My WebLink
|
Help
|
About
|
Sign Out
Home
Browse
Search
COMPLIANCE INFO
Environmental Health - Public
>
EHD Program Facility Records by Street Name
>
A
>
AIRPORT
>
14253
>
2900 - Site Mitigation Program
>
PR0543397
>
COMPLIANCE INFO
Metadata
Thumbnails
Annotations
Entry Properties
Last modified
2/10/2020 11:21:23 AM
Creation date
2/10/2020 9:37:25 AM
Metadata
Fields
Template:
EHD - Public
ProgramCode
2900 - Site Mitigation Program
File Section
COMPLIANCE INFO
RECORD_ID
PR0543397
PE
2965
FACILITY_ID
FA0012215
FACILITY_NAME
RCCI PTP
STREET_NUMBER
14253
Direction
S
STREET_NAME
AIRPORT
STREET_TYPE
WAY
City
MANTECA
Zip
95336
APN
19803031
CURRENT_STATUS
01
SITE_LOCATION
14253 S AIRPORT WAY
P_LOCATION
04
P_DISTRICT
003
QC Status
Approved
Scanner
SJGOV\sballwahn
Tags
EHD - Public
There are no annotations on this page.
Document management portal powered by Laserfiche WebLink 9 © 1998-2015
Laserfiche.
All rights reserved.
/
127
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 superposition time function accounts for variable rate conditions preceding the <br /> falloff. <br /> 1. It is the most rigorous of all the time functions and is usually calculated using <br /> welltest software. <br /> 2. The use of the superposition time function requires the operator to accurately <br /> track the rate history. As a rule of thumb, at a minimum, the rate history for twice <br /> the length of the falloff test should be included in the analysis. <br /> The determination of which time function is appropriate for the plotting the welltest on semilog <br /> and log-log plots depends on available rate information, injection period length, and software: <br /> 1. If there is not a rate history other than a single rate and cumulative injection, use a Horner <br /> time function <br /> 2. If the injection period is shorter than the falloff test and only a single rate is available, use <br /> the Agarwal equivalent time function <br /> 3. If you have a variable rate history use superposition when possible. As an alternative to <br /> superposition, use Agarwal equivalent time on the log-log plot to identify radial flow. <br /> The semilog plot can be plotted in either Horner or Agarwal time if radial flow is <br /> observed on the log-log plot. <br /> Parameter Calculations and Considerations <br /> • Transmissibility- The slope of the semilog straight line,in, is used to determine the <br /> transmissibility(kh/µ) parameter group from the following equation: <br /> k-h 162.6•q-B <br /> ,u m <br /> where, q= injection rate, bpd (negative for injection) <br /> B = formation volume factor, rvb/stb(Assumed to be 1 for formation <br /> fluid) <br /> m = slope of the semilog straight line through the radial flow portion of <br /> the plot in psi/log cycle <br /> k=permeability, and <br /> h=thickness, ft(See Appendix, page A-15) <br /> µ =viscosity, cp <br /> • The viscosity, µ , is usually that of the formation fluid. However, if the waste plume size <br /> is massive, the radial flow portion of the test may remain within the waste plume. (See <br /> Appendix, page A-14) <br /> 1. The waste and formation fluid viscosity values usually are similar, however, if the <br /> wastestream has a significant viscosity difference, the size of the waste plume and <br /> distance to the radial flow period should be calculated. <br /> 2. The mobility, k/µ, differences between the fluids may be observed on the <br /> derivative curve. <br /> • The permeability, k, can be obtained from the calculated transmissibility (kh/µ) by <br /> A-10 <br />
The URL can be used to link to this page
Your browser does not support the video tag.