Before a single panel is bolted to a roof or a field, someone has to answer a very expensive question: exactly how much usable sunlight will this site receive, month after month, for the next twenty-five years? Get the number wrong, and a multi-million-dollar solar investment can under-deliver for decades. Get it right, and financiers, engineers and planners can move forward with confidence.

This Solar Resource Assessment and Irradiance Analytics Training Course by Arab British Fellowship Training Academy walks participants through the full assessment workflow, from ground instruments and satellite products to GIS mapping and yield forecasting, so they can turn raw irradiance readings into decisions that hold up over the life of a project.

Who Should Attend?

• Renewable-energy engineers and planners evaluating solar sites across different climates and geographies.
• Environmental science and sustainable-energy students building practical resource-assessment skills.
• Policymakers and urban planners shaping energy strategy and land-use decisions.

Knowledge and Benefits:

After completing the program, participants will be able to:

• Explain what solar irradiance is, how it is measured, and why it underpins every solar feasibility study.
• Run a resource-assessment methodology end to end, factoring in local climate and geography.
• Read satellite and ground-based datasets side by side and judge which is fit for purpose.
• Translate irradiance data into a defensible estimate of a site's solar energy potential.

Module 1: Reading the Sun — Why Irradiance Data Drives Every Solar Decision

• What solar irradiance actually measures, and the difference between direct, diffuse and total irradiance.
• How latitude, season and time of day change the amount of usable sunlight at a given site.
• Why an accurate reading translates directly into more reliable energy-generation forecasts and stronger investment returns.

Module 2: Solar Technologies in Context — PV, Thermal and the Global Market

• Photovoltaic versus thermal solar technologies and where each fits.
• Global adoption trends and the policies accelerating, or slowing, them.
• How resource assessment connects to the wider renewable-energy landscape.

Module 3: Instruments of the Trade — Pyranometers, Solarimeters and Calibration

• Core measurement instruments used to capture irradiance data in the field.
• Calibration and maintenance routines that keep sensor readings trustworthy.
• Comparing ground-based instruments with satellite-derived measurement techniques.

Module 4: Building a Reliable Measurement Programme

• Best practices for planning and running field measurement campaigns.
• Choosing sampling intervals and data-collection strategies that hold up over time.
• Quality-control and validation procedures that catch errors before they reach a report.

Module 5: Choosing the Right Assessment Method

• Overview of the main methodologies used to assess solar resources.
• Matching an assessment method to a project's scale, budget and risk profile.
• The role historical climate records play in strengthening an assessment.

Module 6: Satellite Data vs Ground Truth

• Accessing and interpreting satellite-derived irradiance products.
• The advantages and blind spots of relying on satellite data alone.
• Combining satellite and ground measurements to sharpen accuracy.

Module 7: Running a Ground Measurement Campaign

• Designing and implementing on-site measurement campaigns.
• Analysing and interpreting the field data collected.
• Common pitfalls that compromise ground-truth data quality.

Module 8: Processing, Analysing and Visualising the Data

• Cleaning and pre-processing raw irradiance measurements.
• Statistical techniques for analysing irradiance variability.
• Turning numbers into graphs, charts and maps that communicate clearly to stakeholders.

Module 9: From Data to Energy Yield

• Calculating solar energy potential from processed irradiance data.
• Factors that shift yield predictions: system efficiency, location, orientation.
• Tools commonly used to estimate energy production from a proposed installation.

Module 10: GIS and Spatial Mapping for Site Selection

• GIS fundamentals and their role in spatial resource assessment.
• Integrating irradiance data into GIS platforms for site-selection and feasibility studies.
• Building resource maps that support strategic planning and community engagement.

Module 11: Economics, Incentives and the Policy Landscape

• Cost-benefit analysis techniques applied to solar energy projects.
• Financial incentives, government support programmes and their effect on feasibility.
• The regulatory landscape shaping solar resource assessment and deployment.

Module 12: Stakeholders, Sustainability and the Road Ahead

• Identifying and engaging the stakeholders who shape a project's success.
• Environmental and sustainability considerations during assessment and installation.
• Emerging technologies such as AI, machine learning and next-generation sensors, and where solar assessment is headed.