PVSyst Software: A to Z of Technical Design and Economic Report

About the Course

As solar energy continues to gain momentum globally, the need for effective and efficient system design is becoming increasingly critical to ensure the long-term sustainability of solar projects. The ability to optimise system components and maximise energy production is vital, as it helps lower costs and improves overall performance. Alongside technical design, thorough financial analysis is equally essential to assess economic feasibility, evaluate return on investment, and ensure the long-term profitability of solar energy systems. The PVSyst Software: A to Z of Technical Design and Economic Report training course provides an in-depth exploration of PVSyst, empowering delegates with the skills to develop optimised solar energy systems that meet technical specifications, economic viability, and performance goals. It is designed for professionals in the solar energy sector who aim to master the PVSyst software to design, optimise, and economically assess photovoltaic (PV) systems.

This training program will guide delegates through designing solar energy systems using PVSyst, from initial design concepts to finalising system reports. By focusing on both technical and economic aspects, it ensures that delegates gain a comprehensive understanding of how to model energy generation, minimise losses, and select the best system components. Furthermore, it emphasizes the importance of financial analysis, including sensitivity analysis and return on investment (ROI) calculation, making it relevant to professionals looking to enhance their project management and financial decision-making skills.

Delegates will learn how to handle various aspects of PV system design, such as optimising energy production, conducting shading analysis, and integrating storage solutions. It is tailored for those involved in solar energy projects' design and implementation phases, from engineers and system designers to financial analysts and project managers. They will be equipped to confidently use PVSyst to create high-performing, economically viable solar systems, enabling them to make informed decisions that will contribute to the growth and success of solar energy projects worldwide.

Core Objectives

The delegates will achieve the following objectives: 

• Understand key regulatory frameworks and standards governing energy transport and shipping practices in the industry
• Know the core components of PVSyst software and their applications in solar energy system design
• Explain the fundamental principles of solar energy systems and how they impact design and performance modeling in PVSyst
• Use PVSyst to create solar system designs, simulate energy generation, and assess system efficiency based on site-specific conditions
• Analyse system performance data, energy yields, and losses to optimise designs and ensure maximum energy production
• Evaluate the financial viability of solar projects by assessing return on investment, payback period, and net present value using PVSyst’s economic analysis tools
• Develop comprehensive technical and financial reports tailored for various stakeholders using PVSyst’s reporting features
• Effectively present system design insights, performance results, and financial assessments to stakeholders

Training Approach

This training course is a blend of interactive lectures, hands-on exercises, and software demonstrations to ensure the practical application of the PVSyst tool. Delegates will engage in real-world scenario-based simulations, allowing them to design, optimise, and evaluate solar energy systems. Additionally, group discussions and individual tasks will encourage critical thinking and the ability to analyse solar projects' technical and financial aspects.

The Attendees

This training course is designed for professionals involved in designing, managing, and optimising solar energy systems, including engineers, consultants, and project managers.

It will be beneficial to professionals in, but not limited to, the following fields:

• Solar Energy System Designers
• Electrical Engineers
• Energy Auditors
• Solar Project Developers
• Technical Managers
• Environmental Engineers
• Maintenance Engineers
• Solar Equipment Manufacturers
• Energy System Analysts
• Financial Analysts in the Energy Sector

Daily Discussion

DAY ONE: UNDERSTANDING THE PVSYST AND BASIC DESIGN CONCEPTS

• Overview of PVSyst Software and Its Role in Solar Energy System Design
• Introduction to Key System Components: Solar Panels, Inverters, and Balance of System
• The Design Workflow: From Concept to Report Generation
• Energy Generation Modelling and Simulation Techniques
• Importing Site Data: Assessing Local Climate and Environmental Conditions
• Understanding the Key Design Parameters and Their Impact on System Performance

DAY TWO: ADVANCED SYSTEM DESIGN FEATURES AND OPTIMISATION

• Detailed System Architecture: Array Configuration and Sizing
• Advanced Shading Analysis and Energy Production through Tilt and Azimuth Optimisation
• Energy Yield Simulation and Analysing Losses
• Modifying Designs for Specific Geographic Locations and Climatic Conditions
• Analysing System Performance and Energy Output Efficiency
• Integrating Design Adjustments for Optimal Energy Production

DAY THREE: ELECTRICAL DESIGN AND INTEGRATION WITH PVSYST

• Designing the Electrical Layout: Wiring, Connections, and Protection Systems
• Selecting and Sizing Inverters for Peak Efficiency
• Minimising Electrical Losses and Implementing Proper Electrical Protection
• Designing Grounding Systems for PV Installations
• Incorporating Storage Systems into System Designs
• Ensuring Electrical Safety and Compliance with Standards

DAY FOUR: ECONOMIC ANALYSIS AND FINANCIAL MODELLING IN PVSYST

• Exploring Financial Parameters in PVSyst: Initial Investment, Maintenance, and End-of-Life Costs
• Conducting a Cost-Benefit Analysis for Solar Projects
• Understanding Government Incentives: Feed-in Tariffs and Subsidies
• Running Sensitivity Analysis to Assess Economic Risks and Benefits
• Financial Report Generation and Evaluating the Economic Feasibility
• Assessing Return on Investment (ROI), Payback Period, and NPV

DAY FIVE: REPORTING, FINALISING DESIGNS, AND IMPLEMENTATION

• Generating Comprehensive System Design Reports for Stakeholders
• Exporting Simulation Data for Presentation and Further Analysis
• Interpreting Performance and Financial Data from Reports
• Fine-tuning Design Based on Report Insights and Real-World Application
• Final Review of PVSyst Simulation Outputs to Ensure Optimal Performance
• Preparing for Implementation and Monitoring