Pideya Learning Academy

Solar Energy Systems: Safety and Installation

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
10 Feb - 19 Feb 2025 Live Online 10 Day 5250
31 Mar - 09 Apr 2025 Live Online 10 Day 5250
12 May - 21 May 2025 Live Online 10 Day 5250
16 Jun - 25 Jun 2025 Live Online 10 Day 5250
21 Jul - 30 Jul 2025 Live Online 10 Day 5250
15 Sep - 24 Sep 2025 Live Online 10 Day 5250
27 Oct - 05 Nov 2025 Live Online 10 Day 5250
24 Nov - 03 Dec 2025 Live Online 10 Day 5250

Course Overview

The global demand for renewable energy is accelerating, and solar power is at the forefront of this transformation. According to the International Energy Agency (IEA), solar photovoltaic (PV) capacity accounted for nearly 60% of all new renewable capacity additions globally in 2023, with expectations to grow by over 280 GW annually until 2027. As the world moves rapidly toward sustainable energy, ensuring both the safety and efficiency of solar energy systems becomes critically important.
This comprehensive course—“Solar Energy Systems: Safety and Installation”—offered by Pideya Learning Academy, uniquely combines two essential learning pillars: the safety and emergency preparedness critical to operating solar power plants, and the detailed understanding required for the installation, storage, and maintenance of solar photovoltaic systems. It is carefully designed by integrating insights from two premier programs: “Solar Power Plant Safety and Emergency Management” and “Solar Energy System Installation and Storage Training.”
Participants will begin with a strong foundation in solar power history, technologies, and the anatomy of modern PV systems. This includes coverage of solar cells, inverters, converters, metering, and array design. Further, the training delves deep into resource evaluation, system sizing, mounting strategies, and both mechanical and electrical design principles.
Simultaneously, the course stresses the importance of hazard awareness and occupational safety standards. With international frameworks such as OSHA and ISO in mind, it emphasizes hazard identification, PPE, arc flash risks, fire protection, emergency response, hazardous material handling, and risk classification. This dual-focus training is not just about building systems—it’s about building them safely, efficiently, and sustainably.
Throughout the program, emphasis is placed on evolving safety culture, regulatory compliance, and energy efficiency. The curriculum is regularly updated to incorporate innovations in solar cell chemistry, battery storage, emerging fire suppression technologies, and safety automation.
Integrated into the course are several distinctive features that enhance its relevance:
Deep coverage of both grid-tied and standalone solar systems, including hot water and hybrid applications.
In-depth understanding of hazard categories and emergency response protocols aligned with OSHA/ISO standards.
Evaluation of load profiles, peak demand calculations, and PV system de-rating for real-world installation.
Insight into battery storage systems, PV module fundamentals, and array performance optimization.
Focus on fire safety, lockout/tagout procedures, and hazmat response tailored for renewable energy facilities.
In a world where renewable energy adoption is no longer optional but imperative, professionals trained in both the engineering and safety dimensions of solar energy systems are increasingly in demand. This program equips participants with exactly that skill set.

Course Objectives

By the end of this course, participants will be able to:
Understand the fundamentals and types of solar energy systems, including PV and thermal systems.
Identify and mitigate hazards in solar power plant environments using international safety standards.
Evaluate solar resources, conduct load analysis, and determine system size for various applications.
Apply core principles of PV system design, from component selection to array configuration.
Comprehend the basics of electrical and fire safety, hazardous material handling, and emergency preparedness.
Align solar installation practices with efficiency goals, regulatory compliance, and sustainability benchmarks.

Personal Benefits

Participants will gain the following advantages:
A well-rounded understanding of solar PV system architecture, sizing, and design.
Enhanced awareness of personal safety, hazard mitigation, and emergency response practices.
Ability to assess energy efficiency metrics and optimize PV system configurations.
Increased job-readiness in renewable energy sectors through broad-based knowledge.
Elevated professional profile with cross-disciplinary competencies in engineering and HSE (Health, Safety & Environment).

Organisational Benefits

Organisations nominating staff to attend this course will benefit through:
Improved safety standards in solar energy operations, leading to fewer workplace incidents.
Optimized installation procedures that minimize energy loss and extend system longevity.
Greater compliance with global safety standards (e.g., OSHA, ISO, NEC), reducing legal and operational risks.
Enhanced workforce capabilities in both safety management and solar energy design.
Increased brand value through demonstrated commitment to sustainability and employee safety.

Who Should Attend

This course is ideal for a wide range of professionals engaged in or transitioning into solar and renewable energy roles, including:
Electrical and mechanical engineers
Energy consultants and solar system designers
Health and Safety Officers (HSE)
Renewable energy project developers
Solar technicians and maintenance personnel
Government energy policy advisors
Facility and operations managers in industrial or utility sectors
Entrepreneurs entering the clean energy space
Academic professionals and students in renewable energy programs

Course Outline

Module 1: Introduction to Solar Energy and Industry Evolution
History and timeline of solar energy development Evolution of solar panel manufacturing Overview of major solar energy incidents Role of solar power in the global energy transition
Module 2: Solar Energy System Classifications
Solar Photovoltaic (PV) systems Solar thermal systems Off-grid vs. grid-tied systems Hybrid systems and integrated solutions
Module 3: Fundamentals of Solar Radiation and Energy Resources
Electromagnetic spectrum and solar irradiance Atmospheric and latitudinal effects on solar energy Solar geometry and sun path diagrams Shading and solar window analysis
Module 4: Solar Energy Terminology and Measurements
Basic solar energy terms and units Tools for measuring solar radiation and energy output True North vs. Magnetic North Inter-row shading and optimization techniques
Module 5: Solar Photovoltaic (PV) Systems and Components
PV system architecture and configurations Solar modules, panels, and arrays Inverters, charge controllers, meters Balance of system components and power conditioning equipment
Module 6: PV Module Fundamentals
PV cells: silicon, thin-film technologies Electrical output parameters and I-V curve analysis Series vs. parallel configuration Performance ratings, bypass diodes, and qualification testing
Module 7: Solar Hot Water and Thermal Systems
Types of solar collectors Heat transfer and distribution systems Storage tanks and system sizing Maintenance requirements for thermal systems
Module 8: Load Analysis and System Sizing
Performing an energy audit Peak load determination Derating factors and loss estimation PVWATTS and energy modeling tools
Module 9: PV System Electrical Design
One-line electrical diagrams Conductors, charge control, and labelling System grounding, voltage drop calculation NEC compliance and electrical code standards
Module 10: Mechanical Design and Mounting Strategies
PV array mounting options Building-Integrated PV (BIPV) techniques Structural load calculations (wind, snow, seismic) Weather sealing and roof integration
Module 11: PV Markets, Applications, and Industry Roles
Market evolution and emerging trends Residential, industrial, and utility-scale systems Standalone vs. utility-interactive systems Career opportunities in the solar PV sector
Module 12: System Maintenance and Performance Optimization
Maintenance schedules and troubleshooting Common issues: shading, snow, wind, dirt, and batteries User maintenance guide for solar PV Maximizing performance and life cycle value
Module 13: Electrical Safety in Solar Installations
Electrical hazards: shock, arc flash, arc blast Energized equipment and tool safety Personal Protective Equipment (PPE) Lockout/tagout procedures and OSHA compliance
Module 14: Fire Safety and Prevention in Solar Systems
Fire chemistry and ignition sources Handling of flammable and combustible materials Types and use of fire extinguishers Fire protection systems and alarm integration
Module 15: Hazardous Materials and Toxicology
Definitions and classifications of hazardous materials Laws, regulations, and standards (e.g., OSHA, ISO) Hazmat Response Team (HMRT) roles Exposure limits, toxicity, and response protocols
Module 16: Emergency Planning and Response
Creating and implementing an emergency response plan Emergency scenarios: minor vs. major Evacuation and escape procedures Staff responsibilities and communication protocols
Module 17: Energy Efficiency and Renewable Energy Economics
Defining “efficiency” and its role in solar adoption Comparative costs of efficiency vs. renewable solutions Cost-benefit analysis for residential and industrial setups Financial incentives and government policies
Module 18: Future Trends and Global Market Outlook
Global growth forecasts for solar energy Impact of economic events (e.g., ARRA, crises) Innovations in solar manufacturing Future opportunities and technological disruptions

Have Any Question?

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