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EJ/T 878-2011   Design criteria for independent spent fuel storage installation (English Version)
Standard No.: EJ/T 878-2011 Status:valid remind me the status change

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Standard No.: EJ/T 878-2011
English Name: Design criteria for independent spent fuel storage installation
Chinese Name: 乏燃料离堆贮存水池安全设计准则
Professional Classification: EJ    Professional Standard - Nuclear Industry
Source Content Issued by: SASTIND
Issued on: 2011-07-19
Implemented on: 2011-10-1
Status: valid
Target Language: English
File Format: PDF
Word Count: 8500 words
Translation Price(USD): 300.0
Delivery: via email in 1 business day
Codeofchina.com is in charge of this English translation. In case of any doubt about the English translation, the Chinese original shall be considered authoritative. This standard replaces EJ 878-1994 Safety design guidelines for away-from-reactor storage pool used for spent fuel. The following main changes have been made with respect to EJ 878-1994: ——The application scope of the standard is expanded; ——The storage and treatment measures for damaged spent fuel are improved; ——Various design basis parameters such as pool water cooling and purification systems are checked based on the recent operating experience of independent spent fuel storage installations at home and abroad; ——The design basis ground motion load shall be considered in accordance with SL2, and its peak acceleration is changed from "not less than 0.1g" to "not less than 0.15g"; ——The contents of Annexes A, B and C are revised according to the situation when storing deep burn-up spent fuel (for example, the average fuel consumption is 5.5×104 MWd/tU). Annexes A, B, C and D to this standard are informative. This standard was proposed by China National Nuclear Corporation. This standard is under the jurisdiction of the Institute for Standardization of Nuclear Industry. This standard was issued in October 1994 for the first time. Design criteria for independent spent fuel storage installation (water pool type) 1 Scope This standard specifies the criteria and basic requirements to be followed in the design of independent spent fuel storage installation (hereinafter referred to as "ISFSI") to ensure nuclear safety. This standard is applicable to the safety design of ISFSIs for storage of spent fuel discharged from water reactors and cooled for more than five years. It is also applicable to the safety design of ISFSIs for storage of other types of spent fuel (for example, discharged from gas cooled reactors) and components of fuel assemblies. It is not applicable to the safety design of the pool located within the reactor site. 2 Normative references The following normative documents contain provisions which, through reference in this standard, constitute provisions of this standard. For dated references, subsequent amendments (excluding corrections) to, or revisions, of any of these publications do not apply to this standard. However, parties to agreements based on this standard are encouraged to investigate the possibility of applying the most recent editions of the normative documents indicated below. For undated references, the latest edition applies. GB 15146.8 Nuclear criticality safety for fissile materials outside reactors - Part 8: Criticality safety criteria for the handling storage and transportation of LWR fuel outside reactors GB 18871 Basic standards for protection against ionizing radiation and for the safety of radiation sources GB 50010 Code for design of concrete structures GB 50016 Code for fire protection design of buildings GB 50017 Code for design of steel structures EJ 724 Fire protection criteria of nuclear fuel reprocessing plant EJ 849 Specification on radiation safety design of nuclear fuel reprocessing plant EJ/T 939 Classification for structures, systems and components of nuclear fuel reprocessing plant EJ/T 1054 Physical protection of nuclear material and nuclear facilities   3 Terms and definitions For the purposes of this standard, the following terms and definitions apply. 3.1 independent spent fuel storage installation (ISFSI) spent fuel storage installation located outside the boundary of the reactor area, which is usually used to receive and store spent fuel from several reactors 3.2 fuel unit object treated as a single article during operation, storage, or transportation, which may be a single fuel element, a fuel assembly, spent fuel in a tank, or a batch of fuel elements that are densely packed together 3.3 basket metal member with opening, used for transferring or storing one or more spent fuel units 3.4 storage racks metal member set in the pool and used for supporting and holding the fuel unit so that the fuel unit is in a subcritical state during storage 3.5 basket brackets metal member arranged on the bottom or wall of the pool and used for supporting the storage basket and ensuring that the fuel in the basket is in a subcritical state under any circumstances 3.6 design basis accident (DBA) accident condition in which specific measures have been taken in the design of the ISFSI according to the determined design criteria. For example: a) nuclear criticality accident; b) loss of pool water cooling function; c) container falling; d) occurrence of a design basis earthquake.   4 Safety Criteria 4.1 Main safety objective The main safety objective is to protect the staff, the public and the environment, to ensure that the exposure to the staff and the public under all operating conditions and accident conditions does not exceed the limit value specified by the nation, and to implement the principle "as low as reasonably practicable" in the design. 4.2 Safety principles The principle of "safety first" shall be followed. In-depth defense shall be reflected and multilevel protection shall be provided in design so as to ensure the normal operation of the ISFSI, prevent accidents, and limit the development and consequences of accidents. 4.3 Overall basis of safety design The safety design of the ISFSI shall comply with relevant regulations and standards of the nation and this standard. 4.4 Quality assurance The buildings (structures), systems, and components important to safety of the ISFSIs shall be classified according to their safety functions, and the quality assurance requirements that match the importance of completing their safety functions shall be put forward. 4.5 Plant site characteristics and protection against natural events 4.5.1 The design shall take into account the mutual influence between the ISFSI and the environmental factors (such as population, meteorological, hydrological, geological and seismic conditions, and other related facilities) of the plant site. 4.5.2 The design of buildings (structures), systems, and components important to safety of the ISFSIs shall take into account that they still maintain their safety functions under the natural events (such as earthquake, tornado, lightning, hurricane, flood, tsunami, lake surge and debris flow) that may occur at the plant site. The intensity of various natural events that may occur shall be determined to determine the design basis for items important to safety. The design shall also take into account that due to the uncertainty of the data source of the most severe natural event, the limitation of the data accumulation time period and other factors, the design shall have an appropriate margin when considering the most severe natural event at the plant site and its surrounding area.
Foreword II 1 Scope 2 Normative references 3 Terms and definitions 4 Safety Criteria 5 Basic requirements for safety design Annex A (Informative) Schematic diagram for technology process of ISFSI Annex B (Informative) Recommended physical-chemical properties of the pool water Annex C (Informative) Conservative generation rate of decay heat of pressurized water reactor spent fuel Annex D (Informative) Typical dose rates
Referred in EJ/T 878-2011:
*GB 15146.8-2008 Nuclear criticality safety for fissile materials outside reactors - Part 8: Criticality safety criteria for the handling storage and transportation of LWR fuel outside reactors
*GB 18871-2002 Basic Standards for Protection against Ionizing Radiation and for the Safety of Radiation Sources
*GB 50010-2010(2015) Code for design of concrete structures
*GB 50016-2014(2018)-Provisions Provisions of Code for Fire Protection Design of Buildings
*GB 50017-2017 Code for design of steel structures
*EJ 724-1992 Fire protection criteria of nuclear fuel reprocessing plant
*EJ849-
*EJ/T 939-2014 Classification for structures, systems and components of nuclear fuel reprocessing plant
*EJ/T 1054-2018
EJ/T 878-2011 is referred in:
*GJB 2497-1995 Test method for satellite structures
*JB/T 1009-1991
*JB/T 1009-2016 Specification for YS series three-phase asynchronous motors
*YY/T 0316-2000 Medical devices―Risk management―Part 1:Application of risk analysis
*YY/T 0316-2003 Medical devices -- Application of risk management to medical devices
*YY/T 0316-2008 Medical devices - Application of risk management to medical devices
*YY/T 0316-2016 Medical devices-Application of risk management to medical devices
*GB 8058-1987 Standard permissible limite and testing method for release of lead or cadmium from ceramic cookware
*GB 8058-2003 Standard permissible limits and testing method for release of lead or cadmium from ceramic cookware
*GB/T 16895.15-2002 Electrical installations of buildings--Part 5:Seletion and erection of electrical equipment--Section 523:Current-carrying capacities in wiring systems
*GB/T 3922-1995 Textiles--Testing method for colour fastness to perspiration
*GB 5084-1992 STANDARDs for irrigation water quality
*GB 5084-2021 Standard for irrigation water quality
*JC 714-1987 Rapid Hardening Sulphoaluminate Cement
*JC 714-1996 Rapid Hardening Sulphoaluminate Cement
*GB/T 5531-1985 Inspection of vegetable oils--Heating test
*GB/T 5531-2008 Inspection of grain and oils - Heating test of vegetable fats and oils
*GB/T 5531-2018 Inspection of grain and oils—Heating test of vegetable fats and oils
*GB/T 5783-1986 Hexagon head bolts--Full thread--Product grades A and B
*GB 12476.3-2007 Electrical apparatus for use in the presence of combustible dust—Part 3:Classification of areas where combustible dusts are or may be present
*JB/T 6065-2004 Non-destructive testing―Shims for magnetic particle testing
*GB 16548-2006 Biosafety specific ation on sick animal and animal product disposal
*QB 1413-1991 Food Additive--Calcium Carbonate
*QB 1413-1999 Food Additive--Calcium Carbonate
Code of China
Standard
EJ/T 878-2011  Design criteria for independent spent fuel storage installation (English Version)
Standard No.EJ/T 878-2011
Statusvalid
LanguageEnglish
File FormatPDF
Word Count8500 words
Price(USD)300.0
Implemented on2011-10-1
Deliveryvia email in 1 business day
Detail of EJ/T 878-2011
Standard No.
EJ/T 878-2011
English Name
Design criteria for independent spent fuel storage installation
Chinese Name
乏燃料离堆贮存水池安全设计准则
Chinese Classification
Professional Classification
EJ
ICS Classification
Issued by
SASTIND
Issued on
2011-07-19
Implemented on
2011-10-1
Status
valid
Superseded by
Superseded on
Abolished on
Superseding
Language
English
File Format
PDF
Word Count
8500 words
Price(USD)
300.0
Keywords
EJ/T 878-2011, EJ 878-2011, EJT 878-2011, EJ/T878-2011, EJ/T 878, EJ/T878, EJ878-2011, EJ 878, EJ878, EJT878-2011, EJT 878, EJT878
Introduction of EJ/T 878-2011
Codeofchina.com is in charge of this English translation. In case of any doubt about the English translation, the Chinese original shall be considered authoritative. This standard replaces EJ 878-1994 Safety design guidelines for away-from-reactor storage pool used for spent fuel. The following main changes have been made with respect to EJ 878-1994: ——The application scope of the standard is expanded; ——The storage and treatment measures for damaged spent fuel are improved; ——Various design basis parameters such as pool water cooling and purification systems are checked based on the recent operating experience of independent spent fuel storage installations at home and abroad; ——The design basis ground motion load shall be considered in accordance with SL2, and its peak acceleration is changed from "not less than 0.1g" to "not less than 0.15g"; ——The contents of Annexes A, B and C are revised according to the situation when storing deep burn-up spent fuel (for example, the average fuel consumption is 5.5×104 MWd/tU). Annexes A, B, C and D to this standard are informative. This standard was proposed by China National Nuclear Corporation. This standard is under the jurisdiction of the Institute for Standardization of Nuclear Industry. This standard was issued in October 1994 for the first time. Design criteria for independent spent fuel storage installation (water pool type) 1 Scope This standard specifies the criteria and basic requirements to be followed in the design of independent spent fuel storage installation (hereinafter referred to as "ISFSI") to ensure nuclear safety. This standard is applicable to the safety design of ISFSIs for storage of spent fuel discharged from water reactors and cooled for more than five years. It is also applicable to the safety design of ISFSIs for storage of other types of spent fuel (for example, discharged from gas cooled reactors) and components of fuel assemblies. It is not applicable to the safety design of the pool located within the reactor site. 2 Normative references The following normative documents contain provisions which, through reference in this standard, constitute provisions of this standard. For dated references, subsequent amendments (excluding corrections) to, or revisions, of any of these publications do not apply to this standard. However, parties to agreements based on this standard are encouraged to investigate the possibility of applying the most recent editions of the normative documents indicated below. For undated references, the latest edition applies. GB 15146.8 Nuclear criticality safety for fissile materials outside reactors - Part 8: Criticality safety criteria for the handling storage and transportation of LWR fuel outside reactors GB 18871 Basic standards for protection against ionizing radiation and for the safety of radiation sources GB 50010 Code for design of concrete structures GB 50016 Code for fire protection design of buildings GB 50017 Code for design of steel structures EJ 724 Fire protection criteria of nuclear fuel reprocessing plant EJ 849 Specification on radiation safety design of nuclear fuel reprocessing plant EJ/T 939 Classification for structures, systems and components of nuclear fuel reprocessing plant EJ/T 1054 Physical protection of nuclear material and nuclear facilities   3 Terms and definitions For the purposes of this standard, the following terms and definitions apply. 3.1 independent spent fuel storage installation (ISFSI) spent fuel storage installation located outside the boundary of the reactor area, which is usually used to receive and store spent fuel from several reactors 3.2 fuel unit object treated as a single article during operation, storage, or transportation, which may be a single fuel element, a fuel assembly, spent fuel in a tank, or a batch of fuel elements that are densely packed together 3.3 basket metal member with opening, used for transferring or storing one or more spent fuel units 3.4 storage racks metal member set in the pool and used for supporting and holding the fuel unit so that the fuel unit is in a subcritical state during storage 3.5 basket brackets metal member arranged on the bottom or wall of the pool and used for supporting the storage basket and ensuring that the fuel in the basket is in a subcritical state under any circumstances 3.6 design basis accident (DBA) accident condition in which specific measures have been taken in the design of the ISFSI according to the determined design criteria. For example: a) nuclear criticality accident; b) loss of pool water cooling function; c) container falling; d) occurrence of a design basis earthquake.   4 Safety Criteria 4.1 Main safety objective The main safety objective is to protect the staff, the public and the environment, to ensure that the exposure to the staff and the public under all operating conditions and accident conditions does not exceed the limit value specified by the nation, and to implement the principle "as low as reasonably practicable" in the design. 4.2 Safety principles The principle of "safety first" shall be followed. In-depth defense shall be reflected and multilevel protection shall be provided in design so as to ensure the normal operation of the ISFSI, prevent accidents, and limit the development and consequences of accidents. 4.3 Overall basis of safety design The safety design of the ISFSI shall comply with relevant regulations and standards of the nation and this standard. 4.4 Quality assurance The buildings (structures), systems, and components important to safety of the ISFSIs shall be classified according to their safety functions, and the quality assurance requirements that match the importance of completing their safety functions shall be put forward. 4.5 Plant site characteristics and protection against natural events 4.5.1 The design shall take into account the mutual influence between the ISFSI and the environmental factors (such as population, meteorological, hydrological, geological and seismic conditions, and other related facilities) of the plant site. 4.5.2 The design of buildings (structures), systems, and components important to safety of the ISFSIs shall take into account that they still maintain their safety functions under the natural events (such as earthquake, tornado, lightning, hurricane, flood, tsunami, lake surge and debris flow) that may occur at the plant site. The intensity of various natural events that may occur shall be determined to determine the design basis for items important to safety. The design shall also take into account that due to the uncertainty of the data source of the most severe natural event, the limitation of the data accumulation time period and other factors, the design shall have an appropriate margin when considering the most severe natural event at the plant site and its surrounding area.
Contents of EJ/T 878-2011
Foreword II 1 Scope 2 Normative references 3 Terms and definitions 4 Safety Criteria 5 Basic requirements for safety design Annex A (Informative) Schematic diagram for technology process of ISFSI Annex B (Informative) Recommended physical-chemical properties of the pool water Annex C (Informative) Conservative generation rate of decay heat of pressurized water reactor spent fuel Annex D (Informative) Typical dose rates
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Keywords:
EJ/T 878-2011, EJ 878-2011, EJT 878-2011, EJ/T878-2011, EJ/T 878, EJ/T878, EJ878-2011, EJ 878, EJ878, EJT878-2011, EJT 878, EJT878