Nairobi, Kenya

254728269396

Advanced Solar Photovoltaic (PV) Systems Design

Advanced Solar Photovoltaic (PV) Systems Design training delivers expert-level skills for designing and optimizing complex solar installations, including grid-tied, off-grid, and hybrid systems. This...

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ONSITE OR VIRTUAL

Aug 24 - Aug 28
Programme Overview
Training Description

Who Should Attend
This course is ideal for;

  1. Solar PV System Engineers
  2. Renewable Energy Consultants
  3. Electrical Design Professionals
  4. Project Managers (Solar)
  5. Energy Efficiency Specialists
  6. Advanced Solar Installers
  7. Sustainability Engineers
  8. BIPV Designers
  9. Grid Interconnection Specialists
  10. Solar Energy Researchers
  11. Technical Sales Engineers (Solar)
  12. Energy Storage System Integrators
  13. Architectural Engineers
Session Objectives
  • Master advanced PV system design principles for grid-tied, off-grid, and hybrid configurations.
  • Utilize advanced design software for PV system modeling, simulation, and optimization.
  • Conduct detailed site assessments and calculate precise energy yield for complex installations.
  • Design and integrate energy storage solutions to enhance PV system reliability and performance.
  • Apply advanced optimization techniques to maximize PV system efficiency and energy output.
  • Develop PV system designs for diverse applications, including residential, commercial, and industrial.
  • Navigate grid interconnection requirements and ensure compliance with relevant standards.
  • Perform comprehensive technical and economic feasibility studies for advanced PV projects.
  • Implement effective troubleshooting and maintenance strategies for advanced PV systems.
  • Analyze and measure the performance of advanced PV systems using data analytics and monitoring tools.
  • Model and simulate complex PV systems using industry-standard software for performance prediction.
  • Design and integrate building-integrated PV (BIPV) systems for enhanced architectural and energy efficiency.
  • Understand and comply with legal and regulatory considerations for advanced PV installations.
About the Course

Advanced Solar Photovoltaic (PV) Systems Design training delivers expert-level skills for designing and optimizing complex solar installations, including grid-tied, off-grid, and hybrid systems. This course emphasizes advanced software utilization and optimization techniques, empowering professionals to maximize energy output and system reliability. Participants will master site assessment, design integration, and energy storage solutions, leading to the creation of high-performance, sustainable solar energy systems. By mastering advanced PV system design, professionals drive the adoption of efficient, reliable solar solutions, contributing to a greener energy future.
The growing complexity of solar projects necessitates advanced design expertise. This course provides in-depth training on leveraging cutting-edge software, integrating energy storage, and navigating grid interconnection, enabling professionals to develop and implement high-efficiency PV systems. Participants will acquire practical skills in technical and economic feasibility analysis, ensuring projects are both viable and optimized for performance.

Curriculum & Topics

15 Topics | 5 Days

  • play Subtopic 1.1: System components and interactions

  • play Subtopic 1.2: Advanced electrical design principles

  • play Subtopic 1.3: Performance modeling and simulation

  • play Subtopic 1.4: Environmental considerations

  • play Subtopic 1.5: Safety standards and best practices

  • play Subtopic 2.1: Grid interconnection requirements

  • play Subtopic 2.2: Inverter sizing and selection

  • play Subtopic 2.3: Voltage regulation and grid stability

  • play Subtopic 2.4: Performance monitoring and analysis

  • play Subtopic 2.5: Grid compliance and permitting

  • play Subtopic 3.1: Load analysis and energy demand estimation

  • play Subtopic 3.2: Battery sizing and selection

  • play Subtopic 3.3: Charge controller selection and configuration

  • play Subtopic 3.4: System reliability and redundancy

  • play Subtopic 3.5: Remote monitoring and control

  • play Subtopic 4.1: Hybrid system configurations and applications

  • play Subtopic 4.2: Energy storage integration strategies

  • play Subtopic 4.3: Microgrid design and management

  • play Subtopic 4.4: Load shifting and demand management

  • play Subtopic 4.5: System optimization for hybrid scenarios

  • play Subtopic 5.1: Software interface and functionality

  • play Subtopic 5.2: 3D modeling and shading analysis

  • play Subtopic 5.3: Electrical simulation and performance prediction

  • play Subtopic 5.4: Report generation and documentation

  • play Subtopic 5.5: Customization and advanced features

  • play Subtopic 6.1: Battery technologies and characteristics

  • play Subtopic 6.2: Energy storage system sizing and selection

  • play Subtopic 6.3: Battery management systems (BMS)

  • play Subtopic 6.4: Integration with PV systems and inverters

  • play Subtopic 6.5: Energy storage performance optimization

  • play Subtopic 7.1: MPPT algorithms and optimization

  • play Subtopic 7.2: Shading mitigation strategies

  • play Subtopic 7.3: Temperature management and cooling

  • play Subtopic 7.4: Soiling and maintenance optimization

  • play Subtopic 7.5: Data-driven performance analysis

  • play Subtopic 8.1: Site survey and data collection

  • play Subtopic 8.2: Shading analysis and solar resource assessment

  • play Subtopic 8.3: Energy yield estimation and modeling

  • play Subtopic 8.4: Performance ratio calculation

  • play Subtopic 8.5: Weather data analysis

  • play Subtopic 9.1: Grid interconnection standards and regulations

  • play Subtopic 9.2: Voltage and frequency regulation

  • play Subtopic 9.3: Protection and safety requirements

  • play Subtopic 9.4: Permitting and approval processes

  • play Subtopic 9.5: Communication and control systems

  • play Subtopic 10.1: Cost estimation and financial modeling

  • play Subtopic 10.2: Return on investment (ROI) calculation

  • play Subtopic 10.3: Payback period analysis

  • play Subtopic 10.4: Life cycle cost analysis

  • play Subtopic 10.5: Sensitivity analysis and risk assessment

  • play Subtopic 11.1: National and local regulations

  • play Subtopic 11.2: Permitting and zoning requirements

  • play Subtopic 11.3: Environmental impact assessments

  • play Subtopic 11.4: Incentive programs and policies

  • play Subtopic 11.5: Contractual agreements and warranties

  • play Subtopic 12.1: Fault detection and diagnosis

  • play Subtopic 12.2: Electrical testing and measurement

  • play Subtopic 12.3: Component replacement and repair

  • play Subtopic 12.4: Remote troubleshooting and support

  • play Subtopic 12.5: Preventative maintenance strategies

  • play Subtopic 13.1: Data acquisition and monitoring systems

  • play Subtopic 13.2: Performance data analysis and interpretation

  • play Subtopic 13.3: Reporting and visualization tools

  • play Subtopic 13.4: Performance benchmarking and optimization

  • play Subtopic 13.5: Data-driven decision making

  • play Subtopic 14.1: Software modeling techniques

  • play Subtopic 14.2: Simulation of system behavior

  • play Subtopic 14.3: Performance prediction and optimization

  • play Subtopic 14.4: Scenario analysis and design validation

  • play Subtopic 14.5: Model calibration and validation

  • play Subtopic 15.1: BIPV system types and applications

  • play Subtopic 15.2: Architectural integration and aesthetics

  • play Subtopic 15.3: Electrical and mechanical integration

  • play Subtopic 15.4: Thermal performance and energy efficiency

  • play Subtopic 15.5: Building codes and standards

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$ 1,500

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This Programme Includes

Certificate of completion

Training manual

Reference materials

10 o'clock tea

Lunch

4 o'clock tea

Course Highlights
  • icon 5 Days Intensive Training

  • icon 15 Core Learning Topics

  • icon 5 Days Professional Sessions

  • icon Training Expert-led Delivery

FAQs

Frequently Asked Questions

Explore detailed answers to the most common questions about our platform and services.

How does Pebbles Institute bridge theory and practice?

Our curriculum is explicitly designed around actionable, real-world case studies and frameworks (such as IPSAS, GFS, and climate-smart agriculture models). Rather than relying purely on academic lectures, our programs utilize quantitative tools, interactive exercises, and strategic analytics to ensure immediate workplace application.

Yes. Participants who successfully complete a training program and meet the minimum attendance requirements will be awarded a globally recognized Certificate of Proficiency from the Pebbles Institute of Research and Technology.

Most of our professional short courses are structured as intensive 5- or 10-day programs to minimize extended workplace absence while maximizing skill acquisition. We also offer compressed 1-to-3-day masterclasses.

Payments can be made via bank transfer or bank draft payable to PB Institute of Research and Technology. For corporate-sponsored participants, a formal undertaking/Local Purchase Order (LPO) from the employer is required to secure a slot before the training commencement date.

While the majority of our intensive professional programs are structured for high-engagement, on-site delivery, we offer select courses in a virtual or hybrid format. If your organization requires online delivery for a specific module, please indicate this during your booking inquiry.

Our primary residential and corporate training programs are hosted in premium, fully equipped conference facilities in Nairobi, Kenya. We also coordinate regional and international training locations depending on the specific cohort and organizational requirements. Exact venue details are communicated in your admission letter.