My WebLink
|
Help
|
About
|
Sign Out
Home
Browse
Search
ARCHIVED REPORTS_2006_4
EnvironmentalHealth
>
EHD Program Facility Records by Street Name
>
A
>
AUSTIN
>
9999
>
4400 - Solid Waste Program
>
PR0440005
>
Archived Reports
>
ARCHIVED REPORTS_2006_4
Metadata
Thumbnails
Annotations
Entry Properties
Last modified
7/17/2020 3:53:24 PM
Creation date
7/3/2020 10:51:54 AM
Metadata
Fields
Template:
EHD - Public
ProgramCode
4400 - Solid Waste Program
File Section
ARCHIVED REPORTS
FileName_PostFix
2006_4
RECORD_ID
PR0440005
PE
4433
FACILITY_ID
FA0004516
FACILITY_NAME
FORWARD DISPOSAL SITE
STREET_NUMBER
9999
STREET_NAME
AUSTIN
STREET_TYPE
RD
City
MANTECA
Zip
95336
APN
20106001-3, 5
CURRENT_STATUS
01
SITE_LOCATION
9999 AUSTIN RD
P_LOCATION
99
P_DISTRICT
004
QC Status
Approved
Scanner
SJGOV\rtan
Supplemental fields
FilePath
\MIGRATIONS\SW\SW_4433_PR0440005_9999 AUSTIN_2006_4.tif
Tags
EHD - Public
Jump to thumbnail
< previous set
next set >
There are no annotations on this page.
Document management portal powered by Laserfiche WebLink 9 © 1998-2015
Laserfiche.
All rights reserved.
/
554
PDF
Print
Pages to print
Enter page numbers and/or page ranges separated by commas. For example, 1,3,5-12.
After downloading, print the document using a PDF reader (e.g. Adobe Reader).
View images
View plain text
The tensioned membrane theory was first developed by I P.Giroud to determine the <br />tensile strength required in a geosynthetic supporting a soil layer over a void. hater <br />Giroud along with Bonparte, Beech and Gross, combined Terzaghi's arching theory with <br />the tension membrane theory and laid the foundation for landfill liner support technology. <br />Essentially, the tension membrane equation enables one to transfer a uniformly distributed <br />normal force into a horizontal reinforcing material that will sag to a given strain limit. <br />The relationship between tension and strain in a liner support design is revealing. As the <br />strain limit is reduced, the required tensile strength increases. As a result, in a strain based <br />design, the factor of safety is applied directly and indirectly to the allowable strain and the <br />required tension respectively. <br />Combining the work performed at the University of Florida with Terzaghi's original work <br />and the experiments conducted by the Army Corps, one can now correlate the shape of <br />the soil arch to the strength of the soil. This is particularly helpful when there is more than <br />one strata of soil within the arching zone. For landfill liner support applications, one has <br />the ability to calculate the dimensions of the arch within the soil liner system above the <br />geogrid and the dimensions of the arch within the waste above the soil liner system. (See <br />Figure 1). <br />Figure 2 provides the relationship between the width of the yielding zone and the height of <br />the soil arch based on the soil strength parameter. Using this figure one can determine the <br />dimensions of the arch within the soil and waste layers. This will enable one to determine <br />the uniform normal pressure over the yielding area at the base of the <br />liner system. Using Giroud's tension membrane equation one can then calculate the <br />required geogrid tension at the allowable strain limit. Finally, one can select the <br />appropriate geogrid. A step by step procedure along with a design example follows. <br />(4) <br />11 <br />
The URL can be used to link to this page
Your browser does not support the video tag.