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Position: Chinese Standard in English/JGJ 138-2016
JGJ 138-2016   Design Specifications for Composite Structure (English Version)
Standard No.: JGJ 138-2016 Status:valid remind me the status change

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Language:English File Format:PDF
Word Count: 50000 words Price(USD):900.0 remind me the price change

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Standard No.: JGJ 138-2016
English Name: Design Specifications for Composite Structure
Chinese Name: 组合结构设计规范
Professional Classification: JG    Professional Standard - Building
Issued by: AQSIQ, MOHRUD
Issued on: 2016-06-14
Implemented on: 2016-12-1
Status: valid
Superseding:JGJ 138-2001 Technical specification for steel reinforced concrete composnte structures
Language: English
File Format: PDF
Word Count: 50000 words
Price(USD): 900.0
Delivery: via email in 1 business day
1 General Provisions 1.0.1 This code is prepared with a view to applying the steel and concrete composite structure in construction engineering appropriately and attaining safety and usability, technical advancement, economic rationality and construction convenience. 1.0.2 This code is applicable to the design of steel and concrete composite structures for tall buildings, multi-storey buildings and general buildings in non-seismic region and seismic region with seismic fortification intensity of 6 to 9. 1.0.3 In addition to the requirements stipulated in this code, the design of composite structure shall comply with those stipulated in the current relevant standards of the nation. 2 Terms and Symbols 2.1 Terms 2.1.1 composite structure members the structural members formed by the composite of steel, steel tube or steel plate with reinforced concrete and capable of bearing force as a whole 2.1.2 composite structures structures composed of composite structure members and structures composed of composite structure members, steel members and reinforced concrete members 2.1.3 steel reinforced concrete frame beams frame beams configured with steel in their reinforced concrete sections 2.1.4 steel reinforced concrete transfer beams steel reinforced concrete beams supporting wall or column of the upper storey and realizing the structure form change or structure arrangement change from the upper storey to the lower storey; the transfer beam of partial frame-supported shear wall structures is also known as frame-supported beam 2.1.5 steel reinforced concrete frame columns frame columns configured with steel in their reinforced concrete sections 2.1.6 concrete-filled rectangular steel tube frame columns frame columns bearing force by steel tubes and concrete jointly after filling concrete in rectangle steel tubes 2.1.7 concrete-filled circular steel tube frame columns frame columns bearing force by steel tubes and concrete jointly after filling concrete in circular steel tubes 2.1.8 transfer columns columns supporting wall or column of the upper storey and realizing the structure form change or structure arrangement change from the upper storey to the lower storey 2.1.9 steel concrete composite shear walls shear walls configured with solid-web steel in the edge member of reinforced concrete shear wall 2.1.10 steel plate concrete composite shear walls shear walls configured with steel plate in reinforced concrete section and around reinforced concrete ... ... ... ... 3 Materials 3.1 Steel 3.1.1 For the steels in composite structure members, Q345, Q390 and Q420 high strength low alloy structural steels and Q235 carbon structural steel, with quality grade of Grade B or higher, should be adopted and shall meet the requirements of the current national standards GB/T 1591 High Strength Low Alloy Structural Steels and GB/T 700 Carbon Structural Steels respectively. Where thicker steel plates are adopted, steel plates of various designations complying with the relevant requirements of the current national standard GB/T 19879 Steel Plates for Building Structure may be adopted and their quality grade should not be lower than Grade B. Where steels of other designations are adopted, they shall also meet those specified in the current relevant standards of the nation. 3.1.2 Steels shall be provided with qualification guarantees on yield strength, tensile strength, elongation, impact toughness and sulfur and phosphorus content; for welded structure, the qualification guarantees on carbon content and cold bend test shall also be provided. 3.1.3 Killed steel should be adopted. 3.1.4 For steel plate, its thickness shall be greater than or equal to 40mm and it shall bear the welding connection plate along the plate thickness direction; the cross section reduction ratio in steel plate thickness direction shall not be less than the permissible value of Grade Z15 specified in the current national standard GB/T 5313 Steel Plate with Through-thickness Characteristics. ... 3 Materials 3.1 Steel 3.1.1 For the steels in composite structure members, Q345, Q390 and Q420 high strength low alloy structural steels and Q235 carbon structural steel, with quality grade of Grade B or higher, should be adopted and shall meet the requirements of the current national standards GB/T 1591 High Strength Low Alloy Structural Steels and GB/T 700 Carbon Structural Steels respectively. Where thicker steel plates are adopted, steel plates of various designations complying with the relevant requirements of the current national standard GB/T 19879 Steel Plates for Building Structure may be adopted and their quality grade should not be lower than Grade B. Where steels of other designations are adopted, they shall also meet those specified in the current relevant standards of the nation. 3.1.2 Steels shall be provided with qualification guarantees on yield strength, tensile strength, elongation, impact toughness and sulfur and phosphorus content; for welded structure, the qualification guarantees on carbon content and cold bend test shall also be provided. 3.1.3 Killed steel should be adopted. 3.1.4 For steel plate, its thickness shall be greater than or equal to 40mm and it shall bear the welding connection plate along the plate thickness direction; the cross section reduction ratio in steel plate thickness direction shall not be less than the permissible value of Grade Z15 specified in the current national standard GB/T 5313 Steel Plate with Through-thickness Characteristics. 3.1.5 The steels of composite structure members for which the seismic action shall be considered shall meet those specified in Article 3.9.2 of GB 50011-2010 Code for Seismic Design of Buildings.
1 General Provisions 2 Terms and Symbols 2.1 Terms 2.2 Symbols 3 Materials 3.1 Steel 3.2 Reinforcement 3.3 Concrete 4 Basic Requirements of Structural Design 4.1 General Requirements 4.2 Structure System and Configurations 4.3 Design and Calculation Principle 4.4 General Detailing 5 Steel Reinforced Concrete Frame Beams and Transfer Beams 5.1 General Requirements 5.2 Bearing Capacity Calculation 5.3 Crack Width Checking 5.4 Deflection Checking 5.5 Detailing Requirements 6 Steel Reinforced Concrete Frame Columns and Transfer Columns 6.1 General Requirements 6.2 Bearing Capacity Calculation 6.3 Crack Width Checking 6.4 Detailing Requirements 6.5 Column Base Design and Detailings 6.6 Beam-column Joint Calculation and Detailings 7 Concrete-filled Rectangular Steel Tube Frame Columns and Transfer Columns 7.1 General Requirements 7.2 Bearing Capacity Calculation 7.3 Detailing Requirements 7.4 Column Base Design and Detailings 7.5 Beam-column Joint Calculation and Detailings 8 Concrete-filled Circular Steel Tube Frame Columns and Transfer Columns 8.1 General Requirements 8.2 Bearing Capacity Calculation 8.3 Detailing Requirements 8.4 Column Base Design and Detailings 8.5 Beam-column Joints Types and Detailings 9 Steel Concrete Composite Shear Walls 9.1 Bearing Capacity Calculation 9.2 Detailing Requirements 10 Steel Plate Concrete Composite Shear Walls 10.1 Bearing Capacity Calculation 10.2 Detailing Requirements 11 Steel Concealed Bracing Concrete Composite Shear Walls 11.1 Bearing Capacity Calculation 11.2 Detailing Requirements 12 Steel and Concrete Composite Beams 12.1 General Requirements 12.2 Bearing Capacity Calculation 12.3 Calculation of Deflection and Crack Width at Hogging Moment Zone 12.4 Detailing Requirements 13 Composite Slab 13.1 General Requirements 13.2 Bearing Capacity Calculation 13.3 Checking at Serviceability Limit State 13.4 Detailing Requirements 13.5 Construction Phase Checking and Requirements 14 Detailing of Connections 14.1 Detailing of Connections of Steel Reinforced Concrete Column 14.2 Detailing of Connections of Concrete-filled Rectangular Steel Tube Column 14.3 Detailing of Connections of Concrete-filled Circular Steel Tube Column 14.4 Beam-beam Connections 14.5 Beam-wall Connections 14.6 Brace-column-beam Connections 14.7 Detailings of Shear Connector 14.8 Detailing of Connections between Reinforcement and Steel Member Annex A Shear and Bond Factors and Standard Test Method for Common Composite Slab with Profiled Steel Plates Annex B Composite Floor Comfort Checking Explanation of Wording in This Code List of Quoted Standards
Referred in JGJ 138-2016:
*GB 50009-2012 Load Code for the Design of Building Structures
*GB 50010-2010(2015) Code for design of concrete structures
*GB 50011-2010(2016) Code for Seismic Design of Buildings (2016)
*GB 50017-2017 Code for design of steel structures
*GB 50018-2002 Technical Code of Cold-formed Thin-wall Steel Structures
*GB 50205-2020 Standard for acceptance of construction quality of steel structures
*GB 50661-2011 Code for welding of steel structures
*GB/T 700-2006 Carbon structural steels
*GB/T 985.1-2008 Recommended Joint Preparation for Gas Welding, Manual Metal Arc
*GB/T 985.2-2008 Recommended Joint Preparation for Submerged Arc Welding
*GB/T 1228-2006 High Strength Bolts with Large Hexagon Head for Steel Structures
*GB/T 1229-2006 High Strength Large Hexagon Nuts for Steel Structures
*GB/T 1230-2006 High Strength Plain Washers for Steel Structures
*GB/T 1231-2006 Specifications of High Strength Bolts with Large Hexagon Head, Lar
*GB/T 1591-2018 High strength low alloy structural steels
*GB/T 2518-2019 Continuously hot-dip zinc and zinc alloy coated steel sheet and strip
*GB/T 3632-2008 Sets of torshear type high strength bolt hexagon nut and plain washer for steel structures
*GB/T 5117-2012 Covered electrodes for manual metal arc welding of non-alloy and fine grain steels
*GB/T 5118-2012 Covered electrodes for manual metal arc welding of creep-resisting steels
*GB/T 5293-2018 Solid wire electrodes,tubular cored electrodes and electrode/flux combinations for submerged arc welding of non alloy and fine grain steels
*GB/T 5313-2010 Steel plates with through-thickness characteristics
*GB/T 5780-2016 Hexagon Head Bolts – Product Grade C
*GB/T 5782-2016 Hexagon head bolts
*GB/T 8110-2020 Wire electrodes and weld deposits for gas shielded metal arc welding of non alloy and fine grain steels
*GB/T 10433-2002 Cheese head studs for arc stud welding
*GB/T 12470-2018 Solid wire electrodes, tubular cored electrodes and electrode/flux combinations for submerged arc welding of creep-resisting steels
*GB/T 12755-2008 Profiled steel sheet for building
*GB/T 19879-2015 Steel plates for building structure
*JGJ 3-2010 Technical Specification for Concrete Structures of Tall Building
*JGJ 99-2015 Technical Specification for Steel Structure of Tall Building
*JGJ 107-2016 Technical specification for mechanical splicing of steel reinforcing bars
*JG/T 163-2013 Couplers for rebar mechanical splicing
JGJ 138-2016 is referred in:
* JGJ 3-2010 Technical Specification for Concrete Structures of Tall Building
*DBJ/T 15-81-2011 Code for fire resistance design of concrete structures in buildings
*DBJ 15-92-2013 Technical specification for concrete strutures of tall building
*JGJ 369-2016 Code for Design of Prestressed Concrete Structures
Code of China
Standard
JGJ 138-2016  Design Specifications for Composite Structure (English Version)
Standard No.JGJ 138-2016
Statusvalid
LanguageEnglish
File FormatPDF
Word Count50000 words
Price(USD)900.0
Implemented on2016-12-1
Deliveryvia email in 1 business day
Detail of JGJ 138-2016
Standard No.
JGJ 138-2016
English Name
Design Specifications for Composite Structure
Chinese Name
组合结构设计规范
Chinese Classification
Professional Classification
JG
ICS Classification
Issued by
AQSIQ, MOHRUD
Issued on
2016-06-14
Implemented on
2016-12-1
Status
valid
Superseded by
Superseded on
Abolished on
Superseding
JGJ 138-2001 Technical specification for steel reinforced concrete composnte structures
Language
English
File Format
PDF
Word Count
50000 words
Price(USD)
900.0
Keywords
JGJ 138-2016, JGJ/T 138-2016, JGJT 138-2016, JGJ138-2016, JGJ 138, JGJ138, JGJ/T138-2016, JGJ/T 138, JGJ/T138, JGJT138-2016, JGJT 138, JGJT138
Introduction of JGJ 138-2016
1 General Provisions 1.0.1 This code is prepared with a view to applying the steel and concrete composite structure in construction engineering appropriately and attaining safety and usability, technical advancement, economic rationality and construction convenience. 1.0.2 This code is applicable to the design of steel and concrete composite structures for tall buildings, multi-storey buildings and general buildings in non-seismic region and seismic region with seismic fortification intensity of 6 to 9. 1.0.3 In addition to the requirements stipulated in this code, the design of composite structure shall comply with those stipulated in the current relevant standards of the nation. 2 Terms and Symbols 2.1 Terms 2.1.1 composite structure members the structural members formed by the composite of steel, steel tube or steel plate with reinforced concrete and capable of bearing force as a whole 2.1.2 composite structures structures composed of composite structure members and structures composed of composite structure members, steel members and reinforced concrete members 2.1.3 steel reinforced concrete frame beams frame beams configured with steel in their reinforced concrete sections 2.1.4 steel reinforced concrete transfer beams steel reinforced concrete beams supporting wall or column of the upper storey and realizing the structure form change or structure arrangement change from the upper storey to the lower storey; the transfer beam of partial frame-supported shear wall structures is also known as frame-supported beam 2.1.5 steel reinforced concrete frame columns frame columns configured with steel in their reinforced concrete sections 2.1.6 concrete-filled rectangular steel tube frame columns frame columns bearing force by steel tubes and concrete jointly after filling concrete in rectangle steel tubes 2.1.7 concrete-filled circular steel tube frame columns frame columns bearing force by steel tubes and concrete jointly after filling concrete in circular steel tubes 2.1.8 transfer columns columns supporting wall or column of the upper storey and realizing the structure form change or structure arrangement change from the upper storey to the lower storey 2.1.9 steel concrete composite shear walls shear walls configured with solid-web steel in the edge member of reinforced concrete shear wall 2.1.10 steel plate concrete composite shear walls shear walls configured with steel plate in reinforced concrete section and around reinforced concrete ... ... ... ... 3 Materials 3.1 Steel 3.1.1 For the steels in composite structure members, Q345, Q390 and Q420 high strength low alloy structural steels and Q235 carbon structural steel, with quality grade of Grade B or higher, should be adopted and shall meet the requirements of the current national standards GB/T 1591 High Strength Low Alloy Structural Steels and GB/T 700 Carbon Structural Steels respectively. Where thicker steel plates are adopted, steel plates of various designations complying with the relevant requirements of the current national standard GB/T 19879 Steel Plates for Building Structure may be adopted and their quality grade should not be lower than Grade B. Where steels of other designations are adopted, they shall also meet those specified in the current relevant standards of the nation. 3.1.2 Steels shall be provided with qualification guarantees on yield strength, tensile strength, elongation, impact toughness and sulfur and phosphorus content; for welded structure, the qualification guarantees on carbon content and cold bend test shall also be provided. 3.1.3 Killed steel should be adopted. 3.1.4 For steel plate, its thickness shall be greater than or equal to 40mm and it shall bear the welding connection plate along the plate thickness direction; the cross section reduction ratio in steel plate thickness direction shall not be less than the permissible value of Grade Z15 specified in the current national standard GB/T 5313 Steel Plate with Through-thickness Characteristics. ... 3 Materials 3.1 Steel 3.1.1 For the steels in composite structure members, Q345, Q390 and Q420 high strength low alloy structural steels and Q235 carbon structural steel, with quality grade of Grade B or higher, should be adopted and shall meet the requirements of the current national standards GB/T 1591 High Strength Low Alloy Structural Steels and GB/T 700 Carbon Structural Steels respectively. Where thicker steel plates are adopted, steel plates of various designations complying with the relevant requirements of the current national standard GB/T 19879 Steel Plates for Building Structure may be adopted and their quality grade should not be lower than Grade B. Where steels of other designations are adopted, they shall also meet those specified in the current relevant standards of the nation. 3.1.2 Steels shall be provided with qualification guarantees on yield strength, tensile strength, elongation, impact toughness and sulfur and phosphorus content; for welded structure, the qualification guarantees on carbon content and cold bend test shall also be provided. 3.1.3 Killed steel should be adopted. 3.1.4 For steel plate, its thickness shall be greater than or equal to 40mm and it shall bear the welding connection plate along the plate thickness direction; the cross section reduction ratio in steel plate thickness direction shall not be less than the permissible value of Grade Z15 specified in the current national standard GB/T 5313 Steel Plate with Through-thickness Characteristics. 3.1.5 The steels of composite structure members for which the seismic action shall be considered shall meet those specified in Article 3.9.2 of GB 50011-2010 Code for Seismic Design of Buildings.
Contents of JGJ 138-2016
1 General Provisions 2 Terms and Symbols 2.1 Terms 2.2 Symbols 3 Materials 3.1 Steel 3.2 Reinforcement 3.3 Concrete 4 Basic Requirements of Structural Design 4.1 General Requirements 4.2 Structure System and Configurations 4.3 Design and Calculation Principle 4.4 General Detailing 5 Steel Reinforced Concrete Frame Beams and Transfer Beams 5.1 General Requirements 5.2 Bearing Capacity Calculation 5.3 Crack Width Checking 5.4 Deflection Checking 5.5 Detailing Requirements 6 Steel Reinforced Concrete Frame Columns and Transfer Columns 6.1 General Requirements 6.2 Bearing Capacity Calculation 6.3 Crack Width Checking 6.4 Detailing Requirements 6.5 Column Base Design and Detailings 6.6 Beam-column Joint Calculation and Detailings 7 Concrete-filled Rectangular Steel Tube Frame Columns and Transfer Columns 7.1 General Requirements 7.2 Bearing Capacity Calculation 7.3 Detailing Requirements 7.4 Column Base Design and Detailings 7.5 Beam-column Joint Calculation and Detailings 8 Concrete-filled Circular Steel Tube Frame Columns and Transfer Columns 8.1 General Requirements 8.2 Bearing Capacity Calculation 8.3 Detailing Requirements 8.4 Column Base Design and Detailings 8.5 Beam-column Joints Types and Detailings 9 Steel Concrete Composite Shear Walls 9.1 Bearing Capacity Calculation 9.2 Detailing Requirements 10 Steel Plate Concrete Composite Shear Walls 10.1 Bearing Capacity Calculation 10.2 Detailing Requirements 11 Steel Concealed Bracing Concrete Composite Shear Walls 11.1 Bearing Capacity Calculation 11.2 Detailing Requirements 12 Steel and Concrete Composite Beams 12.1 General Requirements 12.2 Bearing Capacity Calculation 12.3 Calculation of Deflection and Crack Width at Hogging Moment Zone 12.4 Detailing Requirements 13 Composite Slab 13.1 General Requirements 13.2 Bearing Capacity Calculation 13.3 Checking at Serviceability Limit State 13.4 Detailing Requirements 13.5 Construction Phase Checking and Requirements 14 Detailing of Connections 14.1 Detailing of Connections of Steel Reinforced Concrete Column 14.2 Detailing of Connections of Concrete-filled Rectangular Steel Tube Column 14.3 Detailing of Connections of Concrete-filled Circular Steel Tube Column 14.4 Beam-beam Connections 14.5 Beam-wall Connections 14.6 Brace-column-beam Connections 14.7 Detailings of Shear Connector 14.8 Detailing of Connections between Reinforcement and Steel Member Annex A Shear and Bond Factors and Standard Test Method for Common Composite Slab with Profiled Steel Plates Annex B Composite Floor Comfort Checking Explanation of Wording in This Code List of Quoted Standards
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Keywords:
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