
Solar PV Power Plant Course
Master every stage of photovoltaic power plant development, from solar physics and array design to system commissioning and long-term operations. This course gives engineers, developers, and energy professionals the technical depth to design, build, and manage utility-scale PV plants with confidence. If you work in renewable energy, this is the complete technical foundation you need.
What you'll learn:
You will build a thorough understanding of PV cell physics, module configuration, inverter selection, and balance of system components. You will learn how to assess sites, model energy yield, and produce P50/P90 estimates that satisfy lenders and investors. The course covers electrical and civil engineering design, permitting workflows, and construction quality control. You will also gain practical skills in system commissioning, SCADA monitoring, and operations and maintenance programmes. Supplementary modules address battery storage integration, financial modelling, advanced fault diagnosis, and project management for the full development lifecycle.
How you study in practice Solar PV Power Plant Course
How you practise Solar PV Power Plant Course
For businesses looking to train their team
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFundamentals of Solar Energy
Fundamentals of Solar Energy
Lesson 1 • PV Cell Types and Technologies
Surveys monocrystalline, polycrystalline, thin-film, and emerging cell technologies. Enables informed technology selection based on efficiency, cost, and application.
Lesson 2 • Photovoltaic Effect and Cell Physics
Explains semiconductor physics, p-n junctions, and the photovoltaic effect. Connects atomic-level behaviour to measurable cell voltage and current output.
Lesson 3 • Solar Radiation and the Sun
Covers solar spectrum, irradiance, and atmospheric effects on incoming radiation. Establishes the energy source basis for all subsequent PV design decisions.
Lesson 4 • Cell Electrical Characteristics
Analyses I-V and P-V curves, fill factor, and standard test conditions. Provides the measurement framework used throughout system design and performance analysis.
Chapter 2HideHide detailsSee detailsPV Modules and Array Configuration
PV Modules and Array Configuration
Lesson 1 • Mismatch, Shading, and Bypass Diodes
Analyses how partial shading and mismatch degrade array output and how bypass diodes mitigate losses. Informs layout decisions to minimise energy yield reduction.
Lesson 2 • Module Construction and Ratings
Examines module lamination, encapsulants, frames, and nameplate ratings. Links cell-level physics to module-level datasheets used in system design.
Lesson 3 • Array Layout and Tilt Optimisation
Applies azimuth, tilt angle, and row spacing principles to maximise annual energy capture. Connects array geometry to site-specific solar resource data.
Lesson 4 • Series and Parallel String Design
Covers voltage addition in series strings and current addition in parallel branches. Establishes array sizing rules that feed directly into inverter selection.
Lesson 5 • Module Performance and Degradation
Reviews temperature coefficients, light-induced degradation, and long-term degradation rates. Supports accurate energy yield modelling over a plant's operational lifetime.
Chapter 3HideHide detailsSee detailsInverters and Power Conversion
Inverters and Power Conversion
Lesson 1 • Maximum Power Point Tracking
Explains MPPT algorithms and their effect on energy harvest under varying conditions. Directly supports string sizing and inverter matching decisions.
Lesson 2 • Microinverters and Power Optimisers
Compares module-level power electronics to string and central inverter architectures. Identifies scenarios where module-level electronics improve yield or simplify design.
Lesson 3 • Inverter Sizing and Clipping
Covers DC-to-AC ratio, clipping losses, and oversizing strategies for cost optimisation. Enables engineers to balance capital cost against annual energy yield.
Lesson 4 • Grid-Tie Requirements and Protection
Reviews anti-islanding, voltage and frequency ride-through, and reactive power capability. Ensures plant designs comply with grid interconnection technical standards.
Lesson 5 • Inverter Fundamentals and Topologies
Introduces DC-to-AC conversion principles, transformer-based and transformerless designs. Establishes topology trade-offs that drive inverter selection for different plant scales.
Chapter 4HideHide detailsSee detailsBalance of System Components
Balance of System Components
Lesson 1 • Earthing and Lightning Protection
Details equipment earthing, ground fault detection, and lightning protection systems. Ensures personnel safety and equipment protection across the entire plant.
Lesson 2 • DC Wiring and Combiner Boxes
Covers string wire sizing, voltage drop limits, and combiner box fusing. Establishes DC collection architecture that feeds into AC system design.
Lesson 3 • Transformers and Substations
Explains step-up transformer sizing, impedance, and substation layout for utility-scale plants. Prepares students to coordinate with utility interconnection requirements.
Lesson 4 • AC Wiring and Switchgear
Addresses AC feeder sizing, medium-voltage switchgear, and protection coordination. Connects inverter output to the plant's point of interconnection.
Lesson 5 • Mounting Structures and Trackers
Reviews fixed-tilt racking, single-axis trackers, and structural load requirements. Links mechanical design to energy yield and civil engineering inputs.
Chapter 5HideHide detailsSee detailsSite Assessment and Resource Analysis
Site Assessment and Resource Analysis
Lesson 1 • Horizon and Shading Analysis
Applies horizon profiling, near-shading objects, and shading simulation tools to quantify losses. Directly informs array layout and row spacing decisions from Chapter 2.
Lesson 2 • Solar Resource Data Sources
Surveys satellite-derived and ground-measured irradiance databases and their uncertainty ranges. Establishes data quality standards that underpin reliable energy yield estimates.
Lesson 3 • Geotechnical and Environmental Inputs
Reviews soil bearing capacity, flood risk, and environmental constraints affecting plant siting. Feeds civil and structural design requirements for mounting and foundation systems.
Lesson 4 • Grid Interconnection Feasibility
Covers transmission capacity studies, point-of-interconnection selection, and queue processes. Determines whether a site can export power and at what cost.
Lesson 5 • Site Selection and Scoring
Integrates resource, grid, geotechnical, and land data into a multi-criteria site scoring framework. Enables objective comparison of competing sites during project development.
Chapter 6HideHide detailsSee detailsEnergy Yield Modelling and Performance
Energy Yield Modelling and Performance
Lesson 1 • P50 and P90 Energy Estimates
Explains probabilistic energy estimates, interannual variability, and uncertainty stacking methods. Produces the bankable yield figures required by lenders and investors.
Lesson 2 • Energy Simulation Software Workflow
Guides users through input setup, simulation execution, and output interpretation in PV simulation tools. Builds practical modelling competency applied in subsequent performance analysis.
Lesson 3 • Performance Ratio and Specific Yield
Defines performance ratio, specific yield, and capacity factor as plant performance benchmarks. Enables comparison of modelled versus actual performance during operations.
Lesson 4 • Loss Factor Identification and Quantification
Catalogues soiling, wiring, mismatch, availability, and other loss categories with typical values. Provides the loss budget framework central to all energy yield simulations.
Lesson 5 • Model Validation and Uncertainty Review
Covers independent review processes, back-casting against measured data, and model uncertainty reduction. Ensures yield estimates meet the quality standards required for project financing.
Chapter 7HideHide detailsSee detailsPlant Design, Engineering, and Permitting
Plant Design, Engineering, and Permitting
Lesson 1 • Equipment Layout and Spacing Plans
Produces georeferenced equipment layout plans showing array blocks, inverter pads, and roads. Ensures constructability and maintenance access across the full plant footprint.
Lesson 2 • Permitting and Regulatory Approvals
Identifies required permits, environmental impact assessments, and utility interconnection agreements. Prepares students to manage the approval process from application to construction authorisation.
Lesson 3 • Civil and Structural Engineering Inputs
Covers grading plans, access roads, drainage design, and structural load calculations for racking. Integrates geotechnical data from site assessment into construction documents.
Lesson 4 • Electrical Single-Line Diagram Design
Develops single-line diagrams from module strings through the point of interconnection. Translates component selections from earlier chapters into a formal engineering document.
Lesson 5 • Design Review and Value Engineering
Applies design review checklists and value engineering techniques to optimise cost and performance. Finalises the engineering package before procurement and construction begin.
Chapter 8HideHide detailsSee detailsConstruction, Commissioning, and Operations
Construction, Commissioning, and Operations
Lesson 1 • Operations and Maintenance Programmes
Establishes preventive maintenance schedules, corrective maintenance workflows, and spare parts inventory. Sustains long-term energy yield and equipment reliability throughout plant life.
Lesson 2 • Construction Management and Quality Control
Covers contractor management, inspection hold points, and non-conformance reporting during construction. Ensures the built plant matches the engineered design and quality standards.
Lesson 3 • SCADA and Remote Monitoring Systems
Configures SCADA data acquisition, alarm management, and performance dashboards for remote oversight. Enables rapid fault detection and data-driven O&M decision-making.
Lesson 4 • Pre-Commissioning Electrical Testing
Details insulation resistance, continuity, polarity, and ground fault tests before energisation. Verifies electrical safety and correctness prior to applying grid voltage.
Lesson 5 • Commissioning and Performance Testing
Executes inverter startup, string-level I-V curve testing, and initial performance ratio measurement. Confirms the plant meets contractual performance guarantees at handover.
Your valid completion certificate
This course is for you:
Electrical engineer: ready to specialize in utility-scale solar project design.
Civil or structural engineer: expanding scope to include PV plant infrastructure work.
Energy project developer: needing technical depth to lead engineering conversations confidently.
Recent STEM graduate: building specialized credentials for a renewable energy career.
Grid or utility professional: adding solar integration expertise to an existing power background.
Career changer: moving from oil, gas, or construction into the solar industry.
What our students say
Your lessons are perfect. I purchased the one-year package and finally have the opportunity to follow various topics of interest without needing to change platforms... I'm grateful for everything you do, I've already recommended you to other people...

I like how the lessons are straight to the point and how I can change chapters and skip content I don't need.

I like the content and the way videos are presented and transcribed, which speeds up the process!

The platform is fast and simple to use. The diversity of content and complementary videos really help with learning.

Top upskilling courses
FAQ
Who is Dedika?
Is the certificate valid in Australia?
Are the courses free?
What is the course workload?
What are the courses like?
How do the courses work?
What is the duration of the courses?
What is the cost or price of the courses?
What is an EAD or online course and how does it work?
PDF Course




















