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Position: Chinese Standard in English/GB 51156-2015
GB 51156-2015   Code for design of liquefied natural gas receiving terminal (English Version)
Standard No.: GB 51156-2015 Status:valid remind me the status change

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Language:English File Format:PDF
Word Count: 39000 words Price(USD):600.0 remind me the price change

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Implemented on:2016-6-1 Delivery: via email in 1 business day
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Standard No.: GB 51156-2015
English Name: Code for design of liquefied natural gas receiving terminal
Chinese Name: 液化天然气接收站工程设计规范
Professional Classification: GB    National Standard
Issued by: MOHURD
Issued on: 2015-11-12
Implemented on: 2016-6-1
Status: valid
Language: English
File Format: PDF
Word Count: 39000 words
Price(USD): 600.0
Delivery: via email in 1 business day
1 General provisions 1.0.1 This code is formulated with a view to ensuring the design quality of liquefied natural gas receiving terminals, improving the design level, and achieving advanced technology, economic rationality, safety and reliability, and energy conservation & environmental protection. 1.0.2 This code is applicable to the design of constructed, extended and renovated onshore liquefied natural gas receiving terminals. 1.0.3 In addition to this code, the design of the liquefied natural gas receiving terminals shall also meet the requirements of the current relevant standards of the nation.   2 Terms 2.0.1 liquefied natural gas (LNG) a colorless fluid in liquid state that is mainly composed of methane and may contain small amounts of ethane, propane, butane, nitrogen, or other components normally found in natural gas 2.0.2 liquefied natural gas receiving terminal terminal that receives, stores, vaporizes and sends out the liquefied natural gas for shipping 2.0.3 process unit a combination of one or more interrelated process equipment 2.0.4 a group of tanks one or more storage tanks arranged in an impounding dike/wall 2.0.5 recondenser equipment for condensing the compressed liquefied natural gas boil-off gas by using supercooled liquefied natural gas 2.0.6 open rack vaporizer (ORV) equipment using seawater as heat source, in which the seawater covers the outer surface of the vaporizer tube bundle from top to bottom by gravity from the overflow device at the top of the vaporizer, and the liquefied natural gas is heated and vaporized by seawater from bottom to top along the tube bundle 2.0.7 submerged combustion vaporizer (SCV) equipment using natural gas as fuel, in which the high-temperature flue gas produced by burning natural gas through a burner directly enters the water bath to heat the water, and the liquefied natural gas flows through the heat exchange coil submerged in the water bath and is heated and vaporized by the hot water 2.0.8 intermediate fluid vaporizer (IFV) equipment that uses a phase change process of evaporation and condensation of an intermediate fluid to transfer the heat of the heat source to the liquefied natural gas to vaporize the latter 2.0.9 liquefied natural gas collected pit structure used to collect the liquefied natural gas that is leaked to the ground during an accident   2.0.10 roll over phenomenon that, due to the different density or temperature of liquefied natural gas at different liquid levels, an unstable state of violent movement between different layers of liquefied natural gas is formed, and a large amount of liquefied natural gas boil-off gas is released 2.0.11 daily boil-off rate percentage of daily evaporation of a storage tank due to heat leakage to the total capacity of the storage tank, which is calculated by pure methane 2.0.12 single containment tank storage tank with only one self-supporting structure for containing low-temperature flammable liquid, which may be composed of single-wall or double-wall structure with thermal insulation layer 2.0.13 double containment tank storage tank consisting of a single containment tank and its outer tank, of which the outer tank has a radial distance of not more than 6m to the single containment tank, is open to the atmosphere at the top and is used to contain the low-temperature flammable liquid that overflows after the single containment tank ruptures 2.0.14 full containment tank storage tank consisting of an inner tank and an outer tank, of which the inner tank is a steel self-supporting structure for storing low-temperature flammable liquid, and the outer tank is an independent self-supporting closed structure with vault, generally made of steel or concrete, is used for bearing gas phase pressure and thermal insulation materials and can contain the low-temperature flammable liquid overflowing from the inner tank 2.0.15 membrane tank composite structure formed by a metal membrane inner tank, thermal insulation layer and concrete outer tank, of which the metal membrane inner tank is a non-self-supporting structure for storing liquefied natural gas, with the liquid phase load and other loads exerted on the metal membrane all transferred to the concrete outer tank through the load-bearing thermal insulation layer, and the gas phase pressure being borne by the top of the tank 2.0.16 impounding dike/wall structure for preventing overflow of liquefied natural gas or spread of fire in case of a leakage accident of LNG storage tank 2.0.17 operating base earthquake (OBE) maximum earthquake that will not cause system damage and will not affect the restart and continued safe operation of the system, at which level the seismic action will not damage the integrity of tank system operation, and the public safety can be ensured 2.0.18 safe shutdown earthquake (SSE) maximum earthquake that will not cause the failure and destruction of the basic functions of the system, at which level the seismic action may cause local permanent damage to the device and storage tank, but will not damage the integrity of the system 2.0.19 aftershock level earthquake (ALE) aftershock after a safe shutdown earthquake, at which level the earthquake will not damage the integrity of the system when it reoccurs 2.0.20 boundary alarm system protection system for protecting the boundary of liquefied natural gas receiving terminal or alarming when the boundary is invaded by foreign things
1 General provisions 2 Terms 3 Site selection 4 General plot plan and transportation 4.1 General layout 4.2 Vertical design 4.3 Road design 5 Process systems 5.1 General requirements 5.2 Unloading and loading 5.3 Storage 5.4 Boil-off gas treatment 5.5 Transfer systems 5.6 LNG vaporization 5.7 Sendout and metering 5.8 Truck loading 5.9 Flare and vent 6 Equipment 6.1 Vessels 6.2 Loading arm 6.3 Vaporizers 6.4 Pumps 6.5 Compressors 7 LNG storage tanks 7.1 General requirements 7.2 Metal inner and outer tanks 7.3 Prestressed concrete outer tanks 7.4 Cold insulation of storage tank 7.5 Inspection and test 7.6 Drying, replacement and cooling 7.7 Sites, subgrades and foundations 8 Equipment layout and piping systems 8.1 Equipment layout 8.2 Pipeline layout 8.3 Pipeline materials 8.4 Pipeline stress analysis 8.5 Pipeline insulation and anticorrosive engineering 9 Instrumentation and control systems 9.1 Control systems 9.2 Process measurement instrumentation 9.3 Instrumentation installation and protection 9.4 Package equipment instrumentation 10 Utilities and auxiliary facilities 10.1 Water and sewage systems 10.2 Electricity 10.3 Telecommunications 10.4 Analysis and testing 10.5 Buildings and structures 10.6 Heating, ventilation and air conditioning 10.7 Maintenance and spare parts 11 Fire protection 11.1 General requirements 11.2 Fire water supply system 11.3 Fire-fighting facilities 11.4 Fire proofing 11.5 Gas detection and fire alarm 12 Safety, occupational health and environment protection 12.1 Safety 12.2 Occupational health 12.3 Environment protection Annex A Calculation of the gas discharge volume Annex B Schematic diagrams of LNG storage tank types Explanation of wording in this code List of quoted standards
Referred in GB 51156-2015:
*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 50013-2018 Code for design of outdoor water supply engineering
*GB 50014-2006(2016) Code for Design of Outdoor Wastewater Engineering
*GB 50016-2014(2018)-Provisions Provisions of Code for Fire Protection Design of Buildings
*GB 50019-2015 Code for Design of Heating Ventilation and Air Conditioning in Industrial Buildings
*GB 50021-2001(2009) Code for investigation of geotechnical engineering
*GB 50041-2020 Standard for design of boiler plant
*GB 50046-2008 Code for Anticorrosion Design of Industrial Constructions
*GB 50052-2009 Code for Design Electric Power Supply Systems
*GB 50057-2010 Design Code for Protection of Structures against Lightning
*GB 50058-2014 Code for Design of Electrical Installations in Explosive Atmospheres
*GB/T 50087-2013 Code for design of noise control of industrial enterprises
*GB 50116-2013 Code for design of automatic fire alarm system
*GB 50135-2019 Standard for design of high-rising structures
*GB 50140-2005 Code for Design of Extinguisher Distribution in Buildings
*GB 50151-2010 Code for design of foam extinguishing systems
*GB 50183-2015 Standard for urban water conservation evaluation
*GB 50187-2012 Code for Design of General Layout of Industrial Enterprises
*GB 50191-2012 Design code for antiseismic of special structures
*GB 50251-2015 Design code for gas transmission pipeline engineering
*GB 50264-2013 Design Code for Insulation Engineering of Industrial Equipment and Pipe
*GB 50265-2010 Design code for pumping station
*GB 50335-2016 Code for Design of Wastewater Reclamation and Reuse
*GB 50338-2003 Code for desing for fixed fire monitor extinguishing systems
*GB 50341-2014 Code for design of vertical cylindrical welded steel oil tanks
*GB 50347-2004 Code of design for powder extinguishing systems
*GB 50453-2008 Standard for classification of seismic protection of buildings and special structures in petrochemical engineering
*GB 50493-2009 Specification for Design of Combustible Gas and Toxic Gas Detection and Alarm for Petrochemical Industry
*GB 50650-2011 Code for design protection of petrochemical plant against lighting
*GB 50736-2012 Design Code for Heating Ventilation and Air Conditioning of Civil Buildings
*GB 50779-2012 Code for design of blast resistant control building in petrochemical industry
*GB 51081-2015 Technical code for application of concrete under cryogenic circumstance
*GB 150.4-2011 Pressure Vessels --Part 4: Fabrication, inspection and testing, and acceptance
*GB 2893-2008 Safety colours
*GB 2894-2008 Safety Signs and Guideline for the Use
*GB 7231-2003 Basic indentification colors and code indications and safety sign for industrial pipelines
*GB/T 13609-2017 Natural gas sampling guidelines
*GBT18442-
*GB/T 20368-2012 Production,storage and handling of liquefied natural gas(LNG)
*GB/T 20603-2006 Refrigerated light hydrocarbon fluids - Sampling of liquefied natural gas - Continuous method
*GB/T 20801.6-2020 Pressure piping code - Industrial piping - Part 6: Safeguarding
*GB/T 26978.5-2011 Design and manufacture of site built, vertical, cylindrical, flat-bottomed steel tanks for the storage of liquefied natural gases - Part 5: Testing, drying, purging and cool-down
*GBZ 1-2010 Hygienic Standards for the Design of Industrial Enterprises
*GBZ 158-2003 Warning Signs for Occupational Hazards in the Workplace
*CJJ/T 148-2010 Technical specification for city gas odorization
*JB/T 4730.2-2005 Nondestructive testing of pressure equipments?Part 2:Radiographic testing
*JB/T 4730.3-2005 Nondestructive testing of pressure equipments?Part 3:Ultasonic testing
*JB/T 4730.4-2005 Nondestructive Testing of Pressure Equipments - Part 4: Magnetic Particle Testing
*JB/T 4730.5-2005 Nondestructive Testing of Pressure Equipments - Part 5: Penetrant Testing
*JTJ 275-2000 Corrosion Prevention Technical Specifications for Concrete Structures of Marine Harbour Engineering
*JTS 165-5-2016 Code for Design of Liquefied Natural Gas Port and Jetty
*SH 3010-2000 Specification for the insulation of equipment and pipe for petrochemical industry
*SH 3012-2011 Specification for design of metallic piping layout in petrochemical engineering
*SH/T 3022-2019 Design specification for anticorrosion coating of equipment and piping in petrochemical engineering
*SH 3034-2012 Specification for design of water supply and drainage pipe in petrochemical industry
*SH 3041-1991
*SH 3097-2000 Code for the design of static electricity grounding for petrochemical industry
*SH 3137-2013 Technical specification of fire protection for steel structures in petrochemical industry
*SH/T 3164-2012 Specification for design of instrument system lightning surge protection in petrochemical engineering
*TSG R0004-2009 Supervision Regulation on Safety Technology for Stationary Pressure Vessel (including Amendment 1)
Code of China
Standard
GB 51156-2015  Code for design of liquefied natural gas receiving terminal (English Version)
Standard No.GB 51156-2015
Statusvalid
LanguageEnglish
File FormatPDF
Word Count39000 words
Price(USD)600.0
Implemented on2016-6-1
Deliveryvia email in 1 business day
Detail of GB 51156-2015
Standard No.
GB 51156-2015
English Name
Code for design of liquefied natural gas receiving terminal
Chinese Name
液化天然气接收站工程设计规范
Chinese Classification
Professional Classification
GB
ICS Classification
Issued by
MOHURD
Issued on
2015-11-12
Implemented on
2016-6-1
Status
valid
Superseded by
Superseded on
Abolished on
Superseding
Language
English
File Format
PDF
Word Count
39000 words
Price(USD)
600.0
Keywords
GB 51156-2015, GB/T 51156-2015, GBT 51156-2015, GB51156-2015, GB 51156, GB51156, GB/T51156-2015, GB/T 51156, GB/T51156, GBT51156-2015, GBT 51156, GBT51156
Introduction of GB 51156-2015
1 General provisions 1.0.1 This code is formulated with a view to ensuring the design quality of liquefied natural gas receiving terminals, improving the design level, and achieving advanced technology, economic rationality, safety and reliability, and energy conservation & environmental protection. 1.0.2 This code is applicable to the design of constructed, extended and renovated onshore liquefied natural gas receiving terminals. 1.0.3 In addition to this code, the design of the liquefied natural gas receiving terminals shall also meet the requirements of the current relevant standards of the nation.   2 Terms 2.0.1 liquefied natural gas (LNG) a colorless fluid in liquid state that is mainly composed of methane and may contain small amounts of ethane, propane, butane, nitrogen, or other components normally found in natural gas 2.0.2 liquefied natural gas receiving terminal terminal that receives, stores, vaporizes and sends out the liquefied natural gas for shipping 2.0.3 process unit a combination of one or more interrelated process equipment 2.0.4 a group of tanks one or more storage tanks arranged in an impounding dike/wall 2.0.5 recondenser equipment for condensing the compressed liquefied natural gas boil-off gas by using supercooled liquefied natural gas 2.0.6 open rack vaporizer (ORV) equipment using seawater as heat source, in which the seawater covers the outer surface of the vaporizer tube bundle from top to bottom by gravity from the overflow device at the top of the vaporizer, and the liquefied natural gas is heated and vaporized by seawater from bottom to top along the tube bundle 2.0.7 submerged combustion vaporizer (SCV) equipment using natural gas as fuel, in which the high-temperature flue gas produced by burning natural gas through a burner directly enters the water bath to heat the water, and the liquefied natural gas flows through the heat exchange coil submerged in the water bath and is heated and vaporized by the hot water 2.0.8 intermediate fluid vaporizer (IFV) equipment that uses a phase change process of evaporation and condensation of an intermediate fluid to transfer the heat of the heat source to the liquefied natural gas to vaporize the latter 2.0.9 liquefied natural gas collected pit structure used to collect the liquefied natural gas that is leaked to the ground during an accident   2.0.10 roll over phenomenon that, due to the different density or temperature of liquefied natural gas at different liquid levels, an unstable state of violent movement between different layers of liquefied natural gas is formed, and a large amount of liquefied natural gas boil-off gas is released 2.0.11 daily boil-off rate percentage of daily evaporation of a storage tank due to heat leakage to the total capacity of the storage tank, which is calculated by pure methane 2.0.12 single containment tank storage tank with only one self-supporting structure for containing low-temperature flammable liquid, which may be composed of single-wall or double-wall structure with thermal insulation layer 2.0.13 double containment tank storage tank consisting of a single containment tank and its outer tank, of which the outer tank has a radial distance of not more than 6m to the single containment tank, is open to the atmosphere at the top and is used to contain the low-temperature flammable liquid that overflows after the single containment tank ruptures 2.0.14 full containment tank storage tank consisting of an inner tank and an outer tank, of which the inner tank is a steel self-supporting structure for storing low-temperature flammable liquid, and the outer tank is an independent self-supporting closed structure with vault, generally made of steel or concrete, is used for bearing gas phase pressure and thermal insulation materials and can contain the low-temperature flammable liquid overflowing from the inner tank 2.0.15 membrane tank composite structure formed by a metal membrane inner tank, thermal insulation layer and concrete outer tank, of which the metal membrane inner tank is a non-self-supporting structure for storing liquefied natural gas, with the liquid phase load and other loads exerted on the metal membrane all transferred to the concrete outer tank through the load-bearing thermal insulation layer, and the gas phase pressure being borne by the top of the tank 2.0.16 impounding dike/wall structure for preventing overflow of liquefied natural gas or spread of fire in case of a leakage accident of LNG storage tank 2.0.17 operating base earthquake (OBE) maximum earthquake that will not cause system damage and will not affect the restart and continued safe operation of the system, at which level the seismic action will not damage the integrity of tank system operation, and the public safety can be ensured 2.0.18 safe shutdown earthquake (SSE) maximum earthquake that will not cause the failure and destruction of the basic functions of the system, at which level the seismic action may cause local permanent damage to the device and storage tank, but will not damage the integrity of the system 2.0.19 aftershock level earthquake (ALE) aftershock after a safe shutdown earthquake, at which level the earthquake will not damage the integrity of the system when it reoccurs 2.0.20 boundary alarm system protection system for protecting the boundary of liquefied natural gas receiving terminal or alarming when the boundary is invaded by foreign things
Contents of GB 51156-2015
1 General provisions 2 Terms 3 Site selection 4 General plot plan and transportation 4.1 General layout 4.2 Vertical design 4.3 Road design 5 Process systems 5.1 General requirements 5.2 Unloading and loading 5.3 Storage 5.4 Boil-off gas treatment 5.5 Transfer systems 5.6 LNG vaporization 5.7 Sendout and metering 5.8 Truck loading 5.9 Flare and vent 6 Equipment 6.1 Vessels 6.2 Loading arm 6.3 Vaporizers 6.4 Pumps 6.5 Compressors 7 LNG storage tanks 7.1 General requirements 7.2 Metal inner and outer tanks 7.3 Prestressed concrete outer tanks 7.4 Cold insulation of storage tank 7.5 Inspection and test 7.6 Drying, replacement and cooling 7.7 Sites, subgrades and foundations 8 Equipment layout and piping systems 8.1 Equipment layout 8.2 Pipeline layout 8.3 Pipeline materials 8.4 Pipeline stress analysis 8.5 Pipeline insulation and anticorrosive engineering 9 Instrumentation and control systems 9.1 Control systems 9.2 Process measurement instrumentation 9.3 Instrumentation installation and protection 9.4 Package equipment instrumentation 10 Utilities and auxiliary facilities 10.1 Water and sewage systems 10.2 Electricity 10.3 Telecommunications 10.4 Analysis and testing 10.5 Buildings and structures 10.6 Heating, ventilation and air conditioning 10.7 Maintenance and spare parts 11 Fire protection 11.1 General requirements 11.2 Fire water supply system 11.3 Fire-fighting facilities 11.4 Fire proofing 11.5 Gas detection and fire alarm 12 Safety, occupational health and environment protection 12.1 Safety 12.2 Occupational health 12.3 Environment protection Annex A Calculation of the gas discharge volume Annex B Schematic diagrams of LNG storage tank types Explanation of wording in this code List of quoted standards
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Keywords:
GB 51156-2015, GB/T 51156-2015, GBT 51156-2015, GB51156-2015, GB 51156, GB51156, GB/T51156-2015, GB/T 51156, GB/T51156, GBT51156-2015, GBT 51156, GBT51156