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Course in PV-Wind-BESS Hybridisation

The PV-EOLY-BESS hybridization course explores the integration of renewable energy systems, combining photovoltaic energy (PV), wind power and battery power storage systems (BESS). It focuses on the design, implementation and optimization of these hybrid configurations to increase the efficiency and reliability of the energy supply. It addresses aspects such as component sizing, energy management, and network integration, considering the regulations and regulations relevant to each technology.

The course provides practical knowledge about simulation of hybrid systems, the use of specialized software and data analysis for decision making. It includes the study of control strategies and real-time monitoring to maximize system performance and stability. Participants are prepared to perform in roles related to the design of renewable energy systems, energy consulting and project management in the energy sector.

Keywords Objective (natural in the text): Photovoltaic energy, wind energy, energy storage systems, hybridization, energy management, sizing, simulation software, network integration, renewable energies.

Duration3 months
ModeOnline
Start datesOctober / March
LocationEurope (Madrid)
AwardSEIUM Institute diploma
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Learning outcomes

What you will be able to do

01

Optimization and comprehensive design of PV-EOLY-BESS hybrid systems

02

Expert domain in the design and optimization of hybrid photovoltaic-wind systems with energy storage (PV-EOLIC-BESS)

03

Design, validation and commissioning of hybrid systems (from sizing to operation)

04

Integration and advanced management of renewable energies: PV-EOLIO-BESS

05

Advanced Strategies for Integration and Maximization of Performance in Hybrid PV-BESS Systems

06

Detailed design and simulation of PV-EOLY-BESS hybrid systems

07

Implementation and advanced management of PV-EOLY-BESS hybrid systems

08

Evaluation and Configuration of Hybrid PV-BESS-BESS Systems: Design and Operation

Profile

Who it's for

  • Engineers with a degree in Electrical Engineering, Mechanical Engineering, Industrial Engineering, Renewable Energy Engineering or related disciplines.
  • Professionals who work in energy companies, renewable developers, network operators, installing companies, consultants and research centers.
  • Technicians and specialists in power electronics, photovoltaic inverters, wind turbines, energy management systems (EMS) and storage in batteries.
  • Personnel from regulatory bodies, certification bodies and energy administrations that wish to expand their knowledge in hybridization and management of renewable energy.
Recommended requirements: Basic knowledge of electricity, power electronics, alternating current circuits, thermodynamics and renewable energy; comprehension capacity of English Technician. We offer complementary materials to level knowledge.
Standards & tools

What you'll work with

  • Standards-Based Curriculum: You will work with IEC 62109, IEC 61727, IEEE 1547, IEC 61400, IEC 62619, IEC 62933 and IEC 62443 from the first module.
  • Accreditable laboratories (EN ISO/IEC 17025) with battery test bench, HIL/PHIL, power quality and module thermography.
  • Evidence-oriented TFM: Design Basis, Simulation Report, Commissioning Plan, Compliance Dossier and Operating Limits.
  • Mentored by Industry: Faculty with experience in photovoltaic and wind plants, storage in batteries, microgrids and electricity markets.
  • Flexible mode (hybrid/online), international cohorts and support of SEIUM Career Services.
  • Ethics and security: Safety-by-design approach, Cybersecurity OT, thermal risk management in BESS and compliance as pillars.
Syllabus

10 modules

  1. 1.1Introduction to PV-EOLIC-BESS Hybrid Systems: Key Concepts and Main Components.
  2. 1.2Advantages and challenges of hybrid PV-EOLID-BESS systems versus individual systems.
  3. 1.3The role of photovoltaic solar energy (PV) in hybrid systems.
  4. 1.4The importance of wind power in hybrid systems.
  5. 1.5Battery power storage (BESS) and its function in optimization.
  6. 1.6Common applications of PV-EOLY-BESS hybrid systems: from microgeneration to large scale.
  7. 1.7Principles of operation and basic architecture of a hybrid system.
  8. 1.8Initial considerations for the design of a hybrid system: location, energy resources and demand.
  9. 1.9Simulation tools and software for the analysis of hybrid systems.
  10. 1.10Regulations and standards relevant to the design and implementation of hybrid systems.
  1. 2.2Fundamentals of Hybrid System Design PV-EOLY-BESS
  2. 2.2Key components: solar panels, wind turbines and BESS systems
  3. 2.3Dimensioning and selection of components for hybrid systems
  4. 2.4Modeling and simulation of PV-eolian-BESS systems
  5. 2.5Design optimization to maximize production and minimize costs
  6. 2.6Design of control systems and energy management
  7. 2.7Network connection considerations and autonomy
  8. 2.8Assessment of technical and economic feasibility
  9. 2.9Design software and tools for hybrid systems
  10. 2.20Study of practical cases and best practices
  1. 3.3Component evaluation: solar panels, wind turbines and storage systems.
  2. 3.2Analysis of meteorological and energy data for the configuration.
  3. 3.3Hardware selection: Criteria and technical specifications.
  4. 3.4System sizing: Optimal design for loading and demand.
  5. 3.5Simulation and modeling of the hybrid system.
  6. 3.6Design of the Energy Control and Management System (EMS).
  7. 3.7Control strategies: Prioritization and optimization.
  8. 3.8Analysis of profitability and economic viability.
  9. 3.9Case study: Configuration and analysis of a real system.
  10. 3.30Identification and mitigation of risks in the design.
  1. 4.4Introduction to the integration of renewable energies: PV-EOLIO-BESS
  2. 4.2Key Components and Their Interactions: PV, Wind, BESS
  3. 4.3Conceptual design of hybrid systems: sizing and selection
  4. 4.4Energy management and control strategies: real-time optimization
  5. 4.5Integration to the electrical network: technical and regulatory aspects
  6. 4.6Simulation and modeling of hybrid systems: tools and techniques
  7. 4.7Case Study: Real Applications and Challenges of Integration
  8. 4.8Economic and financial viability analysis: return on investment and return on investment
  9. 4.9Legal and regulatory aspects: Permits and compliance
  10. 4.40Future trends and sustainable development: innovation in renewable energies
  1. 5.5Advanced Component Selection: PV, Wind and BESS
  2. 5.5Smart control strategies for optimal operation
  3. 5.3Advanced performance modeling and simulation
  4. 5.4Power flow optimization and load management
  5. 5.5Analysis of system reliability and availability
  6. 5.6Integration with the electrical network and regulation
  7. 5.7Risk mitigation and protection techniques
  8. 5.8Remote fault monitoring and diagnostics
  9. 5.9Design for scalability and adaptability
  10. 5.50Case studies: implementation and real results
  1. 6.6Introduction to Hybrid PV-EOLY-BESS Systems
  2. 6.2Regulatory framework and applicable regulations
  3. 6.3Advantages and challenges of hybridization
  4. 6.4Main Components: PV, Wind, BESS
  5. 6.5Structure of the energy market and its impact
  6. 2.6Component selection: solar panels, wind turbines, batteries
  7. 2.2Dimensioning of photovoltaic and wind systems
  8. 2.3Design of energy storage systems (BESS)
  9. 2.4Configuration Optimization: Software and Tools
  10. 2.5Case Study: Design Examples
  11. 3.6Analysis of climate data and energy resources
  12. 3.2Modeling and simulation of hybrid systems
  13. 3.3Control and protection settings
  14. 3.4Energy quality analysis
  15. 3.5Assessment of technical and economic feasibility
  16. 4.6Integration with the electrical network
  17. 4.2Energy demand management
  18. 4.3Remote monitoring and control systems
  19. 4.4Communication and data transfer protocols
  20. 4.5Legal aspects and permits
  21. 5.6Advanced control strategies
  22. 5.2Optimization of energy performance
  23. 5.3Sensitivity and risk analysis
  24. 5.4Integration of additional power sources
  25. 5.5Maintenance and Operation Strategies
  26. 6.6Simulation and modeling software
  27. 6.2Detailed design of components and wiring
  28. 6.3Simulation of different operating scenarios
  29. 6.4Analysis of results and optimization
  30. 6.5Preparation of technical reports
  31. 7.6Site selection and preparation
  32. 7.2Installation and commissioning of components
  33. 7.3Testing and commissioning of the system
  34. 7.4Operation and maintenance management
  35. 7.5Safety and Risk Prevention
  36. 8.6System performance evaluation
  37. 8.2Operation data analysis
  38. 8.3Continuous performance optimization
  39. 8.4Cost and profitability considerations
  40. 8.5Improvement and updating strategies
  1. 7.7Modeling and simulation of hybrid systems PV-EOLY-BESS
  2. 7.2Optimization of the PV-EOLIC-BESS component configuration
  3. 7.3Advanced control strategies for hybrid systems
  4. 7.4Analysis of the integration to the electrical network
  5. 7.7Sizing and Selection of BESS
  6. 7.6Energy management and programming
  7. 7.7Evaluation of profitability and economic analysis
  8. 7.8Implementation of hybrid systems and case studies
  9. 7.9Fault monitoring and diagnosis
  10. 7.70Continuous improvement and system update
  1. 8.8Introduction to Hybrid PV-EOLY-BESS Systems
  2. 8.8International regulatory and regulatory framework
  3. 8.3Design standards and codes in hybrid systems
  4. 8.4Key Components: PV, Wind, BESS and Its Interconnection
  5. 8.5Advantages, disadvantages and applications of hybrid systems
  6. 8.8Component selection: solar panels, wind turbines and batteries
  7. 8.8Dimensioning of photovoltaic and wind systems
  8. 8.3Power Storage System Design (BESS)
  9. 8.4PV-EOLIC-BESS Configuration Optimization
  10. 8.5Design and simulation software for hybrid systems
  11. 3.8Analysis of data of solar and wind resources
  12. 3.8Modeling and simulation of hybrid systems
  13. 3.3Configuration of inverters and drivers
  14. 3.4System stability and reliability analysis
  15. 3.5Selection and configuration of protections and security
  16. 4.8Integration of renewable energies in the electricity grid
  17. 4.8Management of the intermittence of renewable sources
  18. 4.3Energy Management Systems (EMS) for Hybrid Systems
  19. 4.4Network coupling and technical requirements
  20. 4.5Regulatory and permit aspects for integration
  21. 5.8Energy control and management strategies
  22. 5.8Optimization of system performance and efficiency
  23. 5.3Analysis of profitability and return on investment (ROI)
  24. 5.4Predictive modeling and sensitivity analysis
  25. 5.5Strategies for risk and failure mitigation
  26. 6.8Introduction to specialized simulation software
  27. 6.8Detailed modeling of individual components (PV, wind, BESS)
  28. 6.3Simulation of system behavior in different scenarios
  29. 6.4Analysis of results and optimization of the design
  30. 6.5Simulation reports and technical documentation
  31. 7.8Selection and installation of equipment
  32. 7.8Connection and commissioning of the system
  33. 7.3Testing and commissioning of hybrid systems
  34. 7.4Preventive and corrective maintenance
  35. 7.5System remote monitoring and control
  36. 8.8System performance evaluation and data analysis
  37. 8.8System optimization and troubleshooting
  38. 8.3Operation and maintenance management
  39. 8.4Analysis of costs and benefits throughout the life cycle
  40. 8.5Adaptation and updating of hybrid systems
  1. 9. Theoretical and regulatory framework PV-EOLID-BESS
  2. 9.9Basics of solar photovoltaic (PV)
  3. 9.9Principles of wind energy
  4. 9.3Introduction to Battery Power Storage Systems (BESS)
  5. 9.4Regulatory and regulatory framework for PV-EOLY-BESS hybrid systems
  6. 9.5Applicable design codes and standards
  7. 9.6Feasibility analysis and pre-feasibility studies
  8. 9.7Environmental considerations and sustainability
  9. 9. PV-EOLY-BESS Hybrid Design and Optimization
  10. 9.9Selection of PV components (panels, inverters)
  11. 9.9Design and selection of wind turbines
  12. 9.3Design and dimensioning of BESS systems
  13. 9.4Hybrid system size optimization
  14. 9.5Energy management and control strategies
  15. 9.6Analysis of solar and wind resources
  16. 9.7Electrical network design and network connection
  17. 3. Component analysis and advanced configuration
  18. 3.9Selection and technical specifications of hybrid inverters
  19. 3.9Battery types and characteristics (lithium, lead-acid, etc.)
  20. 3.3Battery health monitoring and management
  21. 3.4Failure analysis and system protection
  22. 3.5Configuration of communication systems and remote control
  23. 3.6Implementation of Energy Management Systems (EMS)
  24. 3.7Selection of simulation and modeling software
  25. 4. Integration and management of renewable energy
  26. 4.9Integration of PV systems in the electrical network
  27. 4.9Integration of wind turbines in the electrical network
  28. 4.3Management of energy generated by PV and wind
  29. 4.4Energy balance of the hybrid system
  30. 4.5Cargo dispatch and control strategies
  31. 4.6Network stability considerations
  32. 4.7Demand management and demand response
  33. 5. Performance strategies in hybrid systems
  34. 5.9Maximization of solar energy production
  35. 5.9Maximization of wind energy production
  36. 5.3Battery performance optimization
  37. 5.4Predictive control strategies
  38. 5.5Analysis of the variability of renewable energy
  39. 5.6Design for redundancy and reliability
  40. 5.7System efficiency assessment and continuous optimization
  41. 6. Simulation and detailed design PV-EOLIC-BESS
  42. 6.9Introduction to simulation software (PVsyst, HOMER, etc.)
  43. 6.9Modeling of PV and Wind Components
  44. 6.3Hybrid systems simulation
  45. 6.4Analysis of results and optimization of the design
  46. 6.5System architecture design
  47. 6.6Electrical distribution design
  48. 6.7Preparation of plans and technical specifications
  49. 7. Implementation and management of projects
  50. 7.9Planning and management of renewable energy projects
  51. 7.9Selection and hiring of suppliers
  52. 7.3Installation and commissioning of the system
  53. 7.4Tests and commissioning
  54. 7.5Site security management
  55. 7.6Monitoring and control of costs
  56. 7.7Project documentation management
  57. 8. Evaluation and operation of hybrid systems
  58. 8.9System performance monitoring and control
  59. 8.9Data analysis and troubleshooting
  60. 8.3Preventive and corrective maintenance
  61. 8.4Long-term performance optimization
  62. 8.5Economic evaluation of the system
  63. 8.6Regulatory and regulatory compliance
  64. 8.7System update and modernization
  1. 1.1Introduction to the design of PV-EOLIC-BESS hybrid systems
  2. 1.2Selection and sizing of PV components
  3. 1.3Selection and sizing of wind components
  4. 1.4Selection and dimensioning of BESS systems
  5. 1.5Initial modeling and simulation
  6. 1.6Load and generation analysis
  7. 1.7Design of the control and regulation system
  8. 1.8Economic and environmental optimization
  9. 1.9Sensitivity and risk analysis
  10. 1.10Presentation of the final design
Methodology, software & labs

How you'll learn

  • Hands-on methodology: Test-before-you-trust, Design Reviews, Failure Analysis, Compliance Evidence.
  • Software (according to licenses/partners): PVsyst, HOMER Pro, SAM (NREL), DIgSILENT PowerFactory, MATLAB/Simulink, Python (Pvlib, Numpy/Scipy), OpenDSS and tools SCADA data analysis.
  • SEIUM Laboratories: Battery test bench, HIL/PHIL for EMS and inverters, power quality analyzers, wind turbine emulator and photovoltaic module thermography.
  • Standards and Compliance: EN ISO/IEC 17025, ISO 50001, ISO 27001, GDPR.
Laboratorios acreditables(EN ISO/IEC 17025) with battery test bench, HIL/PHIL for EMS and inverters, power quality and module thermography.
TFM orientado a evidencia:Design Basis, Simulation Report, Commissioning Plan, Compliance Dossier and Operating Limits.
Mentorado por industria:Faculty with experience in photovoltaic and wind plants, storage in batteries, microgrids and electricity markets.
Modalidad flexible(Hybrid/Online), International cohorts and support from SEIUM Career Services.
Ethics and security:Safety-by-design approach, OT Cybersecurity, BESS thermal risk management and compliance as pillars.
Career opportunities

Where this takes you

**Ingeniero de Diseño de Sistemas Híbridos PV-Eólico-BESS** (Modelado, Simulación y Optimización)**Ingeniero de Sistemas Híbridos PV-Eólico-BESS** (Diseño, Integración y Mantenimiento)**Ingeniero de Proyectos de Sistemas Híbridos PV-Eólico-BESS** (Diseño, Implementación y Operación)**Ingeniero de Sistemas Híbridos PV-Eólico-BESS** (Diseño, Integración y Operación)**Ingeniero de Sistemas Híbridos PV-Eólico-BESS** (Diseño, Integración y Operación)**Ingeniero de Sistemas Híbridos PV-Eólico-BESS** (Diseño, Integración y Operación)
Admissions & scholarships

Requirements

  • Profile: Training in Electrical Engineering, Mechanical Engineering, Industrial Engineering, Renewable Energies, Physics or Related Fields; Practical experience in photovoltaic, wind or storage systems.
  • Documentation: Updated CV, Academic Record, SOP/purpose Test, Technical Reports or Examples of Projects (Optional).
  • Process: Application → Technical Evaluation of profile and experience → Technical Interview → Review of Practical Cases → Final Decision → Registration.
  • RATES:
    • Single Payment: 10% Discount.
    • Payment in 3 Installments: No Commissions; 30% to registration + 2 equal monthly payments of the maintenance 35%.
    • Monthly Payment: Available with Commission of 7% of the total; Annual Review.
  • Scholarships: for academic merit, economic situation and promotion of inclusion; agreements with companies in the sector for partial or total scholarships.
Consultation “Calendar & Calls”, “Scholarships & Grants” Y “Rates & Financing” In the mega-menu SEIUM

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FAQ

Frequently asked questions

Yes, we have international certification

Yes: experimental models, real data, applied simulations, professional environments, real case studies.

It is not mandatory. We offer leveling and tutoring tracks

Totally. It covers microgrids, self-consumption and integration and emerging regulations (IEC 62933, IEEE 2030.2).

Recommended. There are also internal challenges and consortia.

Yes. Modality Online/Hybrid with Planned Laboratories and Visa Support (see “Visa & Residence”).

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