pprroojjecct for universityyyyyyyyyy.pptx

a project for engineering

1. Energy-Efficiency For Buildings

2. Data Collection Integrated System Design Final Results Tracking and Monitoring Calculation and Optimization 2 3 1 5 4

3. Experimental Setup

4. SBP3+ A12+ FL3 + A12 + LP3 SBP3: sun balance (pure clear) 3mm ( Ag coated) A12: 12mm Air gap FL3: floating layer with thickness 3mm LP3 : Low-E (pure clear) 3mm ( Ag coated) High performance Low-E triple glass

5. The thickness is 4mm The gap of air is 4mm Double and single glass

6. 60 cm × 60 cm × 9mm Room simulation

7. Glass opening : 30 cm × 20 cm Thermal camera opening : 10 cm × 12 cm

8. Halogen lamp Light source

9. Thermocouple and Thermal camera

10. Glass wool

11. The testing part involves evaluating the thermal performance of the glazing system. Testing

12. The Measured Parameters Thermal Performances: This involves measurements of thermal conductivity K ( ) heat transfer coefficients h ( ) Emissivity of Low-E Coated Film ε thermal transmittance: U-Values ( ) (U = 0.97) Transient Temperature Variations T (°C)  

13. Analysis and Comparative Evaluation Key Performance Indicators : U-values (thermal transmittance), surface temperature variations, and moisture condensation patterns were key metrics for evaluation. These metrics provide a comprehensive understanding of the energy efficiency, insulation properties, and power generation capabilities of the system. Comparative Analysis : The performance of each glazing system was compared under similar conditions. This comparison was vital in determining the suitability of the system for different climatic conditions and building types.