Editing Openai/67d9ce0c-64a4-8006-9fa5-0272ee2e5770 (section)

===== While our primary focus is on preheating for silicon production, we also explored a conventional solar panel project: =====
# Area: 40 km × 40 km = 1,600 km² = 1.6 × 10⁹ m²
# Assumptions for Electricity Production: – Efficiency: ~20% – Irradiance: Using a simplified model with 800 W/m² and 6 peak hours, or alternatively, annual values (e.g., 2350 kWh/m²/year)
# Daily Energy Output (using our simplified model): Daily Energy=1.6×109 m2×800 W/m2×0.20×6 h\text{Daily Energy} = 1.6 \times 10^9\, m^2 \times 800\, W/m^2 \times 0.20 \times 6\, hDaily Energy=1.6×109m2×800W/m2×0.20×6h ≈1.536×1012 Wh/day=1,536,000 MWh/day\approx 1.536 \times 10^{12}\, Wh/day = 1,536,000\, MWh/day≈1.536×1012Wh/day=1,536,000MWh/day
# Annual Energy: 1,536,000 MWh/day×365≈560.64 TWh/year1,536,000\, MWh/day \times 365 \approx 560.64\, TWh/year1,536,000MWh/day×365≈560.64TWh/year
# Context: – Egypt’s current annual electricity consumption is roughly 186 TWh. – This hypothetical project could, therefore, produce about 300% of the current consumption, showing the vast potential if scaled.