
Solar Energy Certification Course
Get fully certified in solar energy and build the technical skills employers and clients demand. This course covers everything from photovoltaic fundamentals and system design to grid interconnection, storage integration, and operations. Whether you're entering the solar industry or advancing your current career, this certification gives you the credentials and know-how to get the job done right.
What you will learn:
You'll gain a thorough understanding of how solar energy systems work, from the physics of photovoltaic cells to the design of complete residential and commercial installations. The course covers solar thermal systems, battery storage, electrical balance-of-system components, and structural mounting. You'll learn how to size arrays, select inverters, and model energy yield using industry-standard tools. Permitting, grid interconnection, and utility regulations are covered in detail so you can manage real projects from start to finish. You'll also explore solar project finance, operations and maintenance, and emerging technologies shaping the industry's future.
How you study in practice Solar Energy Certification Course
How you practice Solar Energy Certification Course
For companies that want to train their team
With Dedika for Business, 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 detailsFoundations of Solar Energy
Foundations of Solar Energy
Lesson 1 • History of Solar Technology
Traces photovoltaic and thermal solar development from early discoveries to modern deployment. Contextualizes current technology within a century of innovation.
Lesson 2 • Solar Energy Resource Assessment
Introduces tools and data sources for quantifying solar potential at a site. Connects resource quality to system feasibility decisions.
Lesson 3 • Solar Radiation and the Sun
Covers solar spectrum, irradiance, and atmospheric effects on sunlight. Provides the physical foundation for all subsequent energy conversion topics.
Lesson 4 • Environmental and Economic Context
Examines solar energy's role in reducing carbon emissions and its cost trajectory. Frames the business and environmental case for solar adoption.
Chapter 2HideHide detailsSee detailsPhotovoltaic Technology Fundamentals
Photovoltaic Technology Fundamentals
Lesson 1 • Array Configuration and Shading
Covers series and parallel wiring of modules and the impact of partial shading on output. Prepares students to design arrays that minimize mismatch losses.
Lesson 2 • PV Cell Types and Materials
Compares monocrystalline, polycrystalline, thin-film, and emerging cell technologies. Enables informed selection based on efficiency, cost, and application.
Lesson 3 • PV Performance Factors
Analyzes temperature, soiling, degradation, and spectral mismatch as output variables. Equips students to predict and improve long-term energy yield.
Lesson 4 • Semiconductor Physics for PV
Explains p-n junction behavior, electron-hole pairs, and the photovoltaic effect. Provides the physical basis for understanding cell efficiency and losses.
Lesson 5 • PV Module Construction and Ratings
Details how cells are assembled into modules and how standard test conditions define ratings. Links nameplate data to real-world performance expectations.
Chapter 3HideHide detailsSee detailsSolar Thermal Systems
Solar Thermal Systems
Lesson 1 • Concentrating Solar Thermal Technologies
Introduces parabolic trough, dish-Stirling, and power tower systems for high-temperature applications. Connects concentration ratio to achievable temperatures and uses.
Lesson 2 • Heat Transfer Principles in Solar Collectors
Reviews conduction, convection, and radiation as applied to solar collector design. Establishes thermal analysis skills used throughout the chapter.
Lesson 3 • Solar Water Heating System Design
Covers active and passive system configurations, storage sizing, and freeze protection strategies. Enables students to design code-compliant domestic hot water systems.
Lesson 4 • Thermal Storage and Process Heat
Examines sensible, latent, and thermochemical storage options and industrial process heat applications. Extends thermal design skills to commercial and industrial contexts.
Lesson 5 • Flat-Plate and Evacuated Tube Collectors
Compares construction, efficiency curves, and operating ranges of common collector types. Guides selection for residential and commercial water heating.
Chapter 4HideHide detailsSee detailsPV System Design and Sizing
PV System Design and Sizing
Lesson 1 • Load Analysis and Energy Auditing
Teaches consumption data collection, appliance load profiling, and demand pattern analysis. Accurate load data is the starting point for every system sizing exercise.
Lesson 2 • Inverter Selection and Sizing
Covers string, central, and microinverter topologies and matching inverter capacity to array output. Ensures students can select inverters that maximize energy harvest.
Lesson 3 • Battery Storage Integration
Introduces battery chemistry options, depth of discharge, and autonomy calculations for storage-coupled systems. Prepares students to design hybrid and off-grid configurations.
Lesson 4 • Energy Yield Modeling
Uses simulation tools to predict annual energy production accounting for all loss factors. Validates system designs before procurement and installation.
Lesson 5 • Array Sizing and Orientation
Applies peak sun hours and system losses to determine required array capacity and optimal tilt. Connects resource data from Chapter 1 to physical array layout.
Chapter 5HideHide detailsSee detailsElectrical Balance of System Components
Electrical Balance of System Components
Lesson 1 • DC Wiring and Conductor Sizing
Applies voltage drop limits and ampacity requirements to select DC conductors and conduit. Ensures safe and efficient current flow from array to inverter.
Lesson 2 • Disconnects and Rapid Shutdown
Details AC and DC disconnect requirements and rapid shutdown system design for emergency response. Addresses first-responder safety at the system level.
Lesson 3 • Grounding and Bonding
Explains equipment grounding, system grounding, and bonding requirements for PV arrays. Reduces shock hazard and ensures proper fault current paths.
Lesson 4 • Overcurrent Protection Devices
Covers fuse and circuit breaker selection for string, combiner, and AC circuits. Protects equipment and personnel from fault currents throughout the system.
Lesson 5 • Monitoring and Data Acquisition
Introduces production meters, inverter communication protocols, and remote monitoring platforms. Enables ongoing performance verification and fault detection.
Chapter 6HideHide detailsSee detailsStructural Mounting and Installation
Structural Mounting and Installation
Lesson 1 • Structural Load Analysis
Covers dead, live, wind, and snow loads acting on PV mounting systems. Provides the structural basis for racking selection and attachment design.
Lesson 2 • Commissioning and Quality Checks
Details pre-energization inspections, I-V curve testing, and thermal imaging for newly installed systems. Confirms that installation meets design specifications before handover.
Lesson 3 • Roof Mount Racking Systems
Compares flush, tilted, and ballasted roof mount options and their attachment hardware. Guides selection based on roof type, slope, and structural capacity.
Lesson 4 • Installation Safety and Procedures
Establishes fall protection, electrical safety, and tool handling protocols for PV installation crews. Reduces injury risk and ensures regulatory compliance on job sites.
Lesson 5 • Ground Mount and Tracking Systems
Covers fixed-tilt ground mounts, single-axis trackers, and dual-axis tracker configurations. Compares energy gain against cost and maintenance for each option.
Chapter 7HideHide detailsSee detailsGrid Interconnection and Regulations
Grid Interconnection and Regulations
Lesson 1 • Permitting and Inspection Requirements
Reviews building, electrical, and fire permits and the inspection process for PV installations. Equips students to prepare complete permit packages and pass inspections.
Lesson 2 • Net Metering and Billing Structures
Covers net metering, time-of-use rates, and demand charge structures affecting solar economics. Enables accurate financial modeling for grid-tied customer-sited systems.
Lesson 3 • Utility Interconnection Process
Maps the steps from application submission to permission to operate for grid-tied systems. Prepares students to manage interconnection timelines and utility communication.
Lesson 4 • Incentive Programs and Compliance
Surveys tax credits, rebates, renewable energy certificates, and reporting obligations. Helps students maximize project economics while maintaining regulatory compliance.
Lesson 5 • Anti-Islanding and Grid Standards
Explains islanding hazards and the inverter protection functions required by grid standards. Ensures students can verify compliance with utility interconnection requirements.
Chapter 8HideHide detailsSee detailsOperations, Maintenance, and Troubleshooting
Operations, Maintenance, and Troubleshooting
Lesson 1 • Preventive Maintenance Planning
Establishes inspection schedules, cleaning protocols, and vegetation management for PV systems. Proactive maintenance preserves energy yield and extends equipment life.
Lesson 2 • Performance Monitoring and Analysis
Uses production data, performance ratio trends, and specific yield benchmarks to detect underperformance. Links monitoring skills from Chapter 5 to diagnostic decision-making.
Lesson 3 • Inverter and Battery Troubleshooting
Interprets inverter error codes, communication faults, and battery state-of-health indicators. Reduces mean time to repair for the most common system failures.
Lesson 4 • Component Replacement and Upgrades
Details safe procedures for module, inverter, and battery replacement and system capacity expansion. Ensures upgrades maintain electrical and structural code compliance.
Lesson 5 • Electrical Fault Diagnosis
Covers open-circuit, ground fault, and arc-fault identification using meters and monitoring data. Enables systematic fault isolation to minimize downtime.
Your valid completion certificate
This course is for you:
Electricians: looking to expand their credentials into the growing solar market.
Career changers: motivated by clean energy and seeking a structured technical foundation.
Construction contractors: wanting to add solar installation to their service offerings.
Engineering students: building applied knowledge to complement their academic coursework.
Sustainability professionals: needing technical depth to support solar project decisions.
Entrepreneurs: planning to launch or grow a solar sales and installation business.
What our students say
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