Cold- Formed Load Bearing Steel Systems and Masonry Veneer/Steel Stud
Walls Chapter 1. IntoductionDesign Concerns Unique to Cold-Forming Figure 1.1. Design Process for Loadbearing Cold- Formed Steel SystemsUses of Cold- Formed Steel.ManufacturersMaterials - ufc_3_310_07a0021Table 1-1: Standard Minimum Delivered Uncoated Metal ThicknessDamaged Materials.Table 1-2: Fire Rated AssembliesChapter 2. Cold- Formed Steel DesignCold-Formed Steel FramingFigure 2-1 Typical Cold-Formed Section SymmetriesTable 2-2. AISI Approved Steels (Section A3.1)Design Of Structural Elements Element Slenderness.Members.Wall Studs and Wall Stud Assemblies.Serviceability Deflection LimitsTable 2-3: Pipe Openings: Maximum Pipe Opening and Web ReinforcementFloor VibrationsFasteners and ConnectionsTable 2-5: Suggested Design Loads for Fillet and Flare-Bevel Groove WeldsTable 2-7: Suggested Capacity for Powder Driven Fasteners in ConcreteUseful Relevant InformationChapter 3. Seismic Design Guidance for Shear Walls ( Diagonal Strap Systems)Figure 3-1. Flowchart for Cold-Formed Steel Shear Panel Seismic Design.Table 3-1. Design Coefficients and Factors for Basis Seismic- Force Resisting SystemsTorsionCold Formed Steel Seismic RequirementsDiagonal Strap Design. Column Bending Load and Composite BehaviorColumn Combined Axial and Moment Capacity.Connection DesignScrewed Fastener Connection DesignWelded Connection Design.Panel AnchorsTable 3-3. Maximum Column-to-Anchor Weld Thickness.7Anchor Angle and Plate Design Anchor Bolt Design. Anchor Bolt Design. - ContinuedChapter 4. Masonry Veneer/s Steel Stud Walls ( Non Bearing Construction )Steel Studs and Framing.Sheathing. Wall Systems Design RequirementsWall Systems Design Requirements - ContinuedVeneer Anchors. WorkmanshipDesign Example - ufc_3_310_07a0063Summary - ufc_3_310_07a0064Appendix B. Cold- Formed Steel Test Panel DrawingsFigure B-1: Prototype 3 Story BarracksFigure B-2: Shear Wall Test Panel A1Figure B-3: Shear Wall Test Panel A2Figure B-4: Shear Wall Test Panel D1Appendix C: FEMA 302 and Other Standards Guidance For Cold-Formed Steel Seismic Design Table C-2b Values of Fv as a Function of Site Class and Mapped 1 SecondTable C-3a Seismic Design Category Based on Short Period Response AccelerationsLoad CombinationsLoad Combinations - ContinuedEquivalent Lateral Force Procedure.Table C-4 Coefficient for Upper Limit on Calculated PeriodStructural Overturning Resistance Diagonal Strap Design.Column Axial Capacity.Column Shear Capacity.Connection Shear and Pull Over .Anchor Flare Bevel Grove Weld Design.Anchor Bolt Cone Failure Anchor Bolt Cone Failure - ContinuedAppendix D. Seismic Design Example Barracks Building Load Calculations Table D-2. Barracks Building Weight Calculations.Short-Direction Earthquake Force Definition Table D-3. Short-Direction Lateral Seismic Force Calculations for the Barracks Building.Long-Direction Earthquake Force Definition Table D-4. Long Direction Lateral Seismic Force Calculations for the Barracks BuildingTable D-5. Diagonal Strap Design In the Short DirectionTable D-6. Gravity Load CalculationsTable D-8. Column Design for Cold-Formed Steel Shear Panels Barracks Example.7Table D10. Column Intermittent Weld Design, and Combined Axial and Moment Capacity.Table D-12. Screwed Connection Design Design Rupture Strength Between Fasteners. Table D-13. Screwed Connection Rupture Strength and Welded Connection Design.Table D-14. Shear Panel Anchor Angle and Plate Design.Table D-16. Anchor Moment and Anchor Bolt Shear Design.Table D-17. Anchor Bolt Tensile and Cone Failure Design.Figure D-1. Design response spectrum for Fort Lewis, Washington barracks building.Figure D-3. Barracks building short direction elevation and plan views.Figure D-4. Example connection/anchorage detail 1st Figure D-5. Example connection/anchorage detailFigure D-6. Example connection/anchorage detail 3rd row of Tables D-5Figure D-7. Example Connection/Anchorage Detail Figure D-8. Example connection/anchorage detail 5th row of Tables D-5Figure D-9. Example connection/anchorage detail - 6th row of Tables D-5Appendix E. Prototype Shear Panels for Cold- Formed Steel Seismic Design Appendix F: Seismic Qualification Procedure and Acceptance Criteria For Other Shear Panel Configurations Figurer 1-1. Schematic Drawing Showing Sensor LocationsTable F- 2. Cold Formed Steel Shear Panel InstrumentationTable F-3.Cyclic Test Load Protocol.Shear Panel Performance Documentation Table F-6. Values for R, 0 and Cd.Appendic G: Mansory Veneer/Steel Stud WallsFigure G-1. Wire AnchorsFigure G-2. Wire Anchor, DetailsFigure G-3. Wire Anchor with Continuous Brick Joint ReinforcementFigure G-4. Pintle AnchorFigure G-5. Typical Brick Veneer and Steel Stud Panel WallFigure G-6. Adjustable Wall Anchor DetailFigure G-7. Masonry Veneer Steel Stud Panel Wall, Plan ViewFigure G-8. Masonry Veneer Steel Stud Panel Wall, Foundation Wall SectionFigure G-9. Masonry Veneer Steel Stud Panel Wall, Structural Steel SectionFigure G-10. Masonry Veneer Steel Stud Panel Wall, Reinforced Concrete SectionFigure G-11. Masonry Veneer Steel Stud Panel Wall, Steel Joist SectionFigure G-12. Slip Joint Details, Typical Single TrackFigure G-13. Slip Joint Details, Typical Double TrackFigure G-14. Slip Joint Details, Parapet Slide ClipFigure G-15. Bottom Connection, Track Anchored to ConcreteFigure G-16. Expansion Joints, Brick or CMU Veneer JointAppendix H: Metric Coversion Data Sheet Appendix I: Standard Drawings Cold-Formed Steel Schematic Plans Details At Extirrior Walls Details At Extirrior Walls - ContinuedInterrior Framming Details Roof ConnectionsFloor and Wall Openings Special Reinforcement Special Reinforcement - Continued - ufc_3_310_07a0147Special Reinforcement - Continued - ufc_3_310_07a0148