16 Topics
10 Days
Programme Overview
Training Description
Who Should Attend
This course is ideal for;
- Solar project developers
- Electrical and renewable energy engineers
- Energy policymakers and regulators
- Financial analysts and investors in clean energy
- Utility and grid operators
- Environmental and sustainability professionals
- Architects and building designers
- Technical trainers and consultants
- Academic researchers and students in renewable energy
- NGOs and international development practitioners
Session Objectives
- Understand the fundamentals of advanced PV systems
- Learn PV system design, configuration, and applications
- Gain expertise in installation and commissioning of PV systems
- Explore grid integration and energy storage solutions
- Analyze financial and economic aspects of PV projects
- Assess regulatory and policy frameworks for solar energy
- Implement advanced operation and maintenance strategies
- Evaluate innovations and smart technologies in PV systems
- Study global PV projects and lessons learned
- Build leadership skills for advancing solar adoption
About the Course
As global energy markets accelerate the shift toward renewables, scaling solar photovoltaic infrastructure requires moving beyond basic installation to master complex system architecture, energy storage coupling, and long-term asset management. Our Advanced Solar PV Systems Training Course meets this industry demand by equipping engineers, energy managers, and project developers with end-to-end expertise across grid-connected and off-grid PV systems. Guided by solar energy specialists, participants explore advanced technology trends, smart PV monitoring, energy storage integration, and predictive maintenance strategies. By combining technical execution with financial modeling and regulatory analysis, this program prepares energy professionals to plan, optimize, and manage high-performance solar installations across residential, commercial, and utility-scale applications.
Curriculum & Topics
16 Topics | 10 Days
-
Subtopic 1.1:
Overview of solar PV technology evolution
-
Subtopic 1.2:
PV market trends and global adoption
-
Subtopic 1.3:
Types of PV systems: on-grid, off-grid, hybrid
-
Subtopic 1.4:
Advantages and limitations of PV systems
-
Subtopic 1.5:
Role of PV in the energy transition
-
Subtopic 2.1:
Solar radiation fundamentals
-
Subtopic 2.2:
Tools for solar resource measurement
-
Subtopic 2.3:
Geographic and climatic considerations
-
Subtopic 2.4:
Site selection criteria
-
Subtopic 2.5:
Case studies of solar resource mapping
-
Subtopic 3.1:
Types of solar panels and efficiency ratings
-
Subtopic 3.2:
Inverters and conversion systems
-
Subtopic 3.3:
Mounting structures and tracking systems
-
Subtopic 3.4:
Cabling and connectors
-
Subtopic 3.5:
Innovations in PV materials
-
Subtopic 4.1:
Load assessment and system sizing
-
Subtopic 4.2:
Energy yield calculations
-
Subtopic 4.3:
Shading analysis and optimization
-
Subtopic 4.4:
Grid-tied vs off-grid configurations
-
Subtopic 4.5:
Software tools for system design
-
Subtopic 5.1:
Pre-installation site preparation
-
Subtopic 5.2:
Mounting and wiring procedures
-
Subtopic 5.3:
Safety considerations in installation
-
Subtopic 5.4:
Testing and verification of components
-
Subtopic 5.5:
Commissioning protocols
-
Subtopic 6.1:
Grid connection requirements
-
Subtopic 6.2:
Voltage and frequency stability considerations
-
Subtopic 6.3:
Distributed generation challenges
-
Subtopic 6.4:
Net metering and feed-in tariffs
-
Subtopic 6.5:
Smart grid and PV integration
-
Subtopic 7.1:
Battery technologies and applications
-
Subtopic 7.2:
System design with storage integration
-
Subtopic 7.3:
Safety and performance of storage systems
-
Subtopic 7.4:
Hybrid PV-storage systems
-
Subtopic 7.5:
Emerging storage technologies
-
Subtopic 8.1:
Performance monitoring techniques
-
Subtopic 8.2:
Key performance indicators (KPIs)
-
Subtopic 8.3:
Fault detection and diagnostics
-
Subtopic 8.4:
System optimization methods
-
Subtopic 8.5:
Case studies of performance evaluation
-
Subtopic 9.1:
Preventive and corrective maintenance practices
-
Subtopic 9.2:
Cleaning and inspection protocols
-
Subtopic 9.3:
Remote monitoring systems
-
Subtopic 9.4:
Spare parts management
-
Subtopic 9.5:
Extending system lifespan
-
Subtopic 10.1:
CAPEX and OPEX considerations
-
Subtopic 10.2:
Cost-benefit analysis methods
-
Subtopic 10.3:
Power purchase agreements (PPAs)
-
Subtopic 10.4:
Return on investment (ROI) calculation
-
Subtopic 10.5:
Financing models for solar projects
-
Subtopic 11.1:
Solar energy policies worldwide
-
Subtopic 11.2:
Incentives and subsidies for PV projects
-
Subtopic 11.3:
Licensing and permitting processes
-
Subtopic 11.4:
Compliance with technical standards
-
Subtopic 11.5:
Regulatory challenges and opportunities
-
Subtopic 12.1:
Life cycle assessment of PV systems
-
Subtopic 12.2:
Land use and biodiversity considerations
-
Subtopic 12.3:
Waste management and recycling of panels
-
Subtopic 12.4:
Community engagement and acceptance
-
Subtopic 12.5:
Sustainable deployment strategies
-
Subtopic 13.1:
Bifacial solar panels
-
Subtopic 13.2:
Floating PV systems
-
Subtopic 13.3:
Building-integrated photovoltaics (BIPV)
-
Subtopic 13.4:
Concentrated photovoltaics (CPV)
-
Subtopic 13.5:
Nanotechnology in PV development
-
Subtopic 14.1:
IoT in solar monitoring
-
Subtopic 14.2:
Artificial intelligence in PV optimization
-
Subtopic 14.3:
Digital twins for solar plants
-
Subtopic 14.4:
Blockchain in energy trading
-
Subtopic 14.5:
Cybersecurity in PV systems
-
Subtopic 15.1:
Utility-scale solar parks
-
Subtopic 15.2:
Community solar projects
-
Subtopic 15.3:
Residential rooftop PV systems
-
Subtopic 15.4:
Off-grid rural electrification
-
Subtopic 15.5:
Lessons from international best practices
-
Subtopic 16.1:
Strategic planning for solar adoption
-
Subtopic 16.2:
Building stakeholder partnerships
-
Subtopic 16.3:
Advocacy for solar policies
-
Subtopic 16.4:
Driving innovation in solar markets
-
Subtopic 16.5:
Future outlook for solar energy leaders
