ASTM D 7007 : 2016
Superseded
A superseded Standard is one, which is fully replaced by another Standard, which is a new edition of the same Standard.
View Superseded by
Standard Practices for Electrical Methods for Locating Leaks in Geomembranes Covered with Water or Earthen Materials
Hardcopy , PDF
03-22-2024
English
01-13-2016
Committee |
D 35
|
DocumentType |
Standard Practice
|
Pages |
13
|
PublisherName |
American Society for Testing and Materials
|
Status |
Superseded
|
SupersededBy | |
Supersedes |
1.1These practices cover standard procedures for using electrical methods to locate leaks in geomembranes covered with water or earthen materials. For clarity, this practice uses the term “leak” to mean holes, punctures, tears, knife cuts, seam defects, cracks, and similar breaches in an installed geomembrane (as defined in 3.2.5).
1.2These practices are intended to ensure that leak location surveys are performed with demonstrated leak detection capability. To allow further innovations, and because various leak location practitioners use a wide variety of procedures and equipment to perform these surveys, performance-based operations are used that specify the minimum leak detection performance for the equipment and procedures.
1.3These practices require that the leak location equipment, procedures, and survey parameters used are demonstrated to result in an established minimum leak detection distance. The survey shall then be conducted using the demonstrated equipment, procedures, and survey parameters.
1.4Separate procedures are given for leak location surveys for geomembranes covered with water and for geomembranes covered with earthen materials. Separate procedures are given for leak detection distance tests using actual and artificial leaks.
1.5Examples of methods of data analysis for soil-covered surveys are provided as guidance in Appendix X1.
1.6Leak location surveys can be used on geomembranes installed in basins, ponds, tanks, ore and waste pads, landfill cells, landfill caps, and other containment facilities. The procedures are applicable for geomembranes made of materials such as polyethylene, polypropylene, polyvinyl chloride, chlorosulfonated polyethylene, bituminous material, and other electrically-insulating materials.
1.7The values stated in SI units are to be regarded as standard. No other units of measurement are included in this standard.
1.8(Warning—The electrical methods used for geomembrane leak location could use high voltages, resulting in the potential for electrical shock or electrocution. This hazard might be increased because operations might be conducted in or near water. In particular, a high voltage could exist between the water or earthen material and earth ground, or any grounded conductor. These procedures are potentially VERY DANGEROUS, and can result in personal injury or death. The electrical methods used for geomembrane leak location should be attempted only by qualified and experienced personnel. Appropriate safety measures must be taken to protect the leak location operators as well as other people at the site.)
1.9This standard does not purport to address all of the safety concerns, if any, associated with its use. It is the responsibility of the user of this standard to establish appropriate safety and health practices and determine the applicability of regulatory limitations prior to use.
ASTM D 7852 : 2013 | Standard Practice for Use of an Electrically Conductive Geotextile for Leak Location Surveys |
ASTM D 7909 : 2014 | Standard Guide for Placement of Blind Actual Leaks during Electrical Leak Location Surveys of Geomembranes |
ASTM D 7700 : 2015 | Standard Guide for Selecting Test Methods for Geomembrane Seams |
ASTM D 7700 : 2022 | Standard Guide for Selecting Test Methods for Geomembrane Seams |
ASTM D 7909 : 2021 : REV A | Standard Guide for Placement of Intentional Leaks During Electrical Leak Location Surveys of Geomembranes |
ASTM D 8551 : 2024 | Standard Practices for Permanent Monitoring Systems for Electrical Leak Detection and Location |
ASTM D 4439 : 2020 | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2015 | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2011 | Standard Terminology for Geosynthetics |
ASTM D 6747 : 2021 | Standard Guide for Selection of Techniques for Electrical Leak Location of Leaks in Geomembranes |
ASTM D 6747 : 2002 : EDT 1 | Standard Guide for Selection of Techniques for Electrical Detection of Potential Leak Paths in Geomembrane |
ASTM D 6747 : 2004 | Standard Guide for Selection of Techniques for Electrical Detection of Potential Leak Paths in Geomembrane |
ASTM D 4439 : 2015 : REV A | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2002 | Standard Terminology for Geosynthetics |
ASTM D 6747 : 2012 | Standard Guide for Selection of Techniques for Electrical Detection of Leaks in Geomembranes |
ASTM D 4439 : 2017 | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2024 | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2001 | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2023 : REV A | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2014 | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2023 : REV B | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2004 | Standard Terminology for Geosynthetics |
ASTM D 6747 : 2015 | Standard Guide for Selection of Techniques for Electrical Leak Location of Leaks in Geomembranes |
ASTM D 4439 : 2000 | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2018 | Standard Terminology for Geosynthetics |
ASTM D 4439 : 2023 | Standard Terminology for Geosynthetics |
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