10:39 pm 9 September 2026 Blue Energy Solar0 Comments
Every panel's wattage comes from a factory flash test, and every design must survive a series of accelerated stress and safety tests before it can be sold for incentive-eligible systems. Learn what STC means, what the IEC tests simulate and how to read the results. Read More →
How Hail, Wind and Storms Affect Solar Panels
10:47 pm 8 September 2026 Blue Energy Solar0 Comments
Solar panels are built and tested to survive hail, wind and heavy rain, but severe storms can still crack glass, damage cells or loosen fixings. Here is how the testing works, where the weak points are and what should happen after a storm. Read More →
Bifacial Panels and Albedo: How Panels Collect Light from Behind
10:21 pm 7 September 2026 Blue Energy Solar0 Comments
Bifacial panels can turn light reflected onto their rear face into extra electricity. How much they gain depends on the surface below, mounting height and tilt, which is why they suit ground mounts and carports far better than a typical roof. Read More →
Solar Panel Recycling: What Happens at End of Life
5:04 pm 7 September 2026 Blue Energy Solar0 Comments
Solar panels usually work for decades, but eventually they come off the roof. This explainer covers what a panel is made of, how recyclers separate glass, aluminium, silicon and metals, and how to dispose of old panels responsibly. Read More →
How Solar Carports and Canopies Are Engineered
5:20 pm 5 September 2026 Blue Energy Solar0 Comments
A solar carport is a structure first and a solar array second. This explainer covers the wind and structural loads engineers design for, how footings are chosen, how water is managed, vehicle clearances and the certification a compliant canopy needs. Read More →
Structural Loads on Roofs: What Engineers Check Before Solar
10:37 pm 4 September 2026 Blue Energy Solar0 Comments
Solar panels add less weight than most people expect, but wind uplift, fixings and roof condition decide whether a roof is ready. Here is how dead load, rafters, battens and older roofs are assessed before installation. Read More →
PERC, TOPCon and Heterojunction Solar Cells Explained
10:19 pm 2 September 2026 Blue Energy Solar0 Comments
PERC, TOPCon and heterojunction are different ways of building a silicon solar cell. This explainer covers p-type and n-type wafers, how each design reduces losses, how they behave in heat and what the labels mean on a panel datasheet. Read More →
Every panel's wattage comes from a factory flash test, and every design must survive a series of accelerated stress and safety tests before it can be sold for incentive-eligible systems. Learn what STC means, what the IEC tests simulate and how to read the results. Read More →
Solar panels are built and tested to survive hail, wind and heavy rain, but severe storms can still crack glass, damage cells or loosen fixings. Here is how the testing works, where the weak points are and what should happen after a storm. Read More →
Bifacial panels can turn light reflected onto their rear face into extra electricity. How much they gain depends on the surface below, mounting height and tilt, which is why they suit ground mounts and carports far better than a typical roof. Read More →
Solar panels usually work for decades, but eventually they come off the roof. This explainer covers what a panel is made of, how recyclers separate glass, aluminium, silicon and metals, and how to dispose of old panels responsibly. Read More →
A solar carport is a structure first and a solar array second. This explainer covers the wind and structural loads engineers design for, how footings are chosen, how water is managed, vehicle clearances and the certification a compliant canopy needs. Read More →
Solar panels add less weight than most people expect, but wind uplift, fixings and roof condition decide whether a roof is ready. Here is how dead load, rafters, battens and older roofs are assessed before installation. Read More →
PERC, TOPCon and heterojunction are different ways of building a silicon solar cell. This explainer covers p-type and n-type wafers, how each design reduces losses, how they behave in heat and what the labels mean on a panel datasheet. Read More →
