<?xml version="1.0" encoding="windows-1252"?><SEC xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xsi:noNamespaceSchemaLocation="http://si.ksc.nasa.gov/sidownloads/xml/specsintactSEC.xsd"><MTA NAME="SUBFORMAT" CONTENT="NEW"/><BRK/>
<HDR><AST/><BRK/>
USACE / NAVFAC / AFCESA / NASA                UFGS-02 56 13 (October 2007)<BRK/>
                                              ----------------------------<BRK/>
Preparing Activity:  <PRA>USACE</PRA>                    Superseding<BRK/>
                                              UGGS-02 56 13 (April 2006)<BRK/>
<BRK/>
<HL4>UNIFIED FACILITIES GUIDE SPECIFICATIONS</HL4><BRK/>
<BRK/>
<HL4>References are in agreement with UMRL dated January 2009</HL4><BRK/>
<AST/><BRK/></HDR>
<BRK/>
<SCN>SECTION 02 56 13</SCN><BRK/>
<BRK/>
<STL>WASTE CONTAINMENT GEOMEMBRANE</STL><BRK/>
<DTE>10/07</DTE><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  This guide specification covers the requirements for <SCP>geomembrane barrier 
for waste containment applications</SCP>.</NPR><BRK/>
<BRK/>
<NPR>Edit this guide specification for project specific requirements by adding, deleting, 
or revising text.  For bracketed items, choose applicable items(s) or insert 
appropriate information.<BRK/>
<BRK/>
Remove information and requirements not required in respective project, whether 
or not brackets are present.</NPR><BRK/>
<BRK/>
<NPR>Comments and suggestions on this guide specification are welcome and should 
be directed to the technical proponent of the specification.  A listing of <URL HREF="http://65.204.17.188/report/ufgs.html">technical 
proponents</URL>, including their organization designation and telephone number, is 
on the Internet.<BRK/>
<BRK/>
Recommended changes to a UFGS should be submitted as a  <URL HREF="http://65.204.17.188/projnet/cms/public.html">Criteria Change Request 
(CCR)</URL>.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<PRT><TTL>PART 1   GENERAL</TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  Typical materials used in waste containment applications include linear 
low density polyethylene (LLDPE), high density polyethylene (HDPE), polyvinyl 
chloride (PVC), or polypropylene (PP).  These materials are produced with both 
smooth and textured surfaces.  The need for a textured versus a non textured 
material will be based on cover stability analyses.  The drawings must clearly 
indicate the limits of placement for textured and non textured geomembranes.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<SPT><TTL>1.1   REFERENCES</TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  This paragraph is used to list the publications cited in the text of 
the guide specification.  The publications are referred to in the text by basic 
designation only and listed in this paragraph by organization, designation, 
date, and title.<BRK/>
<BRK/>
Use the Reference Wizard's Check Reference feature when you add a RID outside 
of the Section's Reference Article to automatically place the reference in the 
Reference Article.  Also use the Reference Wizard's Check Reference feature 
to update the issue dates.<BRK/>
<BRK/>
References not used in the text will automatically be deleted from this section 
of the project specification when you choose to reconcile references in the 
publish print process.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>The publications listed below form a part of this specification to the extent referenced.  The publications are 
referred to within the text by the basic designation only.</TXT><BRK/>
<BRK/>
<REF><ORG>ASTM INTERNATIONAL (ASTM)</ORG><BRK/><BRK/><RID>ASTM D 1004</RID><RTL>(2008) Initial Tear Resistance of Plastic Film and Sheeting</RTL><BRK/><BRK/><RID>ASTM D 1203</RID><RTL>(1994; R 2003) Volatile Loss from Plastics Using Activated Carbon Methods</RTL><BRK/><BRK/><RID>ASTM D 1204</RID><RTL>(2008) Linear Dimensional Changes of Nonrigid Thermoplastic Sheeting or Film at Elevated Temperature</RTL><BRK/><BRK/><RID>ASTM D 1505</RID><RTL>(2003) Density of Plastics by the Density-Gradient Technique</RTL><BRK/><BRK/><RID>ASTM D 1593</RID><RTL>(1999) Standard Specification for Non-rigid Vinyl Chloride Plastic Film and Sheeting</RTL><BRK/><BRK/><RID>ASTM D 1603</RID><RTL>(2006) Carbon Black Content in Olefin Plastics</RTL><BRK/><BRK/><RID>ASTM D 1790</RID><RTL>(2008) Brittleness Temperature of Plastic Sheeting by Impact</RTL><BRK/><BRK/><RID>ASTM D 3895</RID><RTL>(2007) Oxidative-Induction Time of Polyolefins by Differential Scanning Calorimetry</RTL><BRK/><BRK/><RID>ASTM D 4218</RID><RTL>(1996; R 2008) Determination of Carbon Black Content in Polyethylene Compounds by the Muffle-Furnace Technique</RTL><BRK/><BRK/><RID>ASTM D 4833</RID><RTL>(2007) Index Puncture Resistance of Geotextiles, Geomembranes, and Related Products</RTL><BRK/><BRK/><RID>ASTM D 5199</RID><RTL>(2001; R 2006) Measuring Nominal Thickness of Geosynthetics</RTL><BRK/><BRK/><RID>ASTM D 5321</RID><RTL>(2008) Determining the Coefficient of Soil and Geosynthetic or Geosynthetic and Geosynthetic Friction by the Direct Shear Method</RTL><BRK/><BRK/><RID>ASTM D 5397</RID><RTL>(2007) Evaluation of Stress Crack Resistance of Polyolefin Geomembranes Using Notched Constant Tensile Load Test</RTL><BRK/><BRK/><RID>ASTM D 5596</RID><RTL>(2003)  Microscopic Evaluation of the Dispersion of Carbon Black in Polyolefin Geosynthetics</RTL><BRK/><BRK/><RID>ASTM D 5721</RID><RTL>(2008) Air-Oven Aging of Polyolefin Geomembranes</RTL><BRK/><BRK/><RID>ASTM D 5885</RID><RTL>(2006) Oxidative Induction Time of Polyolefin Geosynthetics by High-Pressure Differential Scanning Calorimetry</RTL><BRK/><BRK/><RID>ASTM D 5994</RID><RTL>(1998; R 2003) Measuring Core Thickness of Textured Geomembrane</RTL><BRK/><BRK/><RID>ASTM D 638</RID><RTL>(2008) Standard Test Method for Tensile Properties of Plastics</RTL><BRK/><BRK/><RID>ASTM D 6392</RID><RTL>(2008) Determining the Integrity of Nonreinforced Geomembrane Seams Produced Using Thermo-Fusion Methods</RTL><BRK/><BRK/><RID>ASTM D 6497</RID><RTL>(2002) Mechanical Attachment of Geomembrane to Penetrations or Structures</RTL><BRK/><BRK/><RID>ASTM D 751</RID><RTL>(2006) Coated Fabrics</RTL><BRK/><BRK/><RID>ASTM D 792</RID><RTL>(2008) Density and Specific Gravity (Relative Density) of Plastics by Displacement</RTL><BRK/><BRK/><RID>ASTM D 814</RID><RTL>(1995; R 2005) Rubber Property - Vapor Transmission of Volatile Liquids</RTL><BRK/><BRK/><RID>ASTM D 882</RID><RTL>(2002) Tensile Properties of Thin Plastic Sheeting</RTL><BRK/><BRK/></REF><REF><ORG>GEOSYNTHETIC INSTITUTE (GSI)</ORG><BRK/><BRK/><RID>GSI GRI GM11</RID><RTL>(1997) Accelerated Weathering of Geomembranes Using a Fluorescent UVA Device</RTL><BRK/><BRK/><RID>GSI GRI GM12</RID><RTL>(1998) Asperity Measurement of Textured Geomembranes Using a Depth Gauge</RTL><BRK/><BRK/><RID>GSI GRI GM7</RID><RTL>(1995) Accelerated Curing of Geomembrane Test Strip Seams Made by Chemical Fusion Methods</RTL><BRK/><BRK/><RID>GSI GRI GM9</RID><RTL>(1995) Cold Weather Seaming of Geomembranes</RTL><BRK/><BRK/></REF></SPT><SPT><TTL>1.2   MEASUREMENT</TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  Delete paragraphs MEASUREMENT and PAYMENT when lump sum bidding is used.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>Measurement shall be made of the total surface area in square<MET> meters</MET><ENG> feet</ENG> covered by geomembrane.  Final quantities 
will be based on as-built conditions.  Allowance will be made for geomembrane in anchor and drainage trenches; 
however, no allowance will be made for waste, overlap, repairs, or materials used for the convenience of the 
Contractor.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.3   PAYMENT</TTL><BRK/>
<BRK/>
<TXT>Geomembrane installed and accepted by the Contracting Officer will be paid for at the respective contract unit 
price in the bidding schedule.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.4   SUBMITTALS</TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  Review submittal description (SD) definitions in Section <SRF>01 33 00</SRF> SUBMITTAL 
PROCEDURES and edit the following list to reflect only the submittals required 
for the project.  Submittals should be kept to the minimum required for adequate 
quality control.<BRK/>
<BRK/>
A “G” following a submittal item indicates that the submittal requires Government 
approval.  Some submittals are already marked with a “G”.  Only delete an existing 
“G” if the submittal item is not complex and can be reviewed through the Contractor’s 
Quality Control system.  Only add a “G” if the submittal is sufficiently important 
or complex in context of the project.<BRK/>
<BRK/>
For submittals requiring Government approval on Army projects, a code of up 
to three characters within the submittal tags may be used following the "G" 
designation to indicate the approving authority.  Codes for Army projects using 
the Resident Management System (RMS) are:  "AE" for Architect-Engineer; "DO" 
for District Office (Engineering Division or other organization in the District 
Office); "AO" for Area Office; "RO" for Resident Office; and "PO" for Project 
Office.  Codes following the "G" typically are not used for Navy, Air Force, 
and NASA projects.<BRK/>
<BRK/>
Choose the first bracketed item for Navy, Air Force and NASA projects, or choose 
the second bracketed item for Army projects.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>Government approval is required for submittals with a "G" designation; submittals not having a "G" designation 
are for [Contractor Quality Control approval.][information only.  When used, a designation following the "G" 
designation identifies the office that will review the submittal for the Government.]  The following shall be 
submitted in accordance with Section <SRF>01 33 00</SRF> SUBMITTAL PROCEDURES:</TXT><BRK/>
<BRK/>
<LST><SUB>SD-02 Shop Drawings</SUB></LST><BRK/>
<BRK/>
<ITM><SUB>Penetrations</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Geomembrane panel layout and penetration detail drawings, a minimum of [7] [_____] days prior 
to geomembrane placement.</ITM><BRK/>
<BRK/>
<ITM><SUB>As-Built Drawings</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Final as-built drawings of geomembrane installation </ITM><BRK/>
<BRK/>
<LST><SUB>SD-03 Product Data</SUB></LST><BRK/>
<BRK/>
<ITM><SUB>Tests, Inspections, and Verifications</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Manufacturer's and fabricator's QC manuals, a minimum of [7] [_____] days prior to geomembrane 
shipment.</ITM><BRK/>
<BRK/>
<ITM><SUB>Field Seaming</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Installer's QC manual, a minimum of [7] [_____] days prior to geomembrane placement.</ITM><BRK/>
<BRK/>
<ITM><SUB>Qualifications</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Manufacturer's, and fabricator's qualification statements, including resumes of key personnel 
involved in the project, a minimum of [7] [_____] days prior to geomembrane shipment.</ITM><BRK/>
<BRK/>
<ITM>  Installer's, QC inspector's, and QC laboratory's qualification statements including resumes 
of key personnel involved in the project a minimum of [7] [_____] days prior to geomembrane 
placement.  The submittal from the QC laboratory shall include verification that the laboratory 
is accredited via the Geosynthetic Accreditation Institute's Laboratory Accreditation Program 
(GAI-LAP) for the tests the QC laboratory will be required to perform.</ITM><BRK/>
<BRK/>
<LST><SUB>SD-04 Samples</SUB></LST><BRK/>
<BRK/>
<ITM><SUB>Samples</SUB></ITM><BRK/>
<BRK/>
<ITM>  Geomembrane QA and QC samples.</ITM><BRK/>
<BRK/>
<LST><SUB>SD-06 Test Reports</SUB></LST><BRK/>
<BRK/>
<ITM><SUB>Materials</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Manufacturer's certified raw and sheet material test reports and a copy of the QC certificates, 
a minimum of [7] [_____] days prior to shipment of geomembrane to the site.</ITM><BRK/>
<BRK/>
<ITM><SUB>Surface Preparation</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Certification from the QC inspector and installer of the acceptability of the surface on which 
the geomembrane is to be placed, immediately prior to geomembrane placement.</ITM><BRK/>
<BRK/>
<ITM><SUB>Non-Destructive Field Seam Continuity Testing</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  QC inspector certified test results on all field seams.</ITM><BRK/>
<BRK/>
<ITM><SUB>Destructive Field Seam Testing</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Installer and certified QC laboratory test results on all destructively tested field seams.</ITM><BRK/>
<BRK/>
<ITM><SUB>Destructive Seam Test Repairs</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  QC inspector certified test results on all repaired seams.</ITM><BRK/>
<BRK/>
<ITM><SUB>Interface Friction Testing</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Certified laboratory interface friction test results including description of equipment and 
test method, a minimum of [7] [_____] days prior to geomembrane shipment.</ITM><BRK/>
<BRK/>
<ITM><SUB>Tests</SUB>[; <SUB>G</SUB>][; <SUB>G, [_____]</SUB>]</ITM><BRK/>
<BRK/>
<ITM>  Certified QC test results.</ITM><BRK/>
<BRK/></SPT>
<SPT><TTL>1.5   <SUB>QUALIFICATIONS</SUB></TTL><BRK/>
<BRK/>
<SPT><TTL>1.5.1   Manufacturer</TTL><BRK/>
<BRK/>
<TXT>Manufacturer shall have produced the proposed geomembrane sheets for at least 5 completed projects having a total 
minimum area of<MET> [930,000] [_____] square meters</MET><ENG> [10] [_____] million square feet</ENG>.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.5.2   Fabricator</TTL><BRK/>
<BRK/>
<TXT>The fabricator is responsible for seaming geomembrane sheets into panels.  Fabricator shall have fabricated the 
proposed geomembrane panels for at least 5 completed projects having a total minimum area of<MET> [186,000] [_____] 
square meters</MET><ENG> [2] [_____] million square feet</ENG>.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.5.3   Installer</TTL><BRK/>
<BRK/>
<TXT>The installer is responsible for field handling, deploying, seaming, anchoring, and field Quality Control (QC) 
testing of the geomembrane.  The installer shall have installed the proposed geomembrane material for at least 
5 completed projects having a total minimum area of<MET> [186,000] [_____] square meters</MET><ENG> [2] [_____] million square 
feet</ENG>.  At least one seamer shall have experience seaming a minimum of<MET> [46,500] [_____] square meters</MET><ENG> [500,000] 
[_____] square feet</ENG> of the proposed geomembrane using the same type of seaming equipment and geomembrane thickness 
specified for this project.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.5.4   QC Inspector</TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  A separate third party quality assurance (QA) contract should be considered 
based on the qualifications of the Government QA personnel, the size and importance 
of the project, and impacts of a geomembrane failure.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>The QC inspector is the person or corporation hired by the Contractor, who is responsible for monitoring and 
documenting activities related to the QC of the geomembrane from manufacturing through installation.  The QC 
inspector shall have provided QC inspection during installation of the proposed geomembrane material for at least 
5 completed projects having a total minimum area of<MET> [186,000] [_____] square meters</MET><ENG> [2] [_____] million square 
feet</ENG>.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.5.5   QC Laboratory</TTL><BRK/>
<BRK/>
<TXT>The QC laboratory shall have provided QC and/or Quality Assurance (QA) testing of the proposed geomembrane and 
geomembrane seams for at least five completed projects having a total minimum area of<MET> [186,000] [_____] square 
meters</MET><ENG> [2] [_____] million square feet</ENG>.  The QC laboratory shall be accredited via the Geosynthetic Accreditation 
Institute's Laboratory Accreditation Program (GAI-LAP) for the tests the QC laboratory will be required to perform.</TXT><BRK/>
<BRK/></SPT>
</SPT><SPT><TTL>1.6   DELIVERY, STORAGE AND HANDLING</TTL><BRK/>
<BRK/>
<SPT><TTL>1.6.1   Delivery</TTL><BRK/>
<BRK/>
<TXT>The QC inspector shall be present during delivery and unloading of the geomembrane.  Each geomembrane roll/panel 
shall be labeled with the manufacturer's name, product identification number, roll/panel number, and roll dimensions.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.6.2   Storage</TTL><BRK/>
<BRK/>
<TXT>Temporary storage at the project site shall be on a level surface, free of sharp objects where water cannot accumulate.  
The geomembrane shall be protected from puncture, abrasion, excessive heat or cold, material degradation, or 
other damaging circumstances.  Storage shall not result in crushing the core of roll goods or flattening of the 
rolls.  Rolls shall not be stored more than two high.  Palleted materials shall be stored on level surfaces and 
shall not be stacked on top of one another.  Ultraviolet sensitive materials (i.e., PVC) shall be covered with 
a sacrificial opaque and waterproof covering or placed in a temporary shelter.  Damaged geomembrane shall be 
removed from the site and replaced with geomembrane that meets the specified requirements.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.6.3   Handling</TTL><BRK/>
<BRK/>
<TXT>Rolls/panels shall not be dragged, lifted by one end, or dropped.  A pipe or solid bar, of sufficient strength 
to support the full weight of a roll without significant bending, shall be used for all handling activities.  
The diameter of the pipe or solid bar shall be small enough to be easily inserted through the core of the roll.  
Chains shall be used to link the ends of the pipe or bar to the ends of a spreader bar.  The spreader bar shall 
be wide enough to prevent the chains from rubbing against the ends of the roll.  Alternatively, a stinger bar 
protruding from the end of a forklift or other equipment may be used.  The stinger bar shall be at least three-fourths 
the length of the core and also must be capable of supporting the full weight of the roll without significant 
bending.  If recommended by the manufacturer, a sling handling method utilizing appropriate loading straps may 
be used.</TXT><BRK/>
<BRK/></SPT>
</SPT><SPT><TTL>1.7   WEATHER LIMITATIONS</TTL><BRK/>
<BRK/>
<TXT>Geomembrane shall not be deployed or field-seamed in the presence of excess moisture (i.e., rain, fog, dew), 
in areas of ponded water, or in the presence of excess wind.  Unless authorized by the Contracting Officer, no 
placement or seaming shall be attempted at ambient temperatures below<MET> 0 degrees C</MET><ENG> 32 degrees F</ENG> or above<MET> 40 degrees 
C</MET><ENG> 104 degrees F</ENG>.  Ambient temperature shall be measured at a height no greater than<MET> 150 mm</MET><ENG> 6 inches</ENG> above the 
ground or geomembrane surface.  If seaming is allowed below<MET> 0 degrees C</MET><ENG> 32 degrees F</ENG>, the procedures outlined 
in <RID>GSI GRI GM9</RID> shall be followed.  In marginal conditions, seaming shall cease unless destructive field seam 
tests, conducted by the QC laboratory, confirm that seam properties meet the requirements listed in Table [3] 
[5].  Tests shall be conducted in accordance with paragraph Destructive Field Seam Testing.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>1.8   EQUIPMENT</TTL><BRK/>
<BRK/>
<TXT>Equipment used in performance of the work shall be in accordance with the geomembrane manufacturer's recommendations 
and shall be maintained in satisfactory working condition.</TXT><BRK/>
<BRK/></SPT>
</PRT><PRT><TTL>PART 2   PRODUCTS</TTL><BRK/>
<BRK/>
<SPT><TTL>2.1   <SUB>MATERIALS</SUB></TTL><BRK/>
<BRK/>
<SPT><TTL>2.1.1   Raw Materials</TTL><BRK/>
<BRK/>
<TXT>Resin used in manufacturing geomembrane sheets shall be made of virgin uncontaminated ingredients.  No more than 
[10] [_____] percent regrind, reworked, or trim material in the form of chips or edge strips shall be used to 
manufacture the geomembrane sheets.  All regrind, reworked, or trim materials shall be from the same manufacturer 
and exactly the same formulation as the geomembrane sheet being produced.  No post consumer materials or water-soluble 
ingredients shall be used to produce the geomembrane.  For geomembranes with plasticizers, only primary plasticizers 
that are resistant to migration shall be used.  The Contractor shall submit a copy of the test reports and QC 
certificates for materials used in the manufacturing of the geomembrane shipped to the site.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>2.1.2   Sheet Materials</TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  USACE practice on landfill cover systems has been to use a minimum nominal 
geomembrane thickness of 1 mm (40 mils).  This criterion is based on survivability.  
USACE practice for landfill liner systems has been to use a minimum nominal 
geomembrane thickness of 1.5 mm (60 mils).  Site-specific analyses should be 
conducted to determine the appropriate thickness for both landfill liners and 
covers.  Reinforced geomembranes are generally not recommended where geomembrane 
elongation properties are critical (i.e., landfill covers) but may be suitable 
for other applications such as liquid surface impoundments.  The property values 
listed in Tables 1, 2, and 4 are based on industry agreed upon Manufacturing 
Quality Control (MQC) values for 40 mil smooth and textured HDPE and 40 mil 
smooth PVC.  These values are provided as examples only.  Refer to GRI Test 
Method GM-13 when specifying MQC values for other thicknesses of HDPE.<BRK/>
<BRK/>
Tables 1 and 2 can also be used for LLDPE geomembranes.  Refer to GSI GRI GM17 
when specifying MQC property requirements for LLDPE.  If LLDPE geomembrane is 
being specified, omit property requirements for stress crack resistance (ASTM 
D 5397), yield strength (ASTM D 882), and yield elongation (ASTM D 882).<BRK/>
<BRK/>
Include property requirements for multi-axial tensile strength (ASTM D 5617).  
Property requirements for multi-axial tensile tests simulate a void beneath 
the geomembrane or differential settlement which may stress the geomembrane 
beyond its multi-axial strain limit.  Multi-axial tensile tests are typically 
specified for HDPE geomembranes only when the geomembrane is likely to be subjected 
to significant multi-axial stresses.  If multi-axial testing will be performed 
on an HDPE geomembrane, tests should be performed in accordance with ASTM D 
5617.  A minimum multi-axial tensile strain at rupture of 20 percent is typically 
specified for smooth HDPE geomembranes.  For textured HDPE geomembranes, the 
specified minimum multi-axial tensile strain at rupture should be 15 percent.<BRK/>
<BRK/>
Refer to the PVC Geomembrane Institute's PGI 1197 when specifying MQC values 
for other thicknesses of PVC.  For other material types, evaluate at least three 
current manufacturer's property sheets for each acceptable material type before 
specifying property test values.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>Geomembrane sheets shall be [unreinforced] [reinforced] and manufactured as wide as possible to minimize factory 
and field seams.  Geomembrane sheets shall be uniform in color, thickness, and surface texture.  For slopes greater 
than or equal to 1V on [_____] H, sheets shall be textured on [the upper face] [the lower face] [both faces].  
The textured surface features shall consist of raw materials identical to that of the parent sheet material and 
shall be uniform over the entire face of the geomembrane.  The sheets shall be free of and resistant to fungal 
or bacterial attack and free of cuts, abrasions, holes, blisters, contaminants and other imperfections.  Geomembrane 
sheets and factory seams shall conform to the requirements listed in Table [1] [2] [3] [4] and [5] for Manufacturing 
Quality Control (MQC).</TXT><BRK/>
<BRK/>
<MET><TBL><THD><BRK/>
<HL4>TABLE 1.  SMOOTH HDPE GEOMEMBRANE PROPERTIES</HL4><BRK/>
<BRK/>
PROPERTY               TEST VALUE        MQC TESTING       TEST METHOD<BRK/>
                                          FREQUENCY<BRK/>
                                          (MIN.)<BRK/>
  ________             __________    ___________           ___________<BRK/>
<BRK/></THD>
<BRK/>
Thickness             [1] [_____] mm        per roll       <RID>ASTM D 5199</RID><BRK/>
  (min ave)<BRK/>
<BRK/>
Lowest individual     -10 percent           per roll       <RID>ASTM D 5199</RID><BRK/>
  of 10 values<BRK/>
<BRK/>
Density (min)         0.940 g/cc          per 90,000 kg    <RID>ASTM D 1505</RID><BRK/>
<BRK/>
Tensile Properties                        per 9,000 kg     <RID>ASTM D 638</RID><BRK/>
  (1) (min ave)                                             Type IV<BRK/>
<BRK/>
  -yield stress    [15] [_____] kN/m<BRK/>
<BRK/>
  -break stress    [27] [_____] kN/m<BRK/>
<BRK/>
  -yield elong     [12] [_____] percent<BRK/>
<BRK/>
  -break elong     [700] [_____] percent<BRK/>
<BRK/>
Tear Resistance    [125] [_____] N         per 20,000 kg    <RID>ASTM D 1004</RID><BRK/>
  (min ave)<BRK/>
<BRK/>
Puncture           [320] [_____] N         per 20,000 kg    <RID>ASTM D 4833</RID><BRK/>
  Resistance<BRK/>
  (min ave)<BRK/>
<BRK/>
Stress Crack       [200] [_____] hr        per 90,000 kg    <RID>ASTM D 5397</RID><BRK/>
Resistance (2)                                               (Appendix)<BRK/>
<BRK/>
Carbon               2.0-3.0               per 9,000 kg     <RID>ASTM D 1603</RID><BRK/>
  Black Content      percent                                 (3)<BRK/>
<BRK/>
Carbon Black         Note (4)              per 20,000 kg    <RID>ASTM D 5596</RID><BRK/>
  Dispersion<BRK/>
<BRK/>
Oxidative                                  per 90,000 kg<BRK/>
  Induction<BRK/>
  Time (OIT)<BRK/>
  (min ave) (5)<BRK/>
  -Std OIT           100 min                                <RID>ASTM D 3895</RID><BRK/>
  or<BRK/>
  -High Pres OIT     400 min                                <RID>ASTM D 5885</RID><BRK/>
<BRK/>
Oven Aging at 85                           per year and     <RID>ASTM D 5721</RID><BRK/>
  deg C (min ave)                          change in <BRK/>
  (5), (6)                                 formulation<BRK/>
<BRK/>
  -Std OIT           55 percent                             <RID>ASTM D 3895</RID><BRK/>
                     at 90 days<BRK/>
  or<BRK/>
  -High Pres OIT     80 percent                             <RID>ASTM D 5885</RID><BRK/>
                     at 90 days<BRK/>
<BRK/>
UV Resistance                              per year and   <RID>GSI GRI GM11</RID><BRK/>
  (min ave) (7)                            change in<BRK/>
                                           formulation<BRK/>
<BRK/>
  -High Pres OIT(8)(9)    50 percent                              <RID>ASTM D 5885</RID><BRK/>
                          at 1600 hours</TBL></MET><BRK/>
<BRK/>
<ENG><TBL><THD><BRK/>
<HL4>TABLE 1.  SMOOTH HDPE GEOMEMBRANE PROPERTIES</HL4><BRK/>
<BRK/>
PROPERTY               TEST VALUE        MQC TESTING        TEST METHOD<BRK/>
                                          FREQUENCY<BRK/>
                                           (MIN.)<BRK/>
________               __________        ___________        ___________<BRK/>
<BRK/></THD>
<BRK/>
Thickness          [40] [_____] mils       per roll         <RID>ASTM D 5199</RID><BRK/>
  (min ave)<BRK/>
<BRK/>
Lowest individual     -10 percent          per roll         <RID>ASTM D 5199</RID><BRK/>
  of 10 values<BRK/>
<BRK/>
Density (min)         0.940 g/cc          per 200,000 lb    <RID>ASTM D 1505</RID><BRK/>
<BRK/>
Tensile Properties                        per 20,000 lb     <RID>ASTM D 638</RID><BRK/>
  (1) (min ave)                                              Type IV<BRK/>
<BRK/>
  -yield stress    [84] [_____] lb/in<BRK/>
<BRK/>
  -break stress    [152] [_____] lb/in<BRK/>
<BRK/>
  -yield elong     [12] [_____] percent<BRK/>
<BRK/>
  -break elong     [700] [_____] percent<BRK/>
<BRK/>
Tear Resistance    [28] [_____] lb         per 45,000 lb    <RID>ASTM D 1004</RID><BRK/>
  (min ave)<BRK/>
<BRK/>
Puncture           [72] [_____] lb         per 45,000 lb    <RID>ASTM D 4833</RID><BRK/>
  Resistance<BRK/>
  (min ave)<BRK/>
<BRK/>
Stress Crack       [200] [_____] hr        per 200,000 lb   <RID>ASTM D 5397</RID><BRK/>
  Resistance (2)                                                (Appendix)<BRK/>
<BRK/>
Carbon                 2.0-3.0             per 20,000 lb    <RID>ASTM D 1603</RID><BRK/>
  Black Content        percent                               (3)<BRK/>
<BRK/>
Carbon Black           Note (4)            per 45,000 lb    <RID>ASTM D 5596</RID><BRK/>
  Dispersion<BRK/>
<BRK/>
Oxidative                                  per 200,000 lb<BRK/>
 Induction<BRK/>
 Time (OIT)<BRK/>
 (min ave) (5)<BRK/>
  -Std OIT             100 min                              <RID>ASTM D 3895</RID><BRK/>
  or<BRK/>
  -High Pres OIT       400 min                              <RID>ASTM D 5885</RID><BRK/>
<BRK/>
Oven Aging at 85                           per year and     <RID>ASTM D 5721</RID><BRK/>
 deg C (min ave)                            change in <BRK/>
 (5), (6)                                  formulation<BRK/>
<BRK/>
  -Std OIT            55 percent                            <RID>ASTM D 3895</RID><BRK/>
                      at 90 days<BRK/>
  or<BRK/>
  -High Pres OIT      80 percent                            <RID>ASTM D 5885</RID><BRK/>
                      at 90 days<BRK/>
<BRK/>
UV Resistance                              per year and    <RID>GSI GRI GM11</RID><BRK/>
  (min ave) (7)                             change in<BRK/>
                                           formulation<BRK/>
<BRK/>
  -High Pres OIT(8)(9)      50 percent                           <RID>ASTM D 5885</RID><BRK/>
                            at 1600 hours</TBL></ENG><BRK/>
<BRK/>
<MET><TBL><THD><BRK/>
<HL4>TABLE 2.  TEXTURED HDPE GEOMEMBRANE PROPERTIES</HL4><BRK/>
<BRK/>
PROPERTY              TEST VALUE         MQC TESTING        TEST METHOD<BRK/>
                                          FREQUENCY<BRK/>
                                            (MIN.)<BRK/>
________              __________         ___________        ___________<BRK/>
<BRK/></THD>
<BRK/>
Nominal Thickness   [1.0] [_____] mm <BRK/>
<BRK/>
Thickness           -5 percent            per roll         <RID>ASTM D 5994</RID><BRK/>
  (min ave)         of nominal<BRK/>
<BRK/>
Lowest individual     -10 percent          per roll         <RID>ASTM D 5994</RID><BRK/>
  for 8 out of 10     of nominal  <BRK/>
  values<BRK/>
<BRK/>
Lowest individual     -15 percent          per roll         <RID>ASTM D 5994</RID><BRK/>
  of 10 values        of nominal<BRK/>
<BRK/>
Asperity Height        0.25 mm           every second roll <RID>GSI GRI GM12</RID> (11)<BRK/>
  (min ave)(10)<BRK/>
<BRK/>
Density (min)        0.940 g/cc         per 90,000 kg       <RID>ASTM D 1505</RID><BRK/>
<BRK/>
Tensile Properties                      per 9,000 kg        <RID>ASTM D 638</RID><BRK/>
  (1) (min ave)                                              Type IV<BRK/>
<BRK/>
  -yield stress    [15] [_____] kN/m<BRK/>
<BRK/>
  -break stress    [11] [_____] kN/m<BRK/>
<BRK/>
  -yield elong     [12] [_____] percent<BRK/>
<BRK/>
  -break elong     [100] [_____] percent<BRK/>
<BRK/>
Tear Resistance    [125] [_____] N         per 20,000 kg    <RID>ASTM D 1004</RID><BRK/>
  (min ave)<BRK/>
<BRK/>
Puncture           [267] [_____] N         per 20,000 kg    <RID>ASTM D 4833</RID><BRK/>
  Resistance<BRK/>
  (min ave)<BRK/>
<BRK/>
Stress Crack       [200] [_____] hr        per 90,000 kg    <RID>ASTM D 5397</RID><BRK/>
  Resistance (2)                                            (Appendix)<BRK/>
<BRK/>
Carbon                 2.0-3.0             per 9,000 kg     <RID>ASTM D 1603</RID><BRK/>
  Black Content        percent                                (3)<BRK/>
<BRK/>
Carbon Black           Note (4)            per 20,000 kg    <RID>ASTM D 5596</RID><BRK/>
  Dispersion<BRK/>
<BRK/>
Oxidative                                  per 90,000 kg<BRK/>
  Induction<BRK/>
  Time (OIT)<BRK/>
  (min ave) (5)<BRK/>
  -Std OIT            100 min                               <RID>ASTM D 3895</RID><BRK/>
  or<BRK/>
  -High Pres OIT      400 min                               <RID>ASTM D 5885</RID><BRK/>
<BRK/>
Oven Aging at 85                          per year and      <RID>ASTM D 5721</RID><BRK/>
  deg C (min ave)                          change in <BRK/>
  (5), (6)                                formulation<BRK/>
<BRK/>
  -Std OIT            55 percent                            <RID>ASTM D 3895</RID><BRK/>
                      at 90 days<BRK/>
  or<BRK/>
  -High Pres OIT      80 percent                            <RID>ASTM D 5885</RID><BRK/>
                      at 90 days<BRK/>
<BRK/>
UV Resistance                             per year and   <RID>GSI GRI GM11</RID><BRK/>
  (min ave) (7)                           change in<BRK/>
                                          formulation<BRK/>
<BRK/>
  -High Pres OIT(8)(9)      50 percent                            <RID>ASTM D 5885</RID><BRK/>
                            at 1600 hours<BRK/>
<BRK/>
MQC = Manufacturing Quality Control<BRK/>
<BRK/>
Note (1):  Minimum average machine direction and minimum average cross machine direction values shall be based on 
5 test specimens in each direction.  For HDPE geomembrane, yield elongation is calculated using a gauge length of<MET>
 33 mm</MET><ENG> 1.3 inches</ENG>.  For HDPE geomembrane, break elongation is calculated using a gauge length of<MET> 50 mm</MET><ENG> 2.0 inches</ENG>
.  For LLDPE geomembrane, break elongation is calculated using a gage length of<MET> 50 mm</MET><ENG> 2.0 inches</ENG> at<MET> 50 mm/min</MET><ENG> 2 inches/min</ENG>.<BRK/>
<BRK/>
Note (2):  For HDPE geomembrane, the yield stress used to calculate the applied load for test method <RID>ASTM D 5397</RID> 
(Appendix), shall be the manufacturer's mean value.  <RID>ASTM D 5397</RID> does not need to be run on LLDPE geomembrane.<BRK/>
<BRK/>
Note (3):  Other methods such as <RID>ASTM D 4218</RID> or microwave methods are acceptable if an appropriate correlation to <RID>
ASTM D 1603</RID> can be established.<BRK/>
<BRK/>
Note (4):  Carbon black dispersion for 10 different views:<BRK/>
             - minimum 8 of 10 in Categories 1 or 2<BRK/>
             - all 10 in Categories 1,2, or 3<BRK/>
<BRK/>
Note (5):  The manufacturer has the option to select either one of the OIT methods to evaluate the antioxidant content.<BRK/>
<BRK/>
Note (6):  Evaluate samples at 30 and 60 days and compare with the 90 day response.<BRK/>
<BRK/>
Note (7):  The condition of the test shall be a 20 hour UV cycle at<MET> 75 degrees C</MET><ENG> 167 degrees F</ENG> followed by a 4 hour 
condensation cycle at<MET> 60 degrees C</MET><ENG> 140 degrees F</ENG>.<BRK/>
<BRK/>
Note (8):  The standard OIT test (ASTM D3895) shall not be used in determining UV resistance.<BRK/>
<BRK/>
Note (9):  UV resistance is based on percent retained value regardless of the original HP-OIT value.<BRK/>
<BRK/>
Note (10):  Textured Geomembrane Only:  Of 10 readings; 8 out of 10 must be  7 mil, and lowest individual reading 
must be  5 mil.<BRK/>
<BRK/>
Note (11):  Textured Geomembrane Only:  Alternate the measurement side for double sided textured sheet.</TBL></MET><BRK/>
<BRK/>
<ENG><TBL><THD><BRK/>
<HL4>TABLE 2.  TEXTURED HDPE GEOMEMBRANE PROPERTIES</HL4><BRK/>
<BRK/>
PROPERTY             TEST VALUE         MQC TESTING         TEST METHOD<BRK/>
                                         FREQUENCY<BRK/>
                                     (MIN.)<BRK/>
  ________           __________         ___________         ___________<BRK/>
<BRK/></THD>
<BRK/>
Nominal Thickness  [40] [_____] mils<BRK/>
<BRK/>
Thickness          -5 percent            per roll           <RID>ASTM D 5994</RID><BRK/>
  (min ave)        of nominal  <BRK/>
<BRK/>
Lowest individual    -10 percent          per roll          <RID>ASTM D 5994</RID><BRK/>
  for 8 out of 10    of nominal<BRK/>
  values<BRK/>
<BRK/>
Lowest individual    -15 percent          per roll          <RID>ASTM D 5994</RID><BRK/>
  of 10 values       of nominal<BRK/>
<BRK/>
Asperity Height        10 mils           every second roll <RID>GSI GRI GM12</RID> (11)<BRK/>
  (min ave)(10)<BRK/>
<BRK/>
Density (min)        0.940 g/cc          per 200,000 lb     <RID>ASTM D 1505</RID><BRK/>
<BRK/>
Tensile Properties                       per 20,000 lb      <RID>ASTM D 638</RID><BRK/>
  (1) (min ave)                                              Type IV<BRK/>
<BRK/>
  -yield stress    [84] [_____] lb/in<BRK/>
<BRK/>
  -break stress    [60] [_____] lb/in<BRK/>
<BRK/>
  -yield elong     [12] [_____] percent<BRK/>
<BRK/>
  -break elong     [100] [_____] percent<BRK/>
<BRK/>
Tear Resistance    [28] [_____] lb       per 45,000 lb      <RID>ASTM D 1004</RID><BRK/>
  (min ave)<BRK/>
<BRK/>
Puncture           [60] [_____] lb       per 45,000 lb      <RID>ASTM D 4833</RID><BRK/>
  Resistance<BRK/>
  (min ave)<BRK/>
<BRK/>
Stress Crack       [200] [_____] hr      per 200,000 lb     <RID>ASTM D 5397</RID><BRK/>
  Resistance (2)                                             (Appendix)<BRK/>
<BRK/>
Carbon                2.0-3.0            per 20,000 lb      <RID>ASTM D 1603</RID> (3)<BRK/>
  Black Content      percent<BRK/>
<BRK/>
Carbon Black         Note (4)            per 45,000 lb      <RID>ASTM D 5596</RID><BRK/>
  Dispersion<BRK/>
<BRK/>
Oxidative                                per 200,000 lb<BRK/>
  Induction<BRK/>
  Time (OIT)<BRK/>
  (min ave) (5)<BRK/>
  -Std OIT           100 min                               <RID>ASTM D 3895</RID><BRK/>
  or<BRK/>
  -High Pres OIT     400 min                               <RID>ASTM D 5885</RID><BRK/>
<BRK/>
Oven Aging at 85                        per year and       <RID>ASTM D 5721</RID><BRK/>
  deg C (min ave)                        change in <BRK/>
  (5), (6)                              formulation<BRK/>
<BRK/>
  -Std OIT           55 percent                            <RID>ASTM D 3895</RID><BRK/>
                     at 90 days<BRK/>
  or<BRK/>
  -High Pres OIT     80 percent                            <RID>ASTM D 5885</RID><BRK/>
                     at 90 days<BRK/>
<BRK/>
UV Resistance                           per year and   <RID>GSI GRI GM11</RID><BRK/>
  (min ave) (7)                          change in<BRK/>
                                        formulation<BRK/>
<BRK/>
  -High Pres OIT(8)(9)     50 percent                            <RID>ASTM D 5885</RID><BRK/>
                      at 1600 hours<BRK/>
<BRK/>
MQC = Manufacturing Quality Control<BRK/>
<BRK/>
Note (1):  Minimum average machine direction and minimum average cross machine direction values shall be based on 
5 test specimens in each direction.  For HDPE geomembrane, yield elongation is calculated using a gauge length of<MET>
 33 mm</MET><ENG> 1.3 inches</ENG>.  For HDPE geomembrane, break elongation is calculated using a gauge length of<MET> 50 mm</MET><ENG> 2.0 inches</ENG>
.  For LLDPE geomembrane, break elongation is calculated using a gage length of<MET> 50 mm</MET><ENG> 2.0 inches</ENG> at<MET> 50 mm/min</MET><ENG> 2 inches/min</ENG>.<BRK/>
<BRK/>
Note (2):  For HDPE geomembrane, the yield stress used to calculate the applied load for test method <RID>ASTM D 5397</RID> 
(Appendix), shall be the manufacturer's mean value.  <RID>ASTM D 5397</RID> does not need to be run on LLDPE geomembrane.<BRK/>
<BRK/>
Note (3):  Other methods such as <RID>ASTM D 4218</RID> or microwave methods are acceptable if an appropriate correlation to <RID>
ASTM D 1603</RID> can be established.<BRK/>
<BRK/>
Note (4):  Carbon black dispersion for 10 different views:<BRK/>
             - minimum 8 of 10 in Categories 1 or 2<BRK/>
             - all 10 in Categories 1,2, or 3<BRK/>
<BRK/>
Note (5):  The manufacturer has the option to select either one of the OIT methods to evaluate the antioxidant content.<BRK/>
<BRK/>
Note (6):  Evaluate samples at 30 and 60 days and compare with the 90 day response.<BRK/>
<BRK/>
Note (7):  The condition of the test shall be a 20 hour UV cycle at<MET> 75 degrees C</MET><ENG> 167 degrees F</ENG> followed by a 4 hour 
condensation cycle at<MET> 60 degrees C</MET><ENG> 140 degrees F</ENG>.<BRK/>
<BRK/>
Note (8):  The standard OIT test (ASTM D3895) shall not be used in determining UV resistance.<BRK/>
<BRK/>
Note (9):  UV resistance is based on percent retained value regardless of the original HP-OIT value.<BRK/>
<BRK/>
Note (10):  Textured Geomembrane Only:  Of 10 readings; 8 out of 10 must be  7 mil, and lowest individual reading 
must be  5 mil.<BRK/>
<BRK/>
Note (11):  Textured Geomembrane Only:  Alternate the measurement side for double sided textured sheet.</TBL></ENG><BRK/>
<BRK/>
<MET><TBL><THD><BRK/>
              TABLE 3.  HDPE SEAM PROPERTIES<BRK/>
<BRK/>
   PROPERTY               TEST VALUE            TEST METHOD<BRK/>
   ________               __________            ___________<BRK/>
<BRK/></THD>
<BRK/>
  Seam Shear           [14.0] [_____] kN/m   <RID>ASTM D 6392</RID><BRK/>
  Strength                                      <BRK/>
  (min) (1)                                     <BRK/>
<BRK/>
  Seam Peel            [8.4] [_____] kN/m    <RID>ASTM D 6392</RID><BRK/>
  Strength                                      <BRK/>
  (min) (1) (2)                                 <BRK/>
<BRK/>
Note (1):  Seam tests for peel and shear must fail in the Film Tear Bond mode.  This is a failure in the ductile 
mode of one of the bonded sheets by tearing or breaking prior to complete separation of the bonded area.<BRK/>
<BRK/>
Note (2):  Where applicable, both tracks of a double hot wedge seam shall be tested for peel adhesion.</TBL></MET><BRK/>
<BRK/>
<ENG><TBL><THD><BRK/>
<HL4>TABLE 3.  HDPE SEAM PROPERTIES</HL4><BRK/>
<BRK/>
   PROPERTY                TEST VALUE           TEST METHOD<BRK/>
   ________                __________           ___________<BRK/>
<BRK/></THD>
<BRK/>
  Seam Shear           [80] [_____] lb/in    <RID>ASTM D 6392</RID><BRK/>
  Strength                                      <BRK/>
  (min) (1)                                     <BRK/>
<BRK/>
  Seam Peel            [48] [_____] lb/in    <RID>ASTM D 6392</RID><BRK/>
  Strength                                      <BRK/>
  (min) (1) (2)                                 <BRK/>
<BRK/>
Note (1):  Seam tests for peel and shear must fail in the Film Tear Bond mode.  This is a failure in the ductile 
mode of one of the bonded sheets by tearing or breaking prior to complete separation of the bonded area.<BRK/>
<BRK/>
Note (2):  Where applicable, both tracks of a double hot wedge seam shall be tested for peel adhesion.</TBL></ENG><BRK/>
<BRK/>
<MET><TBL><THD><BRK/>
<HL4>TABLE 4.  SMOOTH PVC GEOMEMBRANE PROPERTIES</HL4><BRK/>
<BRK/>
  PROPERTY               TEST VALUE                  TEST METHOD<BRK/>
  ________               __________                  ___________<BRK/></THD>
<BRK/>
  Thickness            [1] [_____] mm                <RID>ASTM D 1593</RID><BRK/>
  (nominal)<BRK/>
<BRK/>
  Thickness            [0.95] [_____] mm             <RID>ASTM D 1593</RID><BRK/>
  (min)<BRK/>
<BRK/>
  Specific             1.2 g/ml                      <RID>ASTM D 792</RID><BRK/>
  Gravity (min)<BRK/>
<BRK/>
  Tensile Properties                                 <RID>ASTM D 882</RID><BRK/>
  (min)                                              Method A<BRK/>
<BRK/>
    -break strength    [17.0] [_____] kN/m<BRK/>
    (MD and TD)<BRK/>
<BRK/>
    -elongation @      [400] [_____] percent<BRK/>
     break (MD and<BRK/>
     TD)<BRK/>
<BRK/>
    -modulus @ 100     [7.2] [_____] kN/m<BRK/>
     percent (MD and<BRK/>
     TD)<BRK/>
<BRK/>
  Tear Resistance      [46.7] [_____] kN/m          <RID>ASTM D 1004</RID><BRK/>
  (min)                                              Die C<BRK/>
<BRK/>
  Low Temp,            -29 degrees C                 <RID>ASTM D 1790</RID><BRK/>
  pass<BRK/>
<BRK/>
  Dimensional          [3] [_____] percent          <RID>ASTM D 1204</RID><BRK/>
  Stability (max)<BRK/>
  (MD and TD)<BRK/>
<BRK/>
  Water                [0.2] [_____] percent         See Note 1<BRK/>
  Extraction (max)     loss<BRK/>
<BRK/>
  Volatile Loss        [0.5] [_____] percent        <RID>ASTM D 1203</RID><BRK/>
  (max)                loss                            (A)<BRK/>
<BRK/>
  Resistance to                                      See Note 1<BRK/>
  Soil Burial<BRK/>
    -breaking factor      +/-  5 percent<BRK/>
    -elongation @         +/- 20 percent<BRK/>
       break<BRK/>
    -100 percent          +/- 20 percent<BRK/>
       modulus<BRK/>
Water Vapor             .00000000005 m/sec          <RID>ASTM D 814</RID><BRK/>
Transmission (max) <BRK/>
  Hydrostatic          [827] [_____] kN/sq m        <RID>ASTM D 751</RID><BRK/>
  Resistance                                          (A)<BRK/>
  (min)<BRK/>
* MD = Machine Direction<BRK/>
* TD = Transverse Direction<BRK/>
<BRK/>
NOTE 1:  Water Extraction and Resistance to Soil Burial testing shall be performed in accordance with manufacturer's 
approved procedures.</TBL></MET><BRK/>
<BRK/>
<ENG><TBL><THD><BRK/>
<HL4>TABLE 4.  SMOOTH PVC GEOMEMBRANE PROPERTIES</HL4><BRK/>
<BRK/>
  PROPERTY                TEST VALUE                TEST METHOD<BRK/>
  ________                __________                ___________<BRK/>
<BRK/></THD>
<BRK/>
  Thickness            [40] [_____] mils            <RID>ASTM D 1593</RID><BRK/>
  (nominal)<BRK/>
<BRK/>
  Thickness            [38] [_____] mils            <RID>ASTM D 1593</RID><BRK/>
  (min)<BRK/>
<BRK/>
  Specific             1.2 g/ml                     <RID>ASTM D 792</RID><BRK/>
  Gravity (min)<BRK/>
<BRK/>
  Tensile Properties                                <RID>ASTM D 882</RID><BRK/>
  (min)                                              Method A<BRK/>
<BRK/>
    -break strength    [97] [_____] lb/in<BRK/>
    (MD and TD)<BRK/>
<BRK/>
    -elongation @      [400] [_____] percent<BRK/>
     break (MD and<BRK/>
     TD)<BRK/>
<BRK/>
    -modulus @ 100     [41] [_____] lb/in<BRK/>
     percent (MD and<BRK/>
     TD)<BRK/>
<BRK/>
  Tear Resistance      [10.5] [_____] lb/in         <RID>ASTM D 1004</RID><BRK/>
  (min)                                              Die C<BRK/>
<BRK/>
  Low Temp,            -20 degrees F                 <RID>ASTM D 1790</RID><BRK/>
  pass<BRK/>
<BRK/>
  Dimensional          3 percent                    <RID>ASTM D 1204</RID><BRK/>
  Stability (max)<BRK/>
  (MD and TD)<BRK/>
<BRK/>
  Water                [0.2] [_____] percent         See Note 1<BRK/>
  Extraction (max)     loss<BRK/>
<BRK/>
  Volatile Loss        [0.5] [_____] percent        <RID>ASTM D 1203</RID><BRK/>
  (max)                loss                           (A)<BRK/>
  <BRK/>
  Resistance to                                      See Note 1<BRK/>
  Soil Burial<BRK/>
    -breaking factor      +/- 5 percent<BRK/>
    -elongation @         +/- 20 percent<BRK/>
       break<BRK/>
    -100 percent          +/- 20 percent<BRK/>
       modulus<BRK/>
Water Vapor             .00000000005 m/sec          <RID>ASTM D 814</RID><BRK/>
Transmission (max) <BRK/>
  Hydrostatic          [120] [_____] lb/sq in       <RID>ASTM D 751</RID><BRK/>
  Resistance                                          (A)<BRK/>
  (min)<BRK/>
* MD = Machine Direction<BRK/>
* TD = Transverse Direction<BRK/>
<BRK/>
NOTE 1:  Water Extraction and Resistance to Soil Burial testing shall be performed in accordance with manufacturer's 
approved procedures.</TBL></ENG><BRK/>
<BRK/>
<MET><TBL><THD><BRK/>
<HL4>TABLE 5.  PVC SEAM PROPERTIES</HL4><BRK/>
<BRK/>
   PROPERTY                     TEST VALUE              TEST METHOD<BRK/>
   ________                     __________              ___________<BRK/>
<BRK/></THD>
<BRK/>
  Seam Shear               [13.5] [_____] kN/m          Installers<BRK/>
  Strength                                              approved<BRK/>
  (min)                                                 procedure<BRK/>
<BRK/>
  Seam Peel                [2.6] [_____] kN/m           Installers<BRK/>
  Strength                                              approved<BRK/>
  (min) (1)                                             procedure<BRK/>
<BRK/>
Note (1):  Where applicable, both tracks of a double hot wedge seam shall be tested for peel adhesion.</TBL></MET><BRK/>
<BRK/>
<ENG><TBL><BRK/>
<THD><HL4>TABLE 5.  PVC SEAM PROPERTIES</HL4><BRK/>
<BRK/>
   PROPERTY                    TEST VALUE               TEST METHOD<BRK/>
   ________                    __________               ___________<BRK/></THD>
<BRK/>
  Seam Shear              [77] [_____] lb/in            Installers<BRK/>
  Strength                                              approved<BRK/>
  (min)                                                 procedure<BRK/>
<BRK/>
  Seam Peel               [15] [_____] lb/in            Installers<BRK/>
  Strength                                              approved<BRK/>
  (min) (1)                                             procedure<BRK/>
<BRK/>
Note (1):  Where applicable, both tracks of a double hot wedge seam shall be tested for peel adhesion.</TBL></ENG><BRK/>
<BRK/></SPT>
<SPT><TTL>2.1.3   Factory Seams</TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  Polyethylene geomembranes are not usually factory seamed.  Delete this 
paragraph when factory seaming is not applicable.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>Geomembrane sheets shall be factory seamed into maximum sized panels to minimize field seaming.  Factory seaming 
shall be by methods approved by the geomembrane manufacturer.  Seams shall meet the minimum shear and peel strength 
requirements shown in Table [3] [5].  Factory seams shall extend to the end of the sheet so that no unbonded 
edges greater than<MET> 3.2 mm</MET><ENG> 1/8 inch</ENG> wide are present.</TXT><BRK/>
<BRK/></SPT>
</SPT><SPT><TTL>2.2   <SUB>TESTS, INSPECTIONS, AND VERIFICATIONS</SUB></TTL><BRK/>
<BRK/>
<SPT><TTL>2.2.1   <SUB>Interface Friction Testing</SUB></TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  Interface friction testing should be conducted on all potential slip 
interfaces.  The rate of displacement and normal stresses used for interface 
friction testing are dependent on the materials being tested and anticipated 
site conditions.  Normal stresses specified should cover the range of anticipated 
field loads.  Selection of peak versus residual values should be based on anticipated 
interface displacements taking into account seismic activities and long term conditions.<BRK/>
<BRK/>
The number of interface friction tests must be determined on a site specific 
basis considering regulator input and the potential for damage due to a shear 
failure.  This testing should be completed during design or by the Contractor 
prior to the start of construction.<BRK/>
<BRK/>
A method sometimes used to model saturated conditions at the shear interface 
is to wet these surfaces prior to shearing.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>Laboratory interface friction tests shall be conducted on the following interfaces:  [_____].  The frequency 
of testing for each interface shall be [1 per [_____] acres of geomembrane placed] [[_____] per project].  Tests 
shall be conducted in accordance with <RID>ASTM D 5321</RID>.  Normal stresses of [_____], [_____], and [_____]<MET> kPa</MET><ENG> psi</ENG> 
along with a displacement rate of<MET> [1.0] [5.0] [_____] mm</MET><ENG> [0.04] [0.2] [_____] inches</ENG> per minute shall be used.  
Interfaces tested shall be [wet] [dry].  Soil components shall be the same as used for full scale construction 
and shall be compacted to the same moisture-density requirements specified for full scale field placement.  Geosynthetics 
shall be the same materials as those proposed for use during full scale construction.  Geosynthetics shall be 
oriented such that the shear force is parallel to the down slope orientation of these components in the field.  
A minimum [peak] [residual] interface friction angle of [_____] degrees is required for all interfaces.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>2.2.2   Manufacturing, Sampling, and Testing</TTL><BRK/>
<BRK/>
<SPT><TTL>2.2.2.1   Raw Materials</TTL><BRK/>
<BRK/>
<TXT>Raw materials shall be tested in accordance with the approved MQC manual.  Any raw material which fails to meet 
the geomembrane manufacturer's specified physical properties shall not be used in manufacturing the sheet.  Seaming 
rods and pellets shall be manufactured of materials which are essentially identical to that used in the geomembrane 
sheet.  Seaming rods and pellets shall be tested for density, melt index and carbon black content in accordance 
with the approved MQC manual.  Seaming rods and pellets which fail to meet the corresponding property values 
required for the sheet material, shall not be used for seaming.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>2.2.2.2   Sheet Material</TTL><BRK/>
<BRK/>
<TXT>Geomembrane sheets shall be tested in accordance with the approved MQC manual.  As a minimum, MQC testing shall 
be conducted at the frequencies shown in Table 1.  Sheets not meeting the minimum requirements specified in Table 
1 shall not be sent to the site.</TXT><BRK/>
<BRK/></SPT>
</SPT></SPT></PRT><PRT><TTL>PART 3   EXECUTION</TTL><BRK/>
<BRK/>
<SPT><TTL>3.1   PREPARATION</TTL><BRK/>
<BRK/>
<SPT><TTL>3.1.1   <SUB>Surface Preparation</SUB></TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  Ensure other sections of the specification package adequately address 
compaction requirements for soil subgrade layers.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>Surface preparation shall be performed in accordance with Section <SRF>[_____]</SRF>.  Rocks larger than<MET> [13] [_____] mm</MET><ENG>
 [1/2] [_____] inch</ENG> in diameter and any other material which could damage the geomembrane shall be removed from 
the surface to be covered with the geomembrane.  Construction equipment tire or track deformations beneath the 
geomembrane shall not be greater than<MET> 25 mm</MET><ENG> 1.0 inch</ENG> in depth.  Each day during placement of geomembrane, the 
[QC Inspector] [Contracting Officer] and installer shall inspect the surface on which geomembrane is to be placed 
and certify in writing that the surface is acceptable.  Repairs to the subgrade shall be performed at no additional 
cost to the Government.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.1.2   Anchor Trenches</TTL><BRK/>
<BRK/>
<TXT>Where an anchor trench is required, it shall be placed<MET> [610] [_____] mm</MET><ENG> [24] [_____] inches</ENG> back from the edge 
of the slope to be covered.  The anchor trench shall be<MET> [610] [_____] mm</MET><ENG> [24] [_____] inches</ENG> deep and<MET> [460] [_____] 
mm</MET><ENG> [18] [_____] inches</ENG> wide.  If the anchor trench is excavated in cohesive soil susceptible to desiccation, 
only the amount of anchor trench required for placement of geomembrane in a single day shall be excavated.  Ponded 
water shall be removed from the anchor trench while the trench is open.  Trench corners shall be slightly rounded 
to avoid sharp bends in the geomembrane.  Loose soil, rocks larger than<MET> [13] [_____] mm</MET><ENG> [1/2] [_____] inch</ENG> in 
diameter, and any other material which could damage the geomembrane shall be removed from the surfaces of the 
trench.  The geomembrane shall extend down the front wall and across the bottom of the anchor trench.  Backfilling 
and compaction of the anchor trench shall be in accordance with Section <SRF>[_____]</SRF>.</TXT><BRK/>
<BRK/></SPT>
</SPT><SPT><TTL>3.2   GEOMEMBRANE DEPLOYMENT</TTL><BRK/>
<BRK/>
<TXT>The procedures and equipment used shall not elongate, wrinkle, scratch, or otherwise damage the geomembrane, 
other geosynthetic layers, or the underlying subgrade.  Geomembrane damaged during installation shall be replaced 
or repaired, at the [QC inspector's] [Contracting Officer's] discretion.  Only geomembrane panels that can be 
anchored and seamed together the same day shall be deployed.  Adequate ballast (i.e., sand bags) shall be placed 
on the geomembrane, without damaging the geomembrane, to prevent uplift by wind.  No equipment shall be operated 
on the top surface of the geomembrane without permission from the Contracting Officer.  Seams shall be oriented 
parallel to the line of maximum slope.  Where seams can only be oriented across the slope, the upper panel shall 
be lapped over the lower panel.  The methods used to deploy and backfill over the geomembrane shall minimize 
wrinkles and tensile stresses in the geomembrane.  The geomembrane shall have adequate slack to prevent the creation 
of tensile stress.  The wrinkle height to width ratio for installed geomembrane shall not exceed 0.5.  In addition, 
geomembrane wrinkles shall not exceed<MET> 150 m</MET><ENG> 6 inches</ENG> in height.  Wrinkles that do not meet the above criteria 
shall be cut out and repaired in accordance with the installer's approved QC manual.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.3   <SUB>FIELD SEAMING</SUB></TTL><BRK/>
<BRK/>
<SPT><TTL>3.3.1   Trial Seams</TTL><BRK/>
<BRK/>
<TXT>Trial seams shall be made under field conditions on strips of excess geomembrane.  Trial seams shall be made 
each day prior to production seaming, whenever there is a change in seaming personnel or seaming equipment and 
at least once every four hours, by each seamer and each piece of seaming equipment used that day.  Trial seam 
samples shall be collected and tested in accordance with <RID>ASTM D 6392</RID>.  One sample shall be obtained from each 
trial seam.  This sample shall be at least<MET> 920 mm long by 305 mm wide</MET><ENG> 36 inches long by 12 inches wide</ENG> with the 
seam centered lengthwise.  Ten random specimens<MET> 25.4 mm</MET><ENG> 1 inch</ENG> wide shall be cut from the sample.  Five seam 
specimens shall be field tested for shear strength and 5 seam specimens shall be field tested for peel adhesion 
using an approved quantitative tensiometer.  Where necessary, accelerated curing of trial seams made by chemical 
methods shall be conducted in accordance with <RID>GSI GRI GM7</RID>.  To be acceptable, 4 out of 5 replicate test specimens 
shall meet seam strength requirements specified in Table [3] [5].  If the field tests fail to meet these requirements, 
the entire operation shall be repeated.  If the additional trial seam fails, the seaming apparatus or seamer 
shall not be used until the deficiencies are corrected by the installer and 2 consecutive successful trial seams 
are achieved.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.3.2   Field Seams</TTL><BRK/>
<TXT><BRK/>
Panels shall be seamed in accordance with the geomembrane manufacturer's recommendations.  In sumps, corners 
and odd-shaped geometric locations, the number of field seams shall be minimized.  Seaming shall extend to the 
outside edge of panels.  Soft subgrades shall be compacted and approved prior to seaming.  The seam area shall 
be free of moisture, dust, dirt, and foreign material at the time of seaming.  Fish mouths in seams shall be 
repaired.</TXT><BRK/>
<BRK/>
<SPT><TTL>3.3.2.1   Polyethylene Seams</TTL><BRK/>
<BRK/>
<TXT>Polyethylene geomembranes shall be seamed by thermal fusion methods.  Extrusion welding shall only be used for 
patching and seaming in locations where thermal fusion methods are not feasible.  Seam overlaps that are to be 
attached using extrusion welds shall be ground prior to welding.  Grinding marks shall be oriented perpendicular 
to the seam direction and no marks shall extend beyond the extrudate after placement.  Extrusion welding shall 
begin within 10 minutes after grinding.  Where extrusion welds are temporarily terminated long enough to cool, 
they shall be ground prior to applying new extrudate over the existing seam.  The total depth of the grinding 
marks shall be no greater than 10 percent of the sheet thickness.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.3.2.2   Non-Polyethylene Seams</TTL><BRK/>
<BRK/>
<TXT>Non-polyethylene geomembranes shall be seamed by methods as recommended by the geomembrane manufacturer.  Seaming 
adhesives, solvents, or chemical cleaning agents shall be stored away from the geomembrane and only spill-resistant 
containers shall be used while working on the geomembrane.  If low temperatures slow the curing process of chemically 
fused seams and delay seam testing, <RID>GSI GRI GM7</RID> shall be used to accelerate sample curing.</TXT><BRK/>
<BRK/></SPT>
</SPT></SPT><SPT><TTL>3.4   <SUB>SAMPLES</SUB></TTL><BRK/>
<BRK/>
<TXT>One QC sample, <MET>500 mm</MET><ENG> 18 inches</ENG> in length, for the entire width of a roll, shall be obtained for every<MET> 9,000 
square meters</MET><ENG> 100,000 square feet</ENG> of material delivered to the site.  Samples shall not be obtained from the 
first three feet of the roll.  For accordion folded geomembranes, samples of equivalent size shall be collected 
from approved locations.  The samples shall be identified by manufacturer's name, product identification, lot 
and roll/panel number.  The date, a unique sample number, and the machine direction shall also be noted.  In 
addition, a<MET> [305 by 305 mm] [_____]</MET><ENG> [12 inch by 12 inch] [_____]</ENG> QA sample shall be collected, labeled, and submitted 
to the Contracting Officer each time QC samples are collected.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.5   <SUB>TESTS</SUB></TTL><BRK/>
<BRK/>
<TXT>The Contractor shall provide all QC samples to the QC laboratory to determine density, thickness, tensile strength 
at break, and elongation at break in accordance with the methods specified in Table [1] [2] [4].  Samples not 
meeting the specified requirements shall result in the rejection of applicable rolls/panels.  As a minimum, rolls/panels 
produced immediately prior to and immediately after the failed roll/panel shall be tested for the same failed 
parameter.  Testing shall continue until a minimum of three successive rolls/panels on both sides of the original 
failing roll/panel pass the failed parameter.</TXT><BRK/>
<BRK/>
<SPT><TTL>3.5.1   <SUB>Non-Destructive Field Seam Continuity Testing</SUB></TTL><BRK/>
<BRK/>
<TXT>Field seams shall be non-destructively tested for continuity over their full length in accordance with the installer's 
approved QC manual.  Seam testing shall be performed as the seaming work progresses, not at the completion of 
field seaming.  Any seams which fail shall be documented and repaired in accordance with the installer's approved 
QC manual.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.5.2   <SUB>Destructive Field Seam Testing</SUB></TTL><BRK/>
<BRK/>
<TXT>A minimum of one destructive test sample per<MET> [230] [_____] m</MET><ENG> [750] [_____] feet</ENG> of field seam shall be obtained 
at locations specified by the [QC inspector] [Contracting Officer].  Sample locations shall not be identified 
prior to seaming.  Samples shall be a minimum of<MET> 305 mm</MET><ENG> 12 inches</ENG> wide by<MET> 1.1 m</MET><ENG> 42 inches</ENG> long with the seam 
centered lengthwise.  Each sample shall be cut into 3 equal pieces, with one piece retained by the installer, 
one piece given to the QC laboratory, and the remaining piece given to the Contracting Officer for QA testing 
and/or permanent record.  Each sample shall be numbered and cross referenced to a field log which identifies:  
(1) panel number; (2) seam number; (3) date and time cut; (4) ambient temperature within<MET> 150 mm</MET><ENG> 6 inches</ENG> above 
the geomembrane; (5) seaming unit designation; (6) name of seamer; and (7) seaming apparatus temperature and 
pressures (where applicable).  Ten<MET> 25 mm</MET><ENG> 1 inch</ENG> wide replicate specimens shall be cut from the installer's sample.  
Five specimens shall be tested for shear strength and 5 for peel adhesion using an approved field quantitative 
tensiometer.  Jaw separation speed shall be in accordance with the approved QC manual.  To be acceptable, 4 out 
of 5 replicate test specimens shall meet the seam strength requirements specified in Table [3][5].  If the field 
tests pass, 5 specimens shall be tested at the QC laboratory for shear strength and 5 for peel adhesion in accordance 
with the QC laboratory's approved procedures.  To be acceptable, 4 out of 5 replicate test specimens shall meet 
the seam strength requirements specified in Table [3][5].  If the field or laboratory tests fail, the seam shall 
be repaired in accordance with paragraph Destructive Seam Test Repairs.  Holes for destructive seam samples shall 
be repaired the same day they are cut.</TXT><BRK/>
<BRK/></SPT>
</SPT><SPT><TTL>3.6   DEFECTS AND REPAIRS</TTL><BRK/>
<BRK/>
<SPT><TTL>3.6.1   <SUB>Destructive Seam Test Repairs</SUB></TTL><BRK/>
<BRK/>
<TXT>Seams that fail destructive seam testing may be overlaid with a strip of new material and seamed (cap stripped).  
Alternatively, the seaming path shall be retraced to an intermediate location a minimum of<MET> 3 m</MET><ENG> 10 feet</ENG> on each 
side of the failed seam location.  At each location a<MET> 305 by 460 mm</MET><ENG> 12 by 18 inch</ENG> minimum size seam sample shall 
be taken for 2 additional shear strength and 2 additional peel adhesion tests using an approved quantitative 
field tensiometer.  If these tests pass, then the remaining seam sample portion shall be sent to the QC laboratory 
for 5 shear strength and 5 peel adhesion tests in accordance with the QC laboratory's approved procedures.  To 
be acceptable, 4 out of 5 replicate test specimens must meet specified seam strength requirements.  If these 
laboratory tests pass, then the seam shall be cap stripped or repaired using other approved methods between that 
location and the original failed location.  If field or laboratory tests fail, the process shall be repeated.  
After repairs are completed, the repaired seam shall be non-destructively tested in accordance with paragraph 
Non-Destructive Field Seam Continuity Testing.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.6.2   Patches</TTL><BRK/>
<BRK/>
<TXT>Tears, holes, blisters and other defects shall be repaired with patches.  Patches shall have rounded corners, 
be made of the same geomembrane, and extend a minimum of<MET> 150 mm</MET><ENG> 6 inches</ENG> beyond the edge of defects.  Minor localized 
flaws shall be repaired by spot welding or seaming as determined by the QC inspector.  Repairs shall be non-destructively 
tested.  The Contracting Officer or the QC inspector may also elect to perform destructive seam tests on suspect 
areas.</TXT><BRK/>
<BRK/></SPT>
</SPT><SPT><TTL>3.7   VISUAL INSPECTION AND EVALUATION</TTL><BRK/>
<BRK/>
<TXT>Immediately prior to covering, the geomembrane, seams, and non-seam areas shall be visually inspected by the 
QC inspector and Contracting Officer for defects, holes, or damage due to weather conditions or construction 
activities.  At the Contracting Officer's or the QC inspector's discretion, the surface of the geomembrane shall 
be brushed, blown, or washed by the installer if the amount of dust, mud, or foreign material inhibits inspection 
or functioning of the overlying material.  Each suspect location shall be non-destructively tested in accordance 
with paragraph Non-Destructive Field Seam  Continuity Testing.  Each location that fails non-destructive testing 
shall be repaired in accordance with paragraph Patches and non-destructively retested.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.8   <SUB>PENETRATIONS</SUB></TTL><BRK/>
<NTE><BRK/>
<AST/><BRK/>
<NPR>NOTE:  Minimize the number of penetrations and show their locations on the drawings.  
Referencing the manufacturer's typical penetration details is generally acceptable.</NPR><BRK/>
<AST/><BRK/></NTE>
<BRK/>
<TXT>Geomembrane penetration details shall be [as shown on the drawings] [in accordance with <RID>ASTM D 6497</RID> or as recommended 
by the geomembrane manufacturer].  Factory fabricated boots shall be used wherever possible.  Field seams for 
penetrations shall be non-destructively tested in accordance with the installer's approved QC manual.  Seams 
that fail non-destructive testing shall be repaired in accordance with the installer's approved QC manual and 
non-destructively tested prior to acceptance.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.9   PROTECTION AND BACKFILLING</TTL><BRK/>
<BRK/>
<TXT>The deployed and seamed geomembrane shall be covered with the specified material within [5] [14] [_____] calendar 
days of acceptance.  Wrinkles in the geomembrane shall be prevented from folding over during placement of cover 
materials.  Cover soil shall not be dropped onto the geomembrane or overlying geosynthetics from a height greater 
than<MET> 1 m</MET><ENG> 3 feet</ENG>.  The soil shall be pushed out over the geomembrane or overlying geosynthetics in an upward tumbling 
motion.  Soil shall be placed from the bottom of the slope upward.  The initial loose soil lift thickness shall 
be<MET> [350] [_____] mm</MET><ENG> [12] [_____] inches</ENG>.  Equipment with ground pressures less than<MET> 50 kPa</MET><ENG> 7 psi</ENG> shall be used 
to place the first lift over the geomembrane.  A minimum of<MET> [460] [610] [915] [_____] mm</MET><ENG> [18] [24] [36] [_____] 
inches</ENG> of soil shall be maintained between construction equipment with ground pressures greater than<MET> 50 kPa</MET><ENG> 7 
psi</ENG> and the geomembrane.  Cover soil compaction and testing requirements are described in Section <SRF>[_____]</SRF>.  Equipment 
placing cover soil shall not stop abruptly, make sharp turns, spin their wheels, or travel at speeds exceeding<MET>
 [2.2] [_____] m/s</MET><ENG> [5] [_____] mph</ENG>.</TXT><BRK/>
<BRK/></SPT>
<SPT><TTL>3.10   <SUB>AS-BUILT DRAWINGS</SUB></TTL><BRK/>
<BRK/>
<TXT>Final as-built drawings of the geomembrane installation shall be prepared.  These drawings shall include panel 
numbers, seam numbers, location of repairs, destructive seam samples, and penetrations.</TXT><BRK/>
<BRK/></SPT>
</PRT>    <END/><BRK/></SEC>