Pideya Learning Academy

Renewable Energy Systems and Sustainability Strategies

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
20 Jan - 29 Jan 2025 Live Online 10 Day 5250
10 Mar - 19 Mar 2025 Live Online 10 Day 5250
14 Apr - 23 Apr 2025 Live Online 10 Day 5250
19 May - 28 May 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
06 Oct - 15 Oct 2025 Live Online 10 Day 5250
24 Nov - 03 Dec 2025 Live Online 10 Day 5250

Course Overview

As the global demand for clean energy continues to rise, the intersection of solar power technologies and sustainable energy strategies has become a vital area of focus for professionals, governments, and industries worldwide. This course, Renewable Energy Systems and Sustainability Strategies, is a comprehensive program that combines the technical depth of Solar Power Design, Installation, and Maintenance Training with the strategic insights from Renewable Energy and Sustainability Strategies. It provides participants with both a solid foundation in solar energy systems and an in-depth understanding of broader energy transitions, policy tools, and innovative sustainability frameworks.
With solar photovoltaic (PV) capacity expected to reach nearly 8,000 GW globally by 2050, according to the International Energy Agency (IEA), and renewable energy forecasted to supply 90% of global electricity by the same year, the skills to design efficient solar systems and navigate renewable energy markets are no longer optional—they are essential. Additionally, BloombergNEF reports that investment in renewable energy exceeded $1.8 trillion in 2023, underscoring the surging demand for well-prepared professionals capable of leading in this sector.
This course explores the entire solar power chain—from radiation analysis, PV module characteristics, and system output calculations to the integration of renewable technologies with energy policy, smart grid systems, and sustainability planning. Participants will learn to differentiate solar energy from solar power, analyze system performance under varied conditions, and understand how digital technologies are transforming modern energy systems.
The training also includes energy policy analysis, insights into financing mechanisms such as auctions and feed-in tariffs, and the evolving roles of distributed storage and electric vehicles. These elements are integrated with in-depth case studies and market forecasts to provide a well-rounded perspective on the challenges and opportunities shaping the clean energy landscape.
Throughout the program, participants will engage with:
Solar radiation fundamentals and system sizing for efficient PV deployment
Interpretation of voltage, current, and output characteristics across solar technologies
Global trends in renewable energy markets and future energy forecasts
Strategies for integrating distributed renewables and smart grid technologies
Policy instruments and regulatory mechanisms that enable sustainable transitions
Case-based insights on energy efficiency, microgrids, and hybrid systems
By the end of the course, participants will possess the technical knowledge and strategic insight necessary to implement solar energy solutions while effectively contributing to national and organizational sustainability goals.

Course Objectives

By attending this course, participants will be able to:
Understand the core differences between solar energy and solar power
Accurately assess solar radiation data and determine performance metrics
Calculate solar time, electrical output, and evaluate PV module efficiency
Describe the photovoltaic effect and fundamental PV device operation
Analyze how operating conditions impact PV system output and reliability
Evaluate distributed renewable energy trends and grid integration solutions
Interpret energy market forecasts and policy instruments shaping renewables
Identify and act on opportunities emerging from the energy transition
Build sustainability-driven strategies to align with global clean energy goals

Personal Benefits

Participants attending this course will benefit from:
A comprehensive understanding of solar energy technology and system design
Enhanced skills to evaluate and optimize renewable energy performance
Insight into future market trends, grid innovation, and sustainability strategies
Practical knowledge for assessing investment opportunities and energy policies
Increased confidence in contributing to national and global energy transitions

Organisational Benefits

Organizations that nominate participants for this course will gain:
Enhanced internal capabilities in solar system assessment and strategic planning
Improved ability to identify, evaluate, and invest in viable energy projects
Stronger compliance with global energy and environmental standards
A workforce equipped to lead renewable initiatives and implement policies
Competitive edge in attracting clean energy funding and ESG-aligned investors

Who Should Attend

This course is ideal for a wide range of professionals, including:
Engineers and energy officers involved in solar PV system planning and management
Renewable energy professionals seeking strategic and market intelligence
Policy makers and government officials focused on energy transition frameworks
Sustainability officers, climate analysts, and environmental consultants
Utility professionals and energy managers involved in system integration and efficiency
Investors and financial analysts evaluating clean energy portfolios
Academics and researchers aiming to advance their applied knowledge in energy systems

Course Outline

Module 1: Fundamentals of Solar and Renewable Energy
Introduction to solar and renewable energy concepts Differentiation between solar energy and solar power World energy overview and global trends in energy transition Core energy concepts and units Overview of electricity fundamentals and industry structure
Module 2: Solar Radiation and Earth-Sun Relationships
Factors affecting solar radiation received on Earth Atmospheric and geographic influences Sun’s apparent position and path through the sky Solar geometry basics and energy flow dynamics Calculations: solar time vs. standard time
Module 3: Photovoltaic Technology and the Solar Effect
Understanding the photovoltaic (PV) effect Structure and operation of PV devices Differences between PV cells, modules, and arrays Impact of solar radiation and temperature on system output
Module 4: Solar PV System Output and Performance Calculations
Translating PV device output from reference to operating conditions Voltage, current, and power output analysis Series and parallel configuration of PV devices Performance rating conditions for PV modules Energy yield estimation using solar radiation data
Module 5: Renewable Energy Technology Landscape
Overview of renewable energy technologies (wind, hydro, biomass) Technical characteristics and applications Common myths and challenges Forecasts, trends, and emerging technologies in renewables
Module 6: Economic and Financial Evaluation of Renewable Energy
Economic analysis methods for renewable systems Levelized cost of energy (LCOE) Return on investment and payback period Financial modeling fundamentals Impact of subsidies and incentive structures
Module 7: Distributed Energy Systems and Microgrids
Concepts and components of distributed energy systems Rooftop PV systems: technology and implementation trends Microgrids and off-grid solar applications Case studies on distributed renewables
Module 8: Grid Integration and Hybrid Systems
Challenges of integrating renewables into the grid Grid stability and smart grid concepts Energy storage technologies: batteries, pumped hydro, etc. Hybrid renewable systems and their configurations
Module 9: Electrification and Energy Transition Drivers
Global electrification trends and implications Role of renewable-powered electrification in sustainability Electric vehicles (EVs) and their integration with the grid Electric vehicles as distributed energy resources
Module 10: Information and Digital Technologies in Energy Systems
Role of digitalization in renewable energy management Demand response (DR) technologies and strategies Smart grid and data-driven optimization Monitoring, diagnostics, and control systems
Module 11: Energy Policy and Regulatory Instruments
Overview of policy tools: auctions, feed-in tariffs, and net metering Policy design and implementation strategies Country-specific regulatory environments Impact of policies on renewable energy deployment
Module 12: Energy Efficiency and Sustainable Practices
Technologies improving energy efficiency The concept of “negawatts” and demand-side energy management Energy efficiency business models Sustainable energy planning frameworks
Module 13: Data Analysis and Energy Forecasting
Sources of reliable renewable energy data Forecasting energy generation and consumption Scenario modeling for future energy systems Quantitative tools for decision-making in sustainability
Module 14: Strategic Outlook and Future of Renewable Energy
Long-term pathways for sustainable energy systems Innovations driving the clean energy future Strategic planning for resilience and climate goals Visioning and preparing for next-generation energy systems

Have Any Question?

We’re here to help! Reach out to us for any inquiries about our courses, training programs, or enrollment details. Our team is ready to assist you every step of the way.