Hybrid Solar PV Systems Course

Lesson 1 • Solar Radiation and Energy Fundamentals

Covers solar irradiance, spectrum, and energy measurement units. Provides the physical baseline needed for all subsequent system sizing and performance analysis.

Lesson 2 • Solar Thermal Energy Principles

Introduces heat transfer modes and collector types used in solar thermal systems. Distinguishes thermal from photovoltaic approaches for hybrid integration planning.

Lesson 3 • Energy Conversion and Power Quality

Covers DC and AC power concepts, conversion losses, and power quality metrics. Establishes vocabulary for inverter and grid-interface discussions in later chapters.

Lesson 4 • Photovoltaic Cell Physics

Explains semiconductor behaviour, the p-n junction, and the photovoltaic effect. Connects cell-level physics to module and array performance outcomes.

Lesson 1 • PV Module Types and Technologies

Compares monocrystalline, polycrystalline, thin-film, and bifacial technologies by efficiency, cost, and application. Enables informed module selection for hybrid system contexts.

Lesson 2 • String and Array Configuration Design

Covers series and parallel wiring rules, voltage window constraints, and mismatch losses. Students design arrays that match inverter input specifications.

Lesson 3 • Reading and Interpreting Module Datasheets

Teaches extraction of STC and NOCT parameters, temperature coefficients, and I-V curve data. Accurate datasheet reading is prerequisite to string sizing and performance modelling.

Lesson 4 • I-V and P-V Curve Analysis

Analyses current-voltage and power-voltage curves under varying irradiance and temperature. Provides the analytical foundation for MPPT algorithm selection in later chapters.

Lesson 1 • Battery Chemistry and Performance Characteristics

Compares lead-acid, lithium-ion, lithium iron phosphate, and flow battery chemistries. Chemistry selection drives cost, cycle life, and thermal management decisions throughout the course.

Lesson 2 • Battery Management Systems

Explains BMS functions including cell balancing, state-of-charge estimation, and protection circuits. BMS configuration directly affects storage reliability and integration with hybrid controllers.

Lesson 3 • Thermal Management of Battery Systems

Covers heat generation mechanisms, cooling strategies, and temperature operating limits. Thermal management is critical for safety and achieving rated cycle life in field deployments.

Lesson 4 • Alternative Storage Technologies

Introduces supercapacitors, flywheel energy storage, and hydrogen storage as complementary options. Broadens the designer's toolkit for applications where batteries alone are insufficient.

Lesson 1 • Inverter Commissioning and Testing

Covers startup procedures, parameter configuration, protection relay settings, and functional testing. Proper commissioning prevents field failures and ensures warranty compliance.

Lesson 2 • DC-DC Converter Topologies

Covers buck, boost, and buck-boost converters used between PV arrays, batteries, and loads. Understanding converter behaviour is essential for hybrid bus architecture design.

Lesson 3 • Maximum Power Point Tracking Algorithms

Explains perturb-and-observe, incremental conductance, and advanced MPPT methods. MPPT efficiency directly determines how much solar energy is harvested under real-world conditions.

Lesson 4 • Grid Synchronisation and Anti-Islanding

Teaches phase-locked loop synchronization, frequency matching, and anti-islanding protection requirements. Grid-tied hybrid systems must meet interconnection standards to operate legally and safely.

Lesson 1 • Load Analysis and Demand Profiling

Teaches energy audit techniques, load categorization, and demand curve construction. Accurate load data is the primary input for all sizing, storage, and dispatch optimization decisions.

Lesson 2 • System Design Documentation

Establishes standards for single-line diagrams, energy flow schematics, and design reports. Complete documentation supports permitting, installation, and long-term operations and maintenance.

Lesson 3 • Hybrid System Topologies

Compares AC-coupled, DC-coupled, and AC-DC hybrid bus architectures by efficiency and flexibility. Topology choice constrains component selection and retrofit compatibility throughout the design process.

Lesson 4 • System Sizing and Component Specification

Applies solar resource, load, and storage data to size PV arrays, inverters, and batteries. Produces a bill of materials with rated capacities matched to performance targets.

Lesson 1 • Battery Bank Installation and Interconnection

Covers battery rack assembly, inter-cell cabling, fusing, and ventilation requirements. Proper installation prevents thermal events and ensures BMS communication integrity.

Lesson 2 • PV Array Wiring and Conduit Installation

Teaches conductor sizing, conduit fill calculations, connector types, and weatherproofing methods. Correct wiring practices prevent resistive losses, ground faults, and premature insulation failure.

Lesson 3 • Grounding and Bonding Systems

Explains equipment grounding, system grounding, and lightning protection bonding for hybrid systems. Proper grounding limits shock hazard and protects electronics from transient overvoltages.

Lesson 4 • Electrical Safety and Hazard Awareness

Covers arc flash, DC shock hazards, and personal protective equipment requirements. Safety awareness is the non-negotiable prerequisite for all physical installation and maintenance work.

Lesson 1 • Fault Diagnosis and Troubleshooting

Covers systematic fault isolation using IV curve tracers, thermal imaging, and insulation resistance testing. Rapid diagnosis minimizes downtime and prevents secondary equipment damage.

Lesson 2 • Monitoring System Architecture

Explains data logger hardware, communication protocols, and cloud platform integration for real-time monitoring. Continuous monitoring enables proactive maintenance and performance optimization.

Lesson 3 • Commissioning Procedures and Acceptance Testing

Covers pre-energization checks, startup sequences, and performance acceptance criteria. Systematic commissioning confirms that installed systems meet design specifications before handover.

Lesson 4 • Preventive Maintenance Programmes

Establishes inspection intervals, cleaning protocols, and component replacement schedules for hybrid systems. Structured maintenance programs extend asset life and protect performance warranty claims.

Lesson 1 • Risk Assessment and Mitigation Strategies

Identifies technical, financial, regulatory, and environmental risks and maps mitigation measures. Proactive risk management protects project returns and stakeholder confidence throughout the asset life.

Lesson 2 • Procurement and Contractor Management

Covers request-for-proposal preparation, vendor evaluation criteria, and contract terms for EPC projects. Effective procurement controls cost, schedule, and quality outcomes on hybrid projects.

Lesson 3 • Incentives, Tariffs, and Policy Frameworks

Explains feed-in tariffs, net metering mechanisms, tax incentive structures, and renewable energy certificates. Policy awareness enables accurate revenue modelling and project structuring decisions.

Lesson 4 • Financial Modelling for Hybrid Projects

Teaches capital expenditure estimation, operating cost modelling, and revenue stream identification. Financial models quantify project viability and support investment decision-making.