Composite Design column against fire

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STRUCTURAL ANAL STRUCTURAL ANA ALPINE BURJ CONSULTANC LYSIS AND DESIGN OF COMPOSITE COLUMNS DOCUMENT TITLE: ALYSIS AND DESIGN–COMPOSITE COLUMNS CYDOCUMENT NUMBER: ABCC029-15-01-DC-0 S 001 Rev.0

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composite column design against fire.

Transcript of Composite Design column against fire

  • STRUCTURAL ANALYSIS

    STRUCTURAL ANALYSIS

    ALPINE BURJ CONSULTANCY

    URAL ANALYSIS AND DESIGN OF COMPOSITE COLUMNS

    DOCUMENT TITLE:

    STRUCTURAL ANALYSIS AND DESIGNCOMPOSITE COLUMNS

    ALPINE BURJ CONSULTANCYDOCUMENT NUMBER: ABCC029-15-01-DC-001

    COMPOSITE COLUMNS

    001 Rev.0

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    and may contain confidential and proprietary information. It may not be used for any purpose other than that for which it is supplied. This document may not be wholly or partly disclosed, copied, duplicate

    in any way made use of without prior written approval of Alpine Burj Consultancy.

    Engineering

    approved

    Client

    approved

    Revised by

    VIMAL

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    and may contain confidential and proprietary information. It may not be used for any purpose other than that for which it is supplied. This document may not be wholly or partly disclosed, copied, duplicated

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    TABLE OF CONTENTS

    1.0 INTRODUCTION

    2.0 DESIGN SPECIFICATION

    2.1 Codes and Standards

    2.2 Input Units 2.3 Limit state Design

    2.4 Design Load 2.5 Properties of Composite Columns

    2.6 Fire Design 2.7 Connections Design 2.8 Results and Conclusion

    APPENDIX A: DESIGN OF COLUMNS

    APPENDIX B: COLUMN TO SLAB CONNECTION

    APPENDIX C: COLUMN TO BASE PLATE

    DESIGN SPECIFICATION

    e Columns

    Connections Design 5 Results and Conclusion

    OF COLUMNS

    TO SLAB CONNECTION

    COLUMN TO BASE PLATE CONNECTION

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    4

    4

    4

    4 4

    4 4

    4

    Results and Conclusion 6

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    1.0 INTRODUCTION

    Arabtec Construction LLC awarded composite columns & base plate adhering to standards with regards to structural safety as well as fire

    resistance for Villa code CHM (93) and provided general arrangement drawing

    2.0 DESIGN SPECIFICATION

    2.1 Codes and Standards

    The latest edition of the codes, standards and specification as indicated in Table

    reference and guidance.

    TABLE 2-1 LIST OF APPLICABLE CODES AND

    S/N Abbreviation Title

    1 EN 1994-1-1 Design of

    2 EN 1994-1-2 Design of composite steel and concrete structures: Part

    2.2 Input Units

    The inputs used for carrying out calculation is shown below

    Force: Kilo-Newton(KN) Length: meter (m)

    Stress: MPa (Mega Pascal)

    2.3 Limit State Design

    The composite columns for Villas CHM

    partial safety factors for materials applicable as per EN 1994

    2.4 Design Load

    The following ultimate axial loads have bee

    2.5 Properties of Composite Columns

    COLUMN TUBULAR DIA

    (MM) THICKNESS OF

    C10 CHM 93 220

    C12 CHM 93 220

    C19 DHC 220

    C20 DHC 200

    2.6 Fire Design

    All composite columns have been designed for fire class R60, as per EN 1994been assumed in fire condition and an effective length factor of 0.7 has been considered for effective

    Arabtec Construction LLC awarded Alpine Burj Consultancy FZE to perform analysis and design of base plate adhering to standards with regards to structural safety as well as fire

    93) and DHC (87) of the Sanctuary Falls Project based on rawings and details.

    The latest edition of the codes, standards and specification as indicated in Table 2-1 shall be used for

    ODES AND STANDARDS

    Title

    Design of composite steel and concrete structures: Part

    Design of composite steel and concrete structures: Part

    inputs used for carrying out calculation is shown below

    The composite columns for Villas CHM-93 and DHC have been designed for ultimate axial load with

    partial safety factors for materials applicable as per EN 1994-1-1.

    The following ultimate axial loads have been considered for design of composite column

    COLUMN AXIAL LOAD (KN)

    C10 CHM 93 350

    C12 CHM 93 610

    C19 DHC 400

    C20 DHC 550

    Properties of Composite Columns

    HICKNESS OF TUBULAR (MM) GRADE OF TUBULAR CONCRETE GRADE R

    20 S355 C40

    20 S355 C40

    20 S355 C40

    20 S355 C40

    All composite columns have been designed for fire class R60, as per EN 1994-1-2. Full axial load has been assumed in fire condition and an effective length factor of 0.7 has been considered for effective

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    Alpine Burj Consultancy FZE to perform analysis and design of base plate adhering to standards with regards to structural safety as well as fire

    based on Arabtec

    shall be used for

    composite steel and concrete structures: Part - I

    Design of composite steel and concrete structures: Part - II

    93 and DHC have been designed for ultimate axial load with

    n considered for design of composite column:

    REINFORCEMENT

    4 Y16, B500

    4 Y16, B500

    4 Y16, B500

    4 Y16, B500

    2. Full axial load has been assumed in fire condition and an effective length factor of 0.7 has been considered for effective

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    buckling length of columns.

    2.7 Connections Design

    All composite column to RCC Slab/ RCC footing has been analysed to transfer the axial load through bearing of steel plate on slab or footing. For slab connection

    300x300x20mm plate has been used.

    Appendix B for base plate design. Both manual and FE calculations have been provided.to column connection, the tubular of composite column has been embedded into concrete column

    and embedment length has been calculated

    Maximum Load to be transfered

    Bond stress of conctrete fb 2.375:=

    Diameter of tubular D 200mm:=

    Embedment required to transfer full force

    composite column to RCC Slab/ RCC footing has been analysed to transfer the axial load through bearing of steel plate on slab or footing. For slab connection and footing connections typically

    mm plate has been used. Refer Appendix C and Appendix D for calculations.

    Both manual and FE calculations have been provided.to column connection, the tubular of composite column has been embedded into concrete column

    and embedment length has been calculated as below:

    P 610kN:=

    2.375MPa Assumed for plain steel in compression

    mm

    Embedment required to transfer full force leP

    pi D fb408.777 mm=:=

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    composite column to RCC Slab/ RCC footing has been analysed to transfer the axial load through typically

    for calculations. Refer

    Both manual and FE calculations have been provided. For column to column connection, the tubular of composite column has been embedded into concrete column

    Assumed for plain steel in compression

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    2.8 Results &Conclusion

    All composite columns are safe to carry the intended loading for both ambient and fire situations. All connections are safe to carry the intended ultimate axial load.

    All composite columns are safe to carry the intended loading for both ambient and fire situations. All connections are safe to carry the intended ultimate axial load.

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    All composite columns are safe to carry the intended loading for both ambient and fire situations. All

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    3.0 APPENDIX A: APPENDIX A: DESIGN OF COLUMNS

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    4.0 APPENDIX B: DESIGNAPPENDIX B: DESIGN OF BASE PLATE

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    5.0 APPENDIX APPENDIX C: COLUMN TO SLAB CONNECTION

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    Figure 1: Loading Diagram for 6.78 N/mm

    Figure

    : Loading Diagram for 6.78 N/mm2 Pressure on Supporting Plate

    Figure 2: Plate Von Mises Stress (MPa)

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    6.0 APPENDIX APPENDIX D: COLUMN TO BASE PLATE CONNECTION

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    Figure 3: Loading Diagram for 4.44 N/mm

    Figure

    : Loading Diagram for 4.44 N/mm2 Pressure on Supporting Plate

    Figure 4: Plate Von Mises Stress (MPa)

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