10 Sections
201 Lessons
10 Weeks
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1: SOLAR RADIATION PHYSICS & OPTICS
Objective: Understand the physical nature of solar radiation, its measurement, modeling, and optical interaction with semiconductor materials
26
1.1
Module 1.1: Solar Structure and PhysicsCopyCopy
1.2
Module 1.2: Solar Electromagnetic RadiationCopyCopy
1.3
Module 1.3: Solar Geometry and AstronomyCopyCopy
1.4
Module 1.4: Atmosphere-Radiation InteractionCopyCopy
1.5
Deliverable: Calculate terrestrial solar spectrum for a given location using a simplified atmospheric modelCopyCopy
1.6
Module 2.1: Solar Radiation MeasurementCopyCopy
1.7
Module 2.2: Solar Resource Databases and ModelsCopyCopy
1.8
Module 2.3: Solar Radiation StatisticsCopyCopy
1.9
Module 2.4: Radiative Transfer ModelsCopyCopy
1.10
Deliverable: Statistical analysis of radiation time series data and solar resource modeling for a specific siteCopyCopy
1.11
Module 3.1: Geometric and Wave OpticsCopyCopy
1.12
Module 3.2: Light-Semiconductor InteractionCopyCopy
1.13
Module 3.3: Light Trapping TechniquesCopyCopy
1.14
Module 3.4: Antireflection and Optical LayersCopyCopy
1.15
Deliverable: Design of a multilayer antireflection structure and simulation of light trapping in silicon cellCopyCopy
1.16
Module 4.1: Photovoltaic Conversion ThermodynamicsCopyCopy
1.17
Module 4.2: Concepts for Single-Gap Limit ExceedanceCopyCopy
1.18
Module 4.3: Unconventional OpticsCopyCopy
1.19
Module 4.4: Energy Balance and TemperatureCopyCopy
1.20
Deliverable: Calculate maximum theoretical efficiency for different bandgaps and analyze losses in real cellCopyCopy
1.21
Module 5.1: Spectroradiometry and CalibrationCopyCopy
1.22
Module 5.2: Advanced Characterization TechniquesCopyCopy
1.23
Module 5.3: Spectral Response MeasurementsCopyCopy
1.24
Module 5.4: International Standards and NormsCopyCopy
1.25
Deliverable: Establish complete EQE measurement protocol with uncertainty analysis for given cell technologyCopyCopy
1.26
QCM- 1CopyCopy
0 Questions
2: SEMICONDUCTOR PHYSICS
Objective: Master quantum, statistical, and transport physics of charge carriers in semiconductors for photovoltaic conversion
26
2.1
Module 6.1: Energy Band TheoryCopyCopy
2.2
Module 6.2: Semiconductor StatisticsCopyCopy
2.3
Module 6.3: Doped SemiconductorsCopyCopy
2.4
Module 6.4: Heterostructures and AlloysCopyCopy
2.5
Deliverable: Calculate simplified band structure and carrier concentrations for different doping levels and temperaturesCopyCopy
2.6
Module 7.1: Diffusion and Drift MechanismsCopyCopy
2.7
Module 7.2: Carrier Scattering MechanismsCopyCopy
2.8
Module 7.3: Carrier Generation and RecombinationCopyCopy
2.9
Module 7.4: Excess Carriers and Transient PhenomenaCopyCopy
2.10
Deliverable: Model carrier transport in solar cell base with calculation of diffusion and drift currentsCopyCopy
2.11
Module 8.1: Thermodynamic Equilibrium of PN JunctionCopyCopy
2.12
Module 8.2: PN Junction Out of EquilibriumCopyCopy
2.13
Module 8.3: Heterojunctions and ContactsCopyCopy
2.14
Module 8.4: Advanced Junction StructuresCopyCopy
2.15
Deliverable: Complete calculation of J-V characteristics for ideal PN junction and analysis of current-limiting mechanismsCopyCopy
2.16
Module 9.1: Surface States and TrappingCopyCopy
2.17
Module 9.2: Surface Field EffectCopyCopy
2.18
Module 9.3: Metal-Semiconductor and MOS InterfacesCopyCopy
2.19
Module 9.4: Advanced Passivation and ConceptsCopyCopy
2.20
Deliverable: Comparative analysis of surface passivation mechanisms for different cell technologies and surface recombination velocity optimizationCopyCopy
2.21
Module 10.1: Perovskites and Hybrid MaterialsCopyCopy
2.22
Module 10.2: Organic SemiconductorsCopyCopy
2.23
Module 10.3: 2D and Emerging MaterialsCopyCopy
2.24
Module 10.4: Advanced Transport ConceptsCopyCopy
2.25
Deliverable: Critical evaluation of transport and recombination properties in emerging materials (perovskites, organics) vs crystalline siliconCopyCopy
2.26
QCM- 2CopyCopy
0 Questions
3: CRYSTALLINE SILICON CELL TECHNOLOGY
Objective: Master manufacturing processes, device engineering, and optimization of crystalline silicon cells
26
3.1
Module 11.1: Solar Grade Silicon MetallurgyCopyCopy
3.2
Module 11.2: Czochralski (CZ) Monocrystalline GrowthCopyCopy
3.3
Module 11.3: Multicrystalline (mc-Si) GrowthCopyCopy
3.4
Module 11.4: Wafer Cutting and PreparationCopyCopy
3.5
Deliverable: Analysis of crystalline defects and their impact on minority carrier lifetime in different silicon substrate typesCopyCopy
3.6
Module 12.1: Chemical Surface TexturingCopyCopy
3.7
Module 12.2: Cleaning and Surface PreparationCopyCopy
3.8
Module 12.3: Dopant DiffusionCopyCopy
3.9
Module 12.4: Diffusion Control and CharacterizationCopyCopy
3.10
Deliverable: Optimize diffusion process to achieve target doping profile with target Rs and controlled junction depthCopyCopy
3.11
Module 13.1: Thermal Oxidation and PassivationCopyCopy
3.12
Module 13.2: Advanced Passivation TechniquesCopyCopy
3.13
Module 13.3: Screen Printing MetallizationCopyCopy
3.14
Module 13.4: Advanced Metallization and AlternativesCopyCopy
3.15
Deliverable: Design passivation and metallization stack to minimize recombination and series resistance lossesCopyCopy
3.16
Module 14.1: PERC Cells (Passivated Emitter and Rear Cell)CopyCopy
3.17
Module 14.2: TOPCon Cells (Tunnel Oxide Passivated Contact)CopyCopy
3.18
Module 14.3: HJT Cells (Heterojunction)CopyCopy
3.19
Module 14.4: Back Contact Cells (IBC, MWT)CopyCopy
3.20
Deliverable: Techno-economic comparison of advanced cell architectures and technology roadmapCopyCopy
3.21
Module 15.1: J-V Measurements Under IlluminationCopyCopy
3.22
Module 15.2: Advanced Characterization TechniquesCopyCopy
3.23
Module 15.3: Loss Analysis and LimitsCopyCopy
3.24
Module 15.4: Stability and AgingCopyCopy
3.25
Deliverable: Complete loss analysis of commercial cell and improvement levers proposal with potential gain estimationCopyCopy
3.26
QCM- 3CopyCopy
0 Questions
4: THIN-FILM & EMERGING TECHNOLOGIES
26
4.1
Module 16.1: CdTe Properties and Band StructureCopyCopy
4.2
Module 16.2: CdTe Deposition ProcessesCopyCopy
4.3
Module 16.3: Post-Deposition Treatments and ContactsCopyCopy
4.4
Module 16.4: Performance and IndustrializationCopyCopy
4.5
Deliverable: Analysis of recombination mechanisms in CdTe cells and absorber thickness optimizationCopyCopy
4.6
Module 17.1: Hydrogenated Amorphous Silicon (a-Si:H)CopyCopy
4.7
Module 17.2: Microcrystalline Silicon (μc-Si:H, nc-Si:H)CopyCopy
4.8
Module 17.3: PECVD Deposition ProcessesCopyCopy
4.9
Module 17.4: Tandem and Multi-Junction CellsCopyCopy
4.10
Deliverable: Simulation of a-Si:H/μc-Si:H tandem cell with thickness optimization for current matchingCopyCopy
4.11
Module 18.1: Perovskite Chemistry and CrystallographyCopyCopy
4.12
Module 18.2: Manufacturing ProcessesCopyCopy
4.13
Module 18.3: Device Physics and PerformanceCopyCopy
4.14
Module 18.4: Stability and Lead-Free MaterialsCopyCopy
4.15
Deliverable: Analysis of degradation mechanisms and encapsulation strategy proposal for 25-year lifetime assuranceCopyCopy
4.16
Module 19.1: Organic Photovoltaics (OPV)CopyCopy
4.17
Module 19.2: Dye-Sensitized Solar Cells (DSSC)CopyCopy
4.18
Module 19.3: Quantum Dot and Nanostructure CellsCopyCopy
4.19
Module 19.4: Emerging Concepts and New ApproachesCopyCopy
4.20
Deliverable: Comparative evaluation of emerging technologies by efficiency, stability, cost, and applicability criteriaCopyCopy
4.21
Module 20.1: Technology Comparative AnalysisCopyCopy
4.22
Module 20.2: Materials Selection and EngineeringCopyCopy
4.23
Module 20.3: System Integration and Specific ApplicationsCopyCopy
4.24
Module 20.4: Technology Roadmap and ProspectsCopyCopy
4.25
Deliverable: Multi-criteria decision matrix for PV technology selection according to application context (utility, residential, BIPV, space)CopyCopy
4.26
QCM- 4CopyCopy
0 Questions
5: ELECTRICAL MODELING OF PV GENERATORS
Objective: Develop mathematical, electrical, and numerical models for simulation and optimization of PV generators
26
5.1
Module 21.1: One-Diode ModelCopyCopy
5.2
Module 21.2: Two-Diode ModelCopyCopy
5.3
Module 21.3: Advanced Models and Secondary EffectsCopyCopy
5.4
Module 21.4: Parameter Extraction and FittingCopyCopy
5.5
Deliverable: Complete extraction of 5 one-diode model parameters from experimental J-V curve and model validationCopyCopy
5.6
Module 22.1: Cell Series and Parallel AssociationCopyCopy
5.7
Module 22.2: Module Electrical ModelsCopyCopy
5.8
Module 22.3: Shading and Mismatch EffectsCopyCopy
5.9
Module 22.4: Module Characterization and MeasurementsCopyCopy
5.10
Deliverable: Simulation of module under partial shading with loss analysis and bypass diode placement optimizationCopyCopy
5.11
Module 23.1: I-V Translation ModelsCopyCopy
5.12
Module 23.2: Cell Temperature ModelsCopyCopy
5.13
Module 23.3: Energy Performance ModelsCopyCopy
5.14
Module 23.4: Energy Production SimulationCopyCopy
5.15
Deliverable: Energy performance model for specific module with annual production estimation for given siteCopyCopy
5.16
Module 24.1: Device SimulationCopyCopy
5.17
Module 24.2: 2D/3D Modeling and Edge EffectsCopyCopy
5.18
Module 24.3: PV System ModelingCopyCopy
5.19
Module 24.4: Optimization and Machine LearningCopyCopy
5.20
Deliverable: TCAD simulation of solar cell with band, concentration, and current profile analysis, comparison with analytical modelCopyCopy
5.21
Module 25.1: Electrical Loss DecompositionCopyCopy
5.22
Module 25.2: System Loss AnalysisCopyCopy
5.23
Module 25.3: Optimization MethodsCopyCopy
5.24
Module 25.4: Monitoring and Performance AnalysisCopyCopy
5.25
Deliverable: Complete loss analysis of real PV installation with corrective action proposals and gain estimationCopyCopy
5.26
QCM- 5CopyCopy
0 Questions
6: MODULE PHYSICS AND ENCAPSULATION
Objective: Understand module engineering, encapsulation materials, reliability, and degradation mechanisms
26
6.1
Module 26.1: Module Structure and ComponentsCopyCopy
6.2
Module 26.2: Module Electrical DesignCopyCopy
6.3
Module 26.3: Frameless and Integration ModulesCopyCopy
6.4
Module 26.4: Module Standards and CertificationCopyCopy
6.5
Deliverable: Detailed design of bifacial glass-glass module with thermomechanical stress calculation and interconnector optimizationCopyCopy
6.6
Module 27.1: Encapsulation PolymersCopyCopy
6.7
Module 27.2: Encapsulant Optical PropertiesCopyCopy
6.8
Module 27.3: Adhesion and Mechanical DurabilityCopyCopy
6.9
Module 27.4: Backsheets and SubstratesCopyCopy
6.10
Deliverable: Selection and justification of encapsulation materials for module destined for specific environment (desert, tropical, maritime)CopyCopy
6.11
Module 28.1: Cell Degradation MechanismsCopyCopy
6.12
Module 28.2: Encapsulant and Interface FailuresCopyCopy
6.13
Module 28.3: Electrical and Mechanical FailuresCopyCopy
6.14
Module 28.4: Accelerated Reliability TestingCopyCopy
6.15
Deliverable: Analysis of potential failure modes for module and definition of accelerated qualification test planCopyCopy
6.16
Module 29.1: Thermomechanical Stresses in ModulesCopyCopy
6.17
Module 29.2: Mechanical Behavior Under LoadCopyCopy
6.18
Module 29.3: Design for Reliability (DfR)CopyCopy
6.19
Module 29.4: Recycling and End of LifeCopyCopy
6.20
Deliverable: Thermomechanical simulation of module with maximum stress analysis and structural improvement proposalsCopyCopy
6.21
Module 30.1: Encapsulation for Tandem and Emerging CellsCopyCopy
6.22
Module 30.2: Advanced Bifacial ModulesCopyCopy
6.23
Module 30.3: Agrivoltaic and Floating ModulesCopyCopy
6.24
Module 30.4: Next-Generation ModulesCopyCopy
6.25
Deliverable: Design of bifacial module for agrivoltaic application with production gain estimation and crop impact analysisCopyCopy
6.26
QCM- 6CopyCopy
0 Questions
7: POWER ELECTRONICS FOR PHOTOVOLTAICS
Objective: Master static converters, inverters, and power electronics dedicated to PV systems
26
7.1
Module 31.1: Power Semiconductor ComponentsCopyCopy
7.2
Module 31.2: Wide Bandgap (WBG) ComponentsCopyCopy
7.3
Module 31.3: Magnetic Circuits and CapacitorsCopyCopy
7.4
Module 31.4: Cooling and Thermal ManagementCopyCopy
7.5
Deliverable: Selection and sizing of semiconductor and passive components for specific PV converter with loss and cooling calculationsCopyCopy
7.6
Module 32.1: Fundamental Choppers (DC-DC Converters)CopyCopy
7.7
Module 32.2: Converters for Maximum Power Point Tracking (MPPT)CopyCopy
7.8
Module 32.3: Conversion ArchitecturesCopyCopy
7.9
Module 32.4: Efficiency and OptimizationCopyCopy
7.10
Deliverable: Design of Boost converter for MPPT with component calculations, efficiency estimation, and operation simulationCopyCopy
7.11
Module 33.1: Inverter PrinciplesCopyCopy
7.12
Module 33.2: Control and Grid ConnectionCopyCopy
7.13
Module 33.3: Power Quality and HarmonicsCopyCopy
7.14
Module 33.4: Protection and SafetyCopyCopy
7.15
Deliverable: Design of single-phase inverter control system with PWM modulation simulation and harmonic analysisCopyCopy
7.16
Module 34.1: Multilevel InvertersCopyCopy
7.17
Module 34.2: Transformerless InvertersCopyCopy
7.18
Module 34.3: Storage and Hybrid InvertersCopyCopy
7.19
Module 34.4: Trends and New ArchitecturesCopyCopy
7.20
Deliverable: Comparison of transformerless inverter topologies with leakage current analysis and solution proposal for residential buildingCopyCopy
7.21
Module 35.1: Classical MPPT AlgorithmsCopyCopy
7.22
Module 35.2: Advanced MPPT and OptimizationsCopyCopy
7.23
Module 35.3: Grid Constraint ManagementCopyCopy
7.24
Module 35.4: Inverter Monitoring and DiagnosticsCopyCopy
7.25
Deliverable: Implementation of IncCond MPPT algorithm with partial shading condition management and simulation validationCopyCopy
7.26
QCM- 7CopyCopy
8: DC AND AC CABLING & ELECTRICAL PROTECTION
Objective: Size and secure DC and AC electrical networks for PV installations according to international standards
26
8.1
Module 36.1: PV DC CablesCopyCopy
8.2
Module 36.2: DC Circuit SizingCopyCopy
8.3
Module 36.3: Junction Boxes and DC ProtectionCopyCopy
8.4
Module 36.4: DC Cable Design and InstallationCopyCopy
8.5
Deliverable: Complete DC cabling sizing for 1 MWp PV plant with cross-section calculations, protection, and loss estimationCopyCopy
8.6
Module 37.1: DC Overcurrent ProtectionCopyCopy
8.7
Module 37.2: Overvoltage ProtectionCopyCopy
8.8
Module 37.3: Arc Fault Detection (AFCI)CopyCopy
8.9
Module 37.4: Grounding and Equipotential BondingCopyCopy
8.10
Deliverable: Design of complete DC electrical protection system for residential installation with protection selectivity and surge arrester coordinationCopyCopy
8.11
Module 38.1: AC Cabling and SizingCopyCopy
8.12
Module 38.2: Delivery Points and MeteringCopyCopy
8.13
Module 38.3: Transformers and Delivery SubstationsCopyCopy
8.14
Module 38.4: Power Quality and DisturbancesCopyCopy
8.15
Deliverable: Sizing of AC connection for 5 MWp plant with MV/LV transformer and power quality analysisCopyCopy
8.16
Module 39.1: IEC Standards for PhotovoltaicsCopyCopy
8.17
Module 39.2: American and Other Regional StandardsCopyCopy
8.18
Module 39.3: Building and Fire CodesCopyCopy
8.19
Module 39.4: Documentation and ComplianceCopyCopy
8.20
Deliverable: Establishment of compliance checklist for international PV installation with reference to applicable standardsCopyCopy
8.21
Module 40.1: Electrical Risks in PV InstallationsCopyCopy
8.22
Module 40.2: Safety Devices and DisconnectionCopyCopy
8.23
Module 40.3: Personnel ProtectionCopyCopy
8.24
Module 40.4: Fire Safety and AccessCopyCopy
8.25
Deliverable: Development of electrical safety plan for large PV plant with emergency intervention procedures and protection equipmentCopyCopy
8.26
QCM- 8CopyCopy
0 Questions
9: MECHANICAL STRUCTURES AND BUILDING INTEGRATION
Objective: Design support structures, mounting systems, and architectural integration of PV systems
26
9.1
Module 41.1: Actions on StructuresCopyCopy
9.2
Module 41.2: Steel Structure CalculationCopyCopy
9.3
Module 41.3: Ground-Mounted StructuresCopyCopy
9.4
Module 41.4: Roof-Mounted StructuresCopyCopy
9.5
Deliverable: Structure calculation for ground-mounted PV field with ULS and SLS verification under wind and snow loads per EurocodesCopyCopy
9.6
Module 42.1: Profiles and Mounting RailsCopyCopy
9.7
Module 42.2: Fixing on Metal RoofsCopyCopy
9.8
Module 42.3: Fixing on Tile and Slate RoofsCopyCopy
9.9
Module 42.4: Special Fixing SystemsCopyCopy
9.10
Deliverable: Detailed design of fixing system for tile roof with principle diagram and material listCopyCopy
9.11
Module 43.1: Tracker Principles and TypesCopyCopy
9.12
Module 43.2: Tracker Mechanics and DriveCopyCopy
9.13
Module 43.3: Tracker Control and Power SupplyCopyCopy
9.14
Module 43.4: Optimization and MaintenanceCopyCopy
9.15
Deliverable: Calculation of annual energy gain for horizontal single-axis tracker for given location with backtracking optimizationCopyCopy
9.16
Module 44.1: BIPV Concepts and AdvantagesCopyCopy
9.17
Module 44.2: BIPV Roof ElementsCopyCopy
9.18
Module 44.3: BIPV Facade and Glazing ElementsCopyCopy
9.19
Module 44.4: BIPV Design and StandardsCopyCopy
9.20
Deliverable: Design of BIPV facade with thermal and energy performance calculations, adapted module selectionCopyCopy
9.21
Module 45.1: Agrivoltaics PrinciplesCopyCopy
9.22
Module 45.2: Agrivoltaic System DesignCopyCopy
9.23
Module 45.3: Floating Applications (FPV)CopyCopy
9.24
Module 45.4: Other Integrated ApplicationsCopyCopy
9.25
Deliverable: Feasibility study of agrivoltaic project with agricultural, energy, and economic impact analysisCopyCopy
9.26
QCM- 9CopyCopy
0 Questions
10: SYSTEM INTEGRATION AND GLOBAL OPTIMIZATION
Objective: Synthesize all knowledge for systemic optimization of PV installations
26
10.1
Module 46.1: Sizing MethodsCopyCopy
10.2
Module 46.2: Conversion Ratio OptimizationCopyCopy
10.3
Module 46.3: Layout OptimizationCopyCopy
10.4
Module 46.4: Sensitivity and Uncertainty AnalysisCopyCopy
10.5
Deliverable: Optimized sizing of 10 MWp PV plant with LCOE sensitivity analysis to main parametersCopyCopy
10.6
Module 47.1: Cost Analysis (CAPEX)CopyCopy
10.7
Module 47.2: Revenue and OPEX AnalysisCopyCopy
10.8
Module 47.3: Economic IndicatorsCopyCopy
10.9
Module 47.4: Financing and Business ModelsCopyCopy
10.10
Deliverable: Complete business plan for residential PV project and large PV plant with LCOE and profitability calculationCopyCopy
10.11
Module 48.1: Electrochemical Storage TechnologiesCopyCopy
10.12
Module 48.2: Storage Strategies and Energy ManagementCopyCopy
10.13
Module 48.3: Electrical Grid IntegrationCopyCopy
10.14
Module 48.4: Microgrids and Off-Grid SitesCopyCopy
10.15
Deliverable: Design of hybrid PV + battery + grid system for self-consumption maximization with optimized control strategyCopyCopy
10.16
Module 49.1: Quality Assurance in Construction PhaseCopyCopy
10.17
Module 49.2: Monitoring and Surveillance SystemsCopyCopy
10.18
Module 49.3: Preventive and Corrective MaintenanceCopyCopy
10.19
Module 49.4: Recycling and End of LifeCopyCopy
10.20
Deliverable: Establishment of preventive maintenance plan for 50 KWp PV plant with intervention frequencies and cost estimationCopyCopy
10.21
Module 50.1: Fundamental Knowledge IntegrationCopyCopy
10.22
Module 50.2: Trends and InnovationsCopyCopy
10.23
Module 50.3: Environmental and Societal ChallengesCopyCopy
10.24
Module 50.4: Assessment and CertificationCopyCopy
10.25
Final Deliverable: Personal synthesis memoir integrating all studied concepts, proposal for innovative PV installation, and professional application roadmapCopyCopy
10.26
QCM- 10CopyCopy
0 Questions
FLOATING PHOTOVOLTAIC (FPV) POWER PLANTS
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