AECDAILY XY EN 143803 0623:2025 Edition
$13.00
Increasing Concrete Durability and Sustainability with Crystalline Waterproofing
| Published By | Publication Date | Number of Pages |
| AECDAILY | 2025 |
PDF Catalog
| PDF Pages | PDF Title |
|---|---|
| 1 | Slide 1 |
| 2 | Slide 2: Increasing Concrete Durability and Sustainability with Crystalline Waterproofing |
| 3 | Slide 3 |
| 4 | Slide 4 |
| 5 | Slide 5: How to Use This Online Learning Course |
| 6 | Slide 6: Purpose and Learning Objectives |
| 7 | Slide 7: Contents |
| 8 | Slide 8: Environmental Impact of Concrete |
| 9 | Slide 9: Sustainable Construction and Concrete |
| 10 | Slide 10: Environmental Impact of Concrete |
| 11 | Slide 11: Environmental Impact of Concrete |
| 12 | Slide 12: Durability’s Role in Concrete Sustainability |
| 13 | Slide 13: Durability’s Role in Concrete Sustainability |
| 14 | Slide 14: Causes of Concrete Deterioration |
| 15 | Slide 15: Reinforcing Steel Corrosion |
| 16 | Slide 16: Reinforcing Steel Corrosion |
| 17 | Slide 17: Reinforcing Steel Corrosion |
| 18 | Slide 18: Reinforcing Steel Corrosion |
| 19 | Slide 19: Reinforcing Steel Corrosion |
| 20 | Slide 20: Freeze-Thaw Damage |
| 21 | Slide 21: Freeze-Thaw Damage |
| 22 | Slide 22: Chemical Attack |
| 23 | Slide 23: Chemical Attack |
| 24 | Slide 24: Chemical Attack |
| 25 | Slide 25: Alkali-Aggregate Reactivity |
| 26 | Slide 26: Abrasion / Erosion |
| 27 | Slide 27: Abrasion / Erosion |
| 28 | Slide 28: Increasing Durability & Sustainability of Concrete |
| 29 | Slide 29: Increasing Durability and Sustainability |
| 30 | Slide 30: Increasing Durability and Sustainability |
| 31 | Slide 31: Increasing Durability and Sustainability |
| 32 | Slide 32 |
| 33 | Slide 33 |
| 34 | Slide 34: Crystalline Waterproofing Technology |
| 35 | Slide 35: What Is Crystalline Waterproofing Technology? |
| 36 | Slide 36: How It Works |
| 37 | Slide 37: Benefits of Crystalline Waterproofing Technology |
| 38 | Slide 38: Benefits of Crystalline Waterproofing Technology |
| 39 | Slide 39: Benefits of Crystalline Waterproofing Technology |
| 40 | Slide 40: Crystalline Waterproofing Installation Methods |
| 41 | Slide 41: Crystalline Waterproofing Installation Methods |
| 42 | Slide 42: Crystalline Waterproofing Installation Methods |
| 43 | Slide 43: Crystalline Waterproofing Testing |
| 44 | Slide 44: Lab Testing: Crack Sealing |
| 45 | Slide 45: Lab Testing: Chemical Resistance |
| 46 | Slide 46: Lab Testing: Sulfate Resistance |
| 47 | Slide 47: Lab Testing: Chloride Resistance |
| 48 | Slide 48: Lab Testing: SCMs and Crystalline Waterproofing Technology |
| 49 | Slide 49: Lab Testing: SCMs and Crystalline Waterproofing Technology |
| 50 | Slide 50: Field Testing: Chloride Resistance ‒ Bridge, Milwaukee, WI |
| 51 | Slide 51: Field Testing: Chloride Resistance ‒ Cronulla Marina, Australia |
| 52 | Slide 52 |
| 53 | Slide 53 |
| 54 | Slide 54: Sustainable Aspects of Crystalline Waterproofing |
| 55 | Slide 55: Summary of Sustainable Aspects |
| 56 | Slide 56: Summary of Sustainable Aspects |
| 57 | Slide 57: Potential LEED® Contributions |
| 58 | Slide 58: Potential LEED® Contributions |
| 59 | Slide 59: Applications and Project Examples |
| 60 | Slide 60: Common Applications |
| 61 | Slide 61: Common Applications |
| 62 | Slide 62: Case Study: Clinton Street Sewer Collection Project |
| 63 | Slide 63: Case Study: 102 University Avenue |
| 64 | Slide 64: Case Study: 409 and 499 Illinois St. |
| 65 | Slide 65: Case Study: 409 and 499 Illinois St. |
| 66 | Slide 66: Case Study: Boston CSO Project |
| 67 | Slide 67: Case Study: Boston CSO Project |
| 68 | Slide 68: Case Study: Port Adelaide – Berth and Grain Wharf |
| 69 | Slide 69 |
| 70 | Slide 70 |
| 71 | Slide 71: Resources |
| 72 | Slide 72: Resources |
| 73 | Slide 73: Thank You |
