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Preface | |
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Using This Guide | |
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Acknowledgements | |
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Choosing the Components | |
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Decisions that Affect the Exterior Wall | |
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Introduction to the Building Enclosure | |
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Decisions Affecting Aesthetics, Function, Durability, and the Budget | |
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Climate and the Exterior Wall | |
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Function of the Exterior Wall | |
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Cladding Systems | |
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"Whole Wall" Design | |
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Selecting and Positioning the Barriers and Retarders | |
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Water Barriers and Flashing | |
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Managing Water | |
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Selecting the Right System | |
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Water Barriers and Their Placement | |
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Installation | |
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Flashings | |
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Testing and Measuring Water Leakage | |
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Quick Notes: Water Ingress | |
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Air Barrier Systems, Vapor Retarders, and Insulation | |
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Stopping Air and Controlling Thermal and Vapor Transfer | |
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Air Movement: Loss of Conditioned and Vapor Laden Air | |
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Stopping Air Movement | |
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The Difference Between an Air Barrier and a Vapor Retarder | |
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Air Barrier Systems and Their Placement | |
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Installation of Air Barrier Systems | |
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Testing And Measuring Air Leakage | |
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Quick Notes: Air Movement | |
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Vapor Transmission By Diffusion | |
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Vapor Retarders and Their Placement | |
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Vapor Management | |
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Testing and Measuring Vapor Diffusion | |
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Quick Notes: Vapor Transfer | |
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Heat Transfer By Conduction And Radiation | |
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Thermal Transfer | |
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Insulating Materials and Their Placement | |
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Where and When to Measure Thermal Resistance | |
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Installation of Insulation | |
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Reflective Surfaces and Glass | |
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Testing and Measuring Heat in a Wall | |
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Quick Notes: Thermal Transfer | |
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Joints | |
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Structural Forces and Differential Movement | |
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Expansion and Control Joints | |
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Joint Design | |
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Joint Components | |
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Installation of Liquid Sealants | |
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Maintenance | |
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Testing Sealants | |
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Quick Notes: Sealant Joints | |
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Detailing for Durability | |
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Curtain Walls | |
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The Development of Curtain Walls | |
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Aluminum Glass Curtain Wall | |
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Aluminum Frames | |
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Glass Types | |
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Energy Concerns | |
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Glass Failures | |
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Stone and Metal Panel Curtain Walls | |
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Types of Metal and Finishes | |
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Specifying Metal Panel | |
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Thin Stone Panels | |
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Type of Stone | |
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Specifying Stone Panels | |
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Stone Failure | |
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Fastening Systems for Stone Panels | |
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Designing Curtain Walls with Glass, Metal, and Stone Panels | |
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Design Team | |
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Structural Engineers and Curtain Wall Consultants | |
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Keeping Out Water and Air | |
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Maintenance | |
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Case Study: Metal/Glass Custom Curtain Wall with Stone Veneer | |
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Precast Concrete Panels | |
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How to Stay Out of Trouble When Designing Curtain Walls | |
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Staying on Budget | |
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System Failures | |
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References | |
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Anchored Brick Veneer on a Mid-Rise Concrete Frame Building | |
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Brick Veneer | |
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Wall Type A: Brick Veneer Anchored To Steel-Stud Backup Walls (ABV/SS) on a Concrete Frame | |
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Environment | |
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Avoiding Saturated Masonry | |
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Using Caution in Other Environments | |
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Is ABV/SS Risky Business? | |
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Reducing Risk | |
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Reducing Corrosion | |
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Choosing reliable fasteners | |
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Reducing Crack | |
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Using the Team Approach | |
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Repelling Water | |
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The Four Layer Defense | |
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Horizontal and Inclined Surfaces | |
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Using Pressure Equalization Carefully | |
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Accommodating Differential Movement with Expansion Joints | |
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Using Vertical Expansion Joints to Accommodate Horizontal Expansion of ABV Panel | |
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Using Vertical Expansion Joints At Corners to Accommodate Story Drift | |
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Using Horizontal Expansion Joints to Accommodate Vertical Expansion of ABV Panels and Shortening of the Building Frame | |
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How to Stay Out of Trouble when Designing Expansion Joints | |
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Designing Parapet Veneer Panels: A Special Case | |
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Minimizing the Size of ABV Panels on Parapet walls | |
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Designing Copings to Protect ABV | |
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Supplemental Information On ABV/SS Components | |
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Supporting Windows, Doors, and Cantilevered Items | |
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Using Clear Coatings Sparingly | |
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Specifying Brick Units | |
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Horizontal Joint Reinforcing | |
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Using only Two-Piece Adjustable Veneer Anchors | |
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Shelf Angles, Loose Lintels, and Floor Slabs That Support ABV Panels | |
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Struggling with Shelf Angle and Loose Lintel Flashing | |
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Exterior Sheathing on Steel Stud Backup Walls | |
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ABV Details | |
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Case Study: ABV Recladding Project | |
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Other Systems | |
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References: Brick Veneer | |
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Exterior Insulation Finish System (EIFS) and Concrete Masonry Walls | |
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Concrete Masonry Walls | |
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Stopping Water and Air Ingress and Thermal Transfer | |
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Environmental Considerations | |
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Single Wythe Concrete Masonry: Face Sealed Barrier Wall | |
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Exterior Insulation Finish System (EIFS) | |
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Life Expectancy of EIFS | |
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Wall Type B: EIFS with Internal Drainage Plane on Concrete Masonry Wall | |
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EIFS Design | |
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EIFS Installation | |
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Attaching the Insulation | |
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Applying the Base Coat with Reinforcing Mesh | |
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Joints and Reveals | |
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Finish Coat | |
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Critical Inspection Points | |
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Maintenance | |
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Concerns with EIFS | |
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Details: EIFS | |
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EIFS over Light-Gauge Steel or Wood Studs | |
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Case Study: Prefabricated-EIFS Panels On High-Rise Building | |
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Case Study: Open-Joint Calcium Silicate Panels on Concrete Masonry | |
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References | |
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Wood Frame Construction, Stucco, and Fiber-Cement Siding | |
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Wood Frame Construction | |
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Stucco | |
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Wall Type C: Three-Coat Stucco with Internal Drainage Plane on Wood Frame Wall | |
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Stucco Design | |
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Stucco Application | |
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Stucco Accessories and Lath | |
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Three Coat Stucco | |
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Climate | |
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Maintenance | |
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Concerns with Stucco | |
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Details: Stucco | |
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Fiber-Cement Cladding | |
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Drainage Cavity with Sidings | |
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Wall Type D: Fiber-Cement Board Siding with Drainage Cavity on Wood Frame Wall | |
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Fiber-Cement Siding Design | |
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Fiber-Cement Siding Installation | |
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Maintenance | |
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Concerns with Fiber-Cement Claddings | |
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Details: Fiber-Cement Siding | |
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Case Study: MDO Plywood Panels and Cedar Siding | |
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References | |
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Advancing the Envelope | |
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Terra Cotta, EIFS, Stone, and Brick: Are They Durable? | |
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Truth in Materials | |
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The Great Imposters: Terra Cotta and EIFS | |
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Terra Cotta | |
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Exterior Insulation Finish Systems (EIFS) | |
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Lessons Learned from Terra Cotta and EIFS Failures | |
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The Future of Terra Cotta Claddings | |
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The Future of EIFS | |
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Aesthetics and Durability, Can You Have Both With Carrara Marble? | |
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Carrara Marble | |
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Failures of the Amoco Building and Finlandia Hall | |
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How Did This Happen? | |
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Mount Airy Granite for the Amoco Building | |
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Carrara Marble for FInlandia Hall | |
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Advancing the Envelope | |
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Build It Right The First Time or Repair It Quickly: Brick Veneer | |
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College Dormitory | |
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Concert Hall | |
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Conclusion | |
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Architect''s Design Kit: Form, Surface, and Color; Thick and Thin Walls | |
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The Exterior Wall | |
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Aesthetic Kit: Form, Surface, and Color | |
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Westin New York at Times Square | |
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Curtain Wall Design: A Global Proposition | |
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1000 Permutations of Glass | |
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Installation | |
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Experience Music Project, Seattle | |
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The Swoopy Form | |
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The Digital Skin | |
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Comparisons: Mondrian Planes and Swoopy Forms | |
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Functional Kit: Thick and Thin Walls | |
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Vitra Conference Pavilion: Thicker Walls in Germany | |
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San Francisco Museum of Modern Art | |
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The Brick Ruse | |
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Lightweight Thin Brick Panels | |
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Reducing Construction Costs on SFMOMA | |
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Thin Brick in Precast Concrete Panels | |
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Are Two Walls Better than One? | |
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Seattle Justice Center | |
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Wood Frame Construction: Designing for the Climate and the Future | |
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Durability-the Kingpin of Sustainability | |
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Innovation in Wood Framed Walls | |
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Architects and the Wood Framed Wall | |
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Leaky Condos | |
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Vancouver, British Columbia: "The Look that Didn''t Last" | |
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Positive Changes | |
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Not Only a West Coast Problem | |
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Seattle: "When It Rains, It Pours In" | |
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Tackling the Problems in Seattle | |
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What Can Be Learned from the Leaky Co | |