Raw (II)
- Raw (III)
- Refining Processes (I)
- Refining Processes (II)
- Refining Processes (I)
- Refining Schemes (II)
- Refinery Products (I)
- Refinery Products (II)
- Margin and Profitability
- Bioenergy
- Biofuels
- Bioethanol & Biodiesel
- SAF & Biogas
- Biorefineries
- HSE & CO2 Emissions
- The Oil Industry: Short- and Medium-Term Outlook
- Crude Oil Markets
- Markets for Refined Products
- Biofuel Markets
- Composition and Properties
- Exploration and Production Techniques
- Types of Deposits and Characterization
- Extraction Techniques
- Fracking
- Natural Gas Value Chain
- Gas Processing
- Liquefaction
- Transportation of Liquefied Natural Gas
- Regasification
- Liquefied Natural Gas Storage
- Offshore Facilities
- Gas System and Distribution
- Marketing, Regulation, and Markets
- HSE and Natural Gas and Liquefied Natural Gas Applications
- Energy Transition and Global Position
- European Green Deal & LATAM Green
- Net-zero emissions by 2050
- Natural Gas: Key to the Energy Transition
- Circular Economy: Natural Gas and Hydrogen
- Energy from the Sun
- Radiation Measurement and Databases
- The Photovoltaic Effect
- The Solar Cell
- The photovoltaic solar panel
- Crystalline Silicon Panel Technology
- Crystalline Silicon Technology
- Thin-film panel technology
- Thin-film panel technology
- Concentrated solar power
- Solar energy generated. PR concept
- PVsyst. Site Definition and Meteorological Data
- PVsyst. Component Modeling (I)
- PVsyst. Component Modeling (II)
- PVsyst. Energy Simulation and Results
- Photovoltaic Self-Consumption. Simulation Using PVsyst Software
- Solar Mounting Systems and Trackers
- Major Electrical Equipment
- Medium-Voltage Cables and Electrical Substation
- Civil Engineering
- History of Wind Energy.
- Wind Meteorology.
- Physics of Wind Energy.
- Site selection.
- Wind Measurement Campaign.
- Wind energy.
- Exercise. Descriptive statistical analysis of wind resources.
- Wind Turbines 1.
- Wind Turbines 2.
- Wind Turbines 3.
- WASP Program. Data Analysis Model (WAP CLIMATE ANALYST).
- WASP Program. Topographic terrain model (WAP MAL EDITOR).
- WASP Program. Wind Turbine Generator Model.
- WASP Program. Energy Simulation I.
- WASP Program. Energy Simulation II.
- Civil engineering work for a wind farm.
- Electrical power generation systems at a wind farm.
- High-voltage electrical substation.
- High-voltage overhead power line.
- Offshore wind energy.
- Introduction and Overview of Hydropower Generation
- Types of Hydroelectric Power Plants
- Assessment of Water Resources
- Dams and Weirs: Introduction and Classification
- Dams and weirs. Intakes, spillways, and outflows
- Intake Structures
- Pressure Channels and Galleries
- Pressurized Pipes
- Gates and Valves
- Equipment and Piping
- Machine Room and General Information on Turbines
- Applications of Turbines and Turbine Types
- Jet Engines
- Turbine Selection Criteria and Performance
- Alternators, Regulation, and Control
- Reversible Power Plants
- Feasibility Studies
- Sizing Example
- Hydroelectric Projects
- Environmental Assessment. Environmental Mitigation and Impact.
- Introduction to Thermodynamics
- Fuels and Combustion
- The steam power plant. The regenerative Rankine cycle
- The Steam Plant: General Layout and Main Equipment
- Types of Steam Power Plants
- The Gas Turbine. The Brayton Cycle
- Types of gas turbines. Parts of a gas turbine. Technologists
- Simple-cycle power plants
- Combined-cycle power plants
- General Layout of a Combined-Cycle Power Plant. Components
- The Internal Combustion Engine: The Otto Cycle and the Diesel Cycle
- The Diesel Engine. Types. Technologists
- The Engine Room: Types and Configurations
- The Engine Room: General Layout and Components
- Current Status and Outlook for Conventional Thermal Power Generation
- Basics of Nuclear Energy
- Fundamentals of Nuclear Technology
- Conventional Nuclear Power Plants
- Safety and Radiation Protection at Nuclear Power Plants
- The Role of Nuclear Energy in the Transition to Decarbonization.
- Introduction to Biomass
- Biomass as an Energy Source
- Characterization of Biomass as an Energy Resource
- The Challenges of Biomass Use
- Biomass Technologies and Treatments
- Introduction to Biogas
- Biogas Production
- Biogas Production Technologies
- Operations Before and After Biomethanation
- Uses of Biogas
- HVO Biodiesel
- FAME Biodiesel
- Bioethanol
- Bioethanol Production
- The Combustion Reaction. Reagents
- The Combustion Reaction. Products
- Design of Combustion Facilities
- Electricity Generation from Biomass
- Solar-Thermoelectric Power Plant I
- Solar Thermoelectric Plant II
- Introduction
- Global Market and Key Players
- Fundamentals of Offshore Wind Power
- EYA and consent
- Types of Existing Technology
- Bidding Phase and Auction Models
- Development phase: DEVEX
- Construction phase: CAPEX
- Operational and Decommissioning Phase: OPEX and DISEX
- Project Funding
- Foundations
- Wind Turbines
- Shipping and Installation
- Utility Connection and Electrical System
- Other components of an offshore wind farm
- Market Participants and Their Roles
- Power Purchase Agreement (PPA)
- Remuneration System with Subsidies and Green Certificates
- Levelized Cost of Energy (LCOE)
- Market Challenges
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