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WRIEM OF R11 -E,
^ MC MgHMCO,
8 -ECT_ZOV ,a,RD 12CDP)
Record 1973/25
004132
GREAT ARTESIAN BASIN GROUNDWATER PROJECTAUTOMATIC DATA PROCESSING STORAGE AND RETRIEVAL
SYSTEM
by
P. Ungemach* and M.A. Habermehl**
* Bureau de Recherches dologiques et Minieres**Bureau of Mineral Resources, Geology and Geophysics
BMRRecord1973/25
c.3
The information contained in this report has been obtained by the Department of Minerals and Energyre part of the policy of the Commonwealth Government to assist in the exploration and development ofmineral resources. It may not be published in any form or used in o company prospectus or statementmithout the permission in writing of the Director, Bureau of Mineral Resources, Geology and Geophysics.
• 0
DE PA R-MEN-
NNE RA^0 ENERGY
Record 1973/25
GREAT ARTESIAN BASIN GROUNDWATER PROJECT
AUTOMATIC DATA PROCESSING STORAGE AND RIUHIEVAL SYSTEM
by
P. Ungemach* and M.A. Habermehl**
• Bureau de Recherches GeOlogiques et Minieres
** Bureau of Mineral Isources, Geology and Geophysics
CONTENTS
Page
Summary^ 1
Introduction^ 2
1.1^Scope of the Great Artesian Basin^2
hydrogeological project
1.2^Scope of the Great Artesian Basin^3automatic data processing system
1.3^Organization of the Great Artesian^6
Basin automatic data processing systen
1.3.1.
1.3.2.
1.3.3.
2. Transfer sheet and data card presentation^9
2.1^Preliminary remarks^ 9
2.2^Master card^ 11
2.3^Well casing and screen card^21
2.4^Lithostratigraphy card^27
2.5^Aquifer description card^31
2.6^Well discharge data card^37
2.7^Well production card^43
2.8^Head and temperature card^49
2.9^Well hydrodynamics card^55
2.10^Pumping and flowing test card^65
2.11^Well characteristics curve card^75
2.12^Total dissolved solids card^83
2.13^Water chemistry - 1 card^89
2.14^Water chemistry - 2 card^101
3. References^ 108
4.^Appendix - Lithostratigraphic symbols for rock units109
4.1^Stratigraphic list^ 109
4.2^Alphabetic list^ 113
Characteristics 6
Code explanation 7
Identification 8
Figures
1. Probable extent of the Great Artesian Basin - Australia.
2. Scope of the automatic data processing system.
3^Water resources data bank.
4. GAB ADP system operations flow chart.
5. GAB ADP system data bank organization - "Explosion"
of the bank.
6.^Great Artesian Basin - Australia map sheet index.
1 •I.
I.I .
I.I.
1
SUMMARY
An automatic data processing, storage and retrieval system,
designed for use in the Great. Artesian Basin HydrogeologiC Project,
will handle geological and hydrological data held in the files of
State and Commonwealth authorities. The system is necessary for
the operation of a computer simulation model of the basin. Although
the ADP system has been designed primarily to fit the specific
project requirements, interchange of datawith existing or presently
planned systems, both in the Bureau Of,Mineral Resources and .State
organizations, can be accomplished easily.
Information from wells is collected onto transfer sheets,
then fed.intO . the:computer using the following data punch cards:
master card, well casing and screen card, lithostratigraphy card,
aquifer description card, well discharge data card, well production
card, head and temperature card, well hydrodynamics card, pumping
and flowing test card well characteristic curve card, total dissolved
solids card,- water chemistry card-1 and 2.^The first three cards
and part of the fourth card contain fixed information, while the other cards
deal with types of information which very with time.
2.
1. INTRODUCTION
1.1 Scope of the Great Artesian Basin Hydrogeological Prolect
The Commonwealth Bureau of Mineral Resources) Geology and
Geophysics (BMR), with the collaboration of the water and geological
authorities of Queensland, New South Wales, South Australia and the
Northern Territory started in 1971 a hydrogeological study of the
Great Artesian Basin of Australia. This involved collating and
interpreting available geological and hydrological data from the
basin with the objective of producing a simulation model as an aid
to management decisions and an assessment of the water resources
of the basin.
The model is planned to simulate the basin as a multi-
layered aquifer system, reconstructing the original (pre-1880)
steady state condition and the later development of the basin, as
a basis for forecasting its future hydrodynamic behaviour.
Collection of hydrological data started in July, 1972.
During the initial stages the suitability of the transfer sheets
for allowing the input of all relevant data to the ADP system was
checked by M. Audibert (B.R.G.M. Australia) and R.S. Abell (BMR) in
relation to the data held in state offices. As a result, some of the
original designs were appreciably modified in detail; the present
Record incorporates these modifications.
1.2 Scope of the Great Artesian Basin Automatic Data Processing System
The geology of the Great Artesian Basin is known in sufficient detail
to establish the basin's geometry and the correlation of lithostratigraphic
units and aquifers. Assessments of the permeability of the lithostratigraphic
units have still to be made.
Hydrologic data from some 40 000 wells drilled in the basin will be
used to provide the main basic information for simulation of the hydrodynamic
behaviour of the basin. The size of the Great Artesian Basin (Fig. 1), and
the amount and diversity of geological and hydrological data already collected
by State and Commonwealth authorities makes it necessary to use an automatic
data processing system (ADP).
Development of the Great Artesian Basin (GAB) started ,in 18po and
'since that date nearly 40 000 wells have been drilled. From the early
days, data in the form of drillers logs, water levels, pressure tests,
pumping tests and chemical analyses have been collected and are now held
by various water authorities: the Irrigation and Water Supply Commission of
Queensland, the Water Conservation and Irrigation Commission of New South
Wales, the Department of Mines of South Australia and the Water Resources
Branch of the Northern Territory Administration.
A vast amount of detailed geologic data has become available in
recent years (1950-1970) by work of B M It, the Geological Survey of
Queensland, the Geological Survey of New South Wales, and the Department
of Mines of South Australia.
The search for oil and gas in Australia has included drilling several
hundred exploration and production wells in the basin by petroleum companies.
These wells provide detailed geological and geophysical information;
stratigraphic drilling by BMR and state geological surveys complement the
geological knowledge in specific areas.
109_2.12.0...2.0.0.,64:10 kmSARI
Fig. IPROBABLE EXTENT OF THE GREAT ARTESIAN BASIN-AUSTRALIA
4 .
Wireline logging of existing waterwells has been carried out
since 1960, principally by government authorities. As most wells are
cased, the most extensively used technique has been gamma-ray logging,
but in recent years this has been supplemented by temperature/differential
temperature, continuous flowmeter and neutron logging. About 950 wells
had been logged to the end of 1972, more than 850 of them in Queensland.
The geological and hydrological data will be used to construct
a simulation model for the basin, in order to simulate the basin's hydro-
dynamics. The first stage of simulation will be performed on a digital
model, a decision determined by the availability of computing facilities in
BMR and the Commonwealth Scientific and Industrial Research Organization
(CSIRO), Division of Computing Research in Canberra, and the fact that many
of the model input data have to be computer-processed and generated.
The Great Artesian Basin Simulation Model (GABSIM) is programmed
in FORTRAN IV (Ungemach, in prep.) and will be run on Control Data Computer
3600 and 6600 (Cyber 76) series in CSIRO and by remote batch terminal in BMR.
Although the quantity of data is enormous, selections for quality
of data have to be made. The assumptions made for reliability of the data
will be a,major part of the data collection exercise and the study as a
Whole.
In order to manipulate even a selection of the available data,
in view of the comprehensive model simulation to be performed, extensive
use of computer processed data has to be made.
Because the original data is stored in a variety of forms and
systems, and because of the need, during the computer modelling, of central
storage and retrieval of collected data, it was clear that a specifically
INFORMATIONIS
NUMERIC,
NON—NUMERIC
INSTRUCTION FILES
ADC
CONTINUOUS RECORDSANALOG
DIGITAL
NON CODING]
FIXED FORMAT FREE FORMAT
CODING
MATERIAL SUPPORT OF DATA
COMPUTER INPUT
PERMANENT STORAGECARDSTAPESDISCSDRUMS
PROCESSING
SOFTWARE
OPTICAL READINGMAGNETIC READING
KEY BOARDING
PUNCHED TAPES or
CARDS READERS
DATA COLLECTION
PROVIDES
CONVERSIONTO
COMPUTER INPUTFORM
PERIODIC,RANDOMRECORDS,FILES
PUNCHED TAPES^ INSTRUCTION(PRE) PUNCHED
CARDS^ FILES
SCOPE OF A.D.P.
I DECODING .
SYNTAX^ISEMANTIC ANALYSES
ADC = ANALOG - DIGITAL CONVERSION
CP = COMPUTER PROCESSING
FIG. 2
5 .
designed ADP system for the project had to be developed. The design of
the present ADP system is solely to serve the specific purposes of the GAB
hydrogeologic project. However interchange of data with other systems,
Whether in BMR or State authorities, can easily be accomplished. For example
the Master card is designed in such a way that it is compatible with other
BMR and Geological Survey of QUeensland (GSQ) systems for water and petroleum
wells.
The following had to be considered in the design of the GAB-ADP
system:
- The system has to operate with minimum personnel, in minimum time,
at minimum cost.
- The system is to be used for a specific study, dealing with geological
and hydrological items, and should avoid becoming a general, national
or idealistic system, although compatability with other natural resources
data banks had to be considered.
- Standard computer equipment should be usable.
- Instruction (or data inventory) files must require minimum transfer
operations between data location and computer storage, and be designed
in such a way that complicated coding of information is avoided.
- Questionnaires should not pursue perfection but realism. In particular,
geological information, pre-eminently non-numeric, must be considered
from a practical hydrogeological viewpoint and not from the fundamental
geology aspect.
- Items should not be included in the transfer sheets in such a way that
there is any change in the degree of reliability or subjectivity.
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The final product is therefore an ADP system, with the
characteristics of:
elementary approach, simple coding following a basic fixed
pattern, designed for a specific purpose, and usable on
standard computer equipment.
Fig. 2 provides a general description of the operations of
the ADP system. Fig. 3 shows, in a simplified ~ay, the location, elements
and connexion of the groundwater data in the whole watercycle and their
relation to the other components, such as surface water and meteorology.
Note that the GAB-ADP system only applies to well information
(coded 4), but it can be expanded to other information in the watercycle.
1.3 Organization of the Great Artes'ian Basin Automatic Data Processing System
1.3.1 Characteristics
The GAB-ADP system has the following characteristics:
- basic data, which are abbreviated or coded on the transfer sheets,
filled in a fixed format form. A given topic of information is
described and will be coded or abbreviated, as indicated in the
enclosed manual for transcription of data.
- transfer sheets, containing 80 columns, from which the transcribed
data can be directly punched on to 80 column punch cards, after
checking and reviewing by the data-collection team and the geologist
in charge. These sheets record information about:
A Master information
B Well casing and screen
C Lithostratigraphy
D Aquifer description
E Well discharge
F Well production
G Head and temperature
DATADECK
C.D.C.3600
CANBERRA
GAB ADP SYSTEM OPERATIONS FLOW CHART
/ INFORMATION
(
PREPARATION
\CODING/
MANUALINPUT
ERRORS
STORAGE
C.D.C. 6600
SYDNEY
h\■.-••••"TEMPOR.STORAGE
\-.
C.D.C. 6600
SYDNEY
TABLES
MAPS )GRAPHS
FIG.4
7.
H Well hydrodynamics
I Pumping and flowing test
J Well characteristic curve
K Total dissolved solids
L Water chemistry-1
M Water chemistry-2
Items A, B, C and part of D refer to fixed information, while E to M deal
with types of information which vary with time.
- first computer data input which is the cards, punched directly from
the transfer sheets, filled with transcribed data. This basic
computer input is used to generate magnetic tapes, which are loaded
sequentially with data from the card deck (Fig. 4). These magnetic
tapes are used for the final support of data or input to the computer.
Temporary storage during computer processing is by magnetic discs,
allowing fast selective access to information.
- the loading, checking, updating and processing software package
(GABADP) to be used for this ADP system,^. will be a program
written in FORTRAN IV. The GABADP package and listing will be
described (Krebs, in prep.).
- major operations involved in the GAB-ADP system are summarized in the
flow-chart of Fig. 4. The components of the GAB-ADP system or main
items of information are shown in Fig. 5,
1.3.2 Code explanation
The major code, which defines the transfer sheets and data cards,
consist of two characters. The first, Shown in column 1, is a numeral
referring to a component of the water cycle (Fig. 3); for the present
transfer sheets and data cards it is the numeral 4, which refers to wells.
The second character, an alphabetic character, refers to the specific
information item such as those listed in 1.3.1 and shown in Fig. 5.
GAB ADP SYSTEM DATA BANK ORGANIZATION
WELL I
Optional
WELL 2^V •
OzCARD DECK
FIG. 5 / EXPLOSION' OF THE BANK
8 .
1.3.3 Identification
On all transfer sheets and data cards, the same identification section
is shown. This provides an unique identification of the well about which
data are recorded, and specifies its geographical position.
The first column of the identification section, column 3, is
filled with a numeric character, indicating the State in which the well
is located (see explanation of the Master sheet for code). Column 4
is filled with the second letter of the 1:1 000 000 topographical map sheet
identification (the first letter S, being common to all Australia, is
omitted). Columns 5 to 8 refer to the numeric index of the 1:250 000 map
sheet on which the well is located (Fig. 6).
Column 9 is used to indicate whether there are subsequent cards
with more data for the same well.
Column 10 is used to indicate whether the well has been deepened
during its existence.
Column 11-15 deal with the well number, to be filled in from the
Registration Number (which are exclusive and sequential in each State),
used by the issuing authority, e.g. IWSC-Qld, WCIC-NSW, etc. Note that
the identification section is the same for an individual well on all cards,
with the exception of column 9, which contains information unique to each
card.
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2. TRANSFER SHEET AND DATA CARD PRESENTATION
This chapter on the Automatic Data Processing system for use
in the Great Artesian Basin hydrogeological project, is designed as an
operator's manual for the transcription of well information on to transfer
sheets. It provides the data collection team with the guidelines needed
for this operation.
2.1 Preliminary remarks
The transfer sheets for all cards contain eighty columns on one
line, and deal with several headings and subheadings. These columns
(headings and their detailed content) have to be filled either in coded
or non-coded form, as indicated in the following explanatory notes.
One line with eighty columns on a transfer sheet correspond with
one standard IBM punch card containing eighty columns. Information recorded
on the fixed format transfer sheets will be punched onto IBM punch cards.
Al]. alpha-numeric data are to be framed on the left hand side of
the space allowed for the set of digits of the record, i.e. Left justification,
example: ALLANDALE 1
1AI L I L I A I N I D IA IL 1E1^1 if^I 1 1^right
J AJLfLfAfN J DJA J LJEIII I ^wrong
All numerical data are to be framed on the right hand side of the
space allowed for the set of digits of the record, unless the contrary is
stated in the explanatory note, i.e. right justification,
example: 530
1^1^1^1^I 5 3 I 0 1 ^right
1 I^1^1 5 1 31 01^1^1^
wrong
151 3 11 11 1 11^
wrong
10.
Filling of the reliability items will be done after consultation with
the geologist in charge of the data collection operation; reference should also
be made to him if any doubts occur when filling the transfer sheets.
Date items have to be filled in 2 or 3 columns, depending on the type
of transfer sheet. For the date in years, these 2 or 3 spaces refer to the
2 or 3 last numbers of the year (see note on the filling of numerical data),
example: 1892
yields either^ 1 81 9 12 1or^ J^1 9 1 2 1
Months, coded from 1 to 12 and days, 1 to 31, have to be filled in accordance
with the note on the framing of numerical data (right justification).
A blank character (quoted b in the explanatory notes) is equivalent to
zero in numerical format.
The following alphabetic and numerical characters are to be used
during the filling of the transfer sheets:
0 - zero^ - alphabetic 0
1 - one^ I - alphabetic I
2 - two^ - alphabetic Z
If these symbols are not used during the data collection stage, errors
may occur in the punching stage, subsequently causing expensive or time-consuming
errors in the processing stage.
All depths, heights and elevations are to be scheduled in feet or feet
and tenths of feet (and not in inches). Inches (and fractions of inches) are
only used for diameter measurements on the Well screen and casing sheet.
All depths or heights are taken from a reference level, which is ground
level unless stated otherwise. Provision is made on the transfer sheets for
measurements taken from other reference points.
Aquifer numbering and filling of the Lithostratigraphy sheet and parts
of the Aquifer description, Well hydrodynamics and Pumping and flowing test
sheet will be done by the geologist in the data collection team, or under his
guidance.
1111111111111111•1111111111111111111111111111MIMMIN11111111•1111111•11111111011=
2.2 Master card
The master card deals with the main constant information about a well, with regard to identification
(registration number, name), geographical location, ground elevation, total depth and completion date. Other
information on this card refer to the type and use of the well, the availability of geological and geophysical
logs and the existence of other data cards with information about the well. The master card does not give
information about the amount and reliability of the information on other data cards.
•
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WELL MASTER INFORMATION CARD EXPLANATORY NOTE
MASTER TRANSFER SHEmr
Column Topic Total Start End Explanation Example
CODE 2 1 2 Columns 1 and 2 are pre-printed and Master card refer to the Code of the card; see I. 41 A I Introduct~on, 1.3.2.
IDENTIFICATlOO 13 3 15 Columna 3 to 15 refer to the identification of the well, i.e. the general geographic location and well number.
State 1 3' 3 Column 3 refers to the state Where the well is located to be coded as:
A.C.T. 1 Queensland N.S~W. 2 Q1d'. \.>l
N.T. 3 . Q1d •. 4 I~ S.A. 5 Taam. 6 Vict. 7 W.A. S P.N.G. 9
Map identification 5 4 S Columns 4 to S'refer to the map on which the well is located.
Letter 1 4 4 Column 4 refers to the second letter Which Charleville characterizes 1: 1 000 000 and 1: 250 000 SG 55
~- . topographic and geological map sheets. ~ ~- (Omit the first letter S of the map
reference)
Column Topic Total Start End
Map number 4 5 8
Card continuation 1 9 9
Master transfer sheet
Explanation
Columns 5 to 8 refer to the map sheet number
Columns 5 and 6 refer to the index number of the 1: 1 000 000 topographic and geological map sheets.
Columns 7 and 8 refer to the number of the 1 : 250 000 topographic and geological map sheets that follows the number in columns 5 and 6. These numbers in columns 7 and 8 (1 to 16) are the subdivisions of the 1: 1 000 000 map sheet (in columns 5 and 6).
~: Figure 6 shows the distribution of map names and numbers.
Column 9 refers to card continuation. Fill column 9 with 0, if after the present card (Which corresponds to one horizontal line on the transfer sheet) no other card follows with information about the specific~ell. Fill Column 9 with 1, if another card follows with records about the well.
~: Column 9 will be unique for each transfer sheet. Continue filling column 9 with 1 until the last but one card, and insert 0 on the last card (or line in case of the
. transfer sheet).
Example
SG 55
15151
Tambo
SG 55 l2j Roma SG 55 - 12
+:>-.
------------------ - -Topic Total
Deepening 1
Well number 5
Column Start End
10 10
11 15
Master transfer sheet
Explanation
Column 10 indicates whether the well has been deepened during its existence. Insert 1 in column 10 if the well is deepened once. 2 if its deepened for the second time, 3 for the third time, etc. If there was no deepening after the initial drilling, fill column 10 with o.
Columns 11 to 15 include the well number. Fill columns 11 to 15 with
Queensland: bore registration number of IWSe (Irrigation and Water Supply Commission).
New South Wales: bore registration number of wele (Water Conservation and Irrigation Commission).
South Australia: bore registration number of Dept. of Mines, which consist of nine figures and haS to be reduced to five figures as follows: Omit the first figure (grid sqUl;lres areas S.A.: 052 to 125~ 52 to 25), and use the 2nd and 3rd figures (52 to 25), omit the 4th, 5th and 6th figures (county numbers: 000); use the 7th, 8th and 9th figures representing the S.A. bore number.
Northern Territory: System to be determined.
~: Fill last number in column 15 i.e. right jUstification of numeric data.
Example
not deepened 1..QJ
deepened L!..1
.3rd deepening
llJ
Qld: RN 7348 17131 4 181
N .s.w.: 2685
12 1 6 18151
s. A.: 064000128
I I 6 I 7 I 8 I 41 right 161718141 I wrong
\Jl
Column Topic Total Start ~d
10 16 25
WELL LOCATION 14 26 39
Longitude 7 26 32
Latitude 6 33
Master transfer sheet
Explanation
~: Columns 3 to 15 include the main identification of the well and are repeated on all transfer sheets/cards, except for column 9, which depends on the amount of information for a well, and whether this information can be inserted on one or more cards/lines on transfer sheets. Column 9 will therefore be different for all transfer sheets/cards, while columns 3 to 8 and 10 to 15 contain the same information on all transfer sheets/cards for one well.
Columns 16 to 25 refer to the well name. If no name exists, leave columns bl8.Dk. When the name exceeds 10 characters, stop at the 10th character. If a number follows the name, the last columns must be used for the number, and a dash placed before the number. In some cases mnemonic abbreviations should be used (see example). For further explanation on abbreviations refer to Prel;minary remarks.
Note: Left justification for alphabetic data
Columns 26 to 39 refer to the well location in lo~tude and latitude.
Columns 26 to 32 refer to the longitude of the well location, in degrees (columns 26 to 28), minutes (columns 29 and 30), and seconds (columns 31 and 32).
Columns 33 to 38 refer to the latitude of the well location in, degrees (columns 33 and 34) minutes (columns 35 and 36), and seconds (columns 37 and 38).
Example
Alton IAILITIOINI I 1 I I I
Cunnamulla 19IUI NJ NI AI HI ul LI LI AI"
Thargomindah ITIHI AI RI GIOI HI II NI DI
Cunnamulla No. 3 I C I u I N I N I A I M I u I LI -I 31
Lightning Ridge ILIII GIHITIRI II DI GI EI
240 07'1211
_._------------------
--------------------Master transfer sheet
Column Topic Total Start End EKplanation Example
Accuracy 1 39 39 Column 39 designates the accuracy of the well location, as inserted in columns 26 to 38, and is to be coded as: not surveyed
unknown 0 l.£.I surveyed by instrument, 1 not surveyed by instrument 2
(If a well is plotted on a map, this does not necessarily mean that it has been surveyed) ..
GROUND ELEVATION 6 40 45 Columns 40 to 44 refer to the ground elevation of the well in feet. Fill columns 40 954Q3 to 43 with the integer part of this figure
( with the last figure in column 43), and 121514121 column 44 with the decimal part.
~: If the ground elevation is below sea level, -.J . fill column 40 with -.
Accuracy 1 45 45 Column 45 refers to the accuracy of the ground 330.0 elevation recorded columns 40 to 44, coded not surveyed as:
13131010121 unknown 0
elevation surveyed (instrument) 1
elevation not surveyed (instrument) 2
5 50 Columns 46 to 50 refer to the total depth drilled in feet, with an accuracy of 1 foot; 3027 ignore decimal parts. Last figure in 131 0 12171 column 50. (right justification). 13465.8
I 1 1 ~I 41 6 1 5 I 6854.2
I 161 81 2141
Column Topic Total Start End
DATE COMPLETED 5 51 55
Year 3 51 53
Month 2 55
TYPE AND USE OF WELL 1
Master transfer sheet
Explanation
Columns 51 to 55 refer to the date of completion of the well.
Columns 51 to 53 refer to the three last figures of the year of completion
Columns 54 and 55 refer to the month during which the well was completed. Code the months from 1 to 12. If the year of comple"t1ion is unknown, leave columns 51 to 55 blank;' if the month is unknown, leave columns 54 and 55 blank.
Columns 56 refers to the type and use of the well, i.e. the purpose of drilling the well and the present principal use of the well, coded as:
type and use unknown type unknown, use - water supply water well, use ... water supply (not specified)
" " " - town water supply
" " " - domestic water supply
" " II - irrigation water supply
" 11 " ... stockwater supply.
" II II ... industrial water supply
" " II - dewatering 11 " II ... test and observation
" 11 " - abandoned
stratigraphic hole, use - stratigraphy and abandoned
11 " " - water supply (not specified)
If " " ... town water supply
" " " - domestic water supply
Example
13 May 1887
18181710151
1928 1912181
7 July 1955
1915151 0 171
A B C D E F
·G H I J K
L
M
N f6
II " " - irrigation water supply P
" " " ... stock water supply Q
" " " - industrial water supply R
" " If - test and observation S
0> .
=I MI =I =II INN =II IOW I= MI NM MI MI MN MI MI • =I
Master transfer sheet
TopicColumn
Total Start End^ Explanation^ Example
AVAILABILITY OF 1 57 57GEOLOGICAL LOGGING
AVAILABLE GEOPHYSICAL 1 58 58
LOG (S)
petroleum well, use - petroleum production well^TIt^II^
" - abandoned^ If11^If^II - water supply (not specified)^VII^It^11 - town water supply^ WIt^11^11 - domestic water supply^X11^II^If - irrigation water supply^Y11^tl^11 - stock water supply^ 5n^11^11 - industrial water supply.^1n^It^tt - test and observation^2U^11^11 - (water) recharge/injection^3
mining exploration, use - mining exploration and^4abandoned
ft^ft^tl - water supply (not specified)^5It^It^It - water observation^6
waste disposal^ 7miscellaneous^ 8others^ 9others^ 0
Column 57 refers to the availability of geologicalwell logging, to be coded as:
unknown^ 0geological log available^1^geological log
no geological log available^2{-11
Note: This does not refer to a driller's log
Column 58 refer to the availability of geophysicallogs, whether electrical (spontaneous-potential, resistivity, conductivity), gamma-ray, neutron, caliper, casing, temperature oracoustic log. Code this information as:^gamma-ray log
Ellunknown 0geophysical log (s) 1no geophysical log (s) 2
NM I= I= MI^MI MI OM =I
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payo z - Aa4sTmatio aeTem 9/, puy^sumuTo0pay° - Sa49Tmeuo aeTem 9, puy 6L summtoo
pay° spnos pexpesTp (O^i uumTo0GAJUO3T4sTaa4osa8u3 nem^a =Too
paso 49E4 SuTmou pus auTdMnd EL Pus LL sumuTo0spayo soTureuSpoapAtt TTem OZ, umpToo
payo'eanivaedWel. pus. pseH 69 pus 99 9ummTo0payo uoT43upoad TM L9 Puu 99 9ummT00
pay° sTep aasmosTp TiuM 69 Pug t9 suWilTo0pay° uoTqdTaosop aeJTuby C9 ummT00
pay° SUdSa9Tivaq8olgT1 u9 pus 0 9uwnTo0pay° useaos pus SuTeso TT% 09 pus 66 gummvo
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eseg4 jo aectmna Ty4o4 sm. pus 6spayo sTep sem.°;0 ATITcluTTuAueuq. ol STuo aejea 09 o4 66
sumnToo uT spaooaa ipaso Jewell eq4 Jo suenTooeq4 uT peuTJep 4ou sT (squal(s JOS9UG.14 JO)
spay° yqmp oqq. uo uoTTemaosuT atm Jo 4TIToneapus 4unowy et. Teta e4om •(seus aes9usa4
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JT !nem ueATS aoj spavo Invp oTJToede Jo.JOCIMMU On0j 4seU2TR eq4 sumiToo eseq4 uT4aesui •uoTTemaosuT °moods u4Tm spay°
Jo S4TITcluTTuAu 9114 04 JeJeJ 09 04 66 97=7E00^og^66^U2^IIIIISVIIVAV aaVO
eidurexri^uoTTeusTfta^Pua 4au4S TV40I=Top
4GGRS JOJ91IG.14 .1043144
,. '- -- - -- - - - - - - - - - - --2.3 Well casing and screen card
The well casing and screen card deals with the down-hole equipment of the well, and gives details of
the casing, cementation, screens (including perforated or slotted casing), and open hole.
This provides reliable data on the aquifers tapped by the bore; it is especially important if
there are no lithostratigraphic and permeability data.
- -
1
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Well iaaing and screen transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example CODE^2^1^2^Columns 1 and 2 are pre-printed and refer to the^Well casing and screen
Code of the card, see Introduction,^ card,1.3.2.^ 14IBI
IDENTIFICATION^13^3^15^For filling columns 3 to 15, refer to Master Cardexplanatory note, from which theidentification is to be repeated.
Note column 9, see Introduction, 1.3.3.Column 10 refers to the deepening of thewell; first deepening, fill in 1, seconddeepening 2, 3rd, 4th and 5th: 3, 4 and 5.First reconditioning of the well, fill in 6,2nd recond.: 7 etc.
RECORDS^30^16^45^Two record sequences are allocated to each line ofthe Well casing and screen transfer sheet(which corresponds to one data card);record 1 from columns 16 to 45, record 2from columns 46-75.
Equipment^4^16^19^Columns 16 to 19 refer to the diameter of thediameter^ equipment (casing, screen, open hole) in
inches.Columns 16 and 17 to be used for the integer part,
columns 18 and 19 for the fractional part.9'5/8
I 9 1 5 111
MO =I • • MO NM NM • • • MI^11•11 =I MI • On I= NM ••I
16 It ICN)541
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uT TeeaG4uT 144dop et, 04 anea 6 o.Z? sumuto0^62^n^8^Indea
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68
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2^pose°I.^eoq uodo0^=mownmoiaq pe4eoTpuT se moo-0g O.
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• =I • II•1 • MI • =I MI MI • • NM MI •^• • I= I=
Topic TotalColumnStart End
Well casing and screen transfer sheet
Explanation
Drillingdiameter
Method
4
1
30
34
33
34
Columns 30 to 33 refer to the diameter of the drilled holein inches.^Columns 30 and 31 to be used for theinteger part, columns 32 and 33 for the fractionalpart.
Column 34 refers to the method of drilling, to becoded as indicated below:
Example
12' 7/8
1 1 1 2 1 7 1 8 1
cable tool^1rotary^2jetted^3down hole hammer^4dug well^5
67^ N.)
89
Cemented^8^35^42^Columns 35 to 42 refer to the depth interval from top to^frombottom in feet (ignore decimal parts) for which the^250.8bore-hole has been cemented. Last numbers to be^1 1 2 15 I 01filled in columns 38 and 42, i.e. right justification.
to0.0
1^1^1^1 01
Corroded^1^43^43^Column 43 refers to the condition of the well-casing.^corrosionA corroded section of the casing is coded as 1, a^1 I 1non-corroded section as 2. If unknown, fill column43 with 0. Information about corrosion will mostlycome from geophysical logging, i.e. the casingcollar locator log.
I= • • MI • • • OM • OEM • • MO • MI NM MI
uT elou GOS 64u?Ta ag4 o4 peurea;sT aeqmnu ono; am,/ •nem auo Jo; peen eq al
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aequauu ono; sTq/ •pave° 1100.108 pua BuTsso nemeq4 Jo BuTaequalu ono; et4 ao; eaa og o4 gL sumnToo
uT agou ees 411T peTTT; eqo4 aleaS eq4 ;o saequrna oa wet at !Itex
Jo uoT4eidwoo Jo aTep o o4 MUGS LL pua 9L sumnioo
(Paeo 1445' =)eun q1.5
ua sT paooaa 1146
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•pawo 1100J09 pua SuTsvorpm ag4 JO; peaTnbea Snauluene uowemaaruT
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eicInzexa^uoT4auatdxa^pua 4J-84g lawy^OTdOI=•oo
4eaus JeJsuaal ueaaos pua BuTsvo rpm
------- - - ---------
2.4 Lithostratigraphy card
The lithostratigraphy card deals with the information about the lithostratigraphy of the well
versus depth.
The lithostratigraphy is expressed as far as possible in formations, for which names are
abbreviated to two, three, or (maxima1) four-digit a1phabetic symbols, similar to the ones used on
BMR geologica1 maps.
The a1phabetic symbols, representing formation names, are recorded versus the depth at wbich - this specific formation or lithostratigraphic unit is first encountered in the well, i.e. the top of
the formation is stated (in feet).
- -
I\.l --..J .
NIB OM • • • • •^II•1 • MI I= I= MI • • • MI • •
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TopicColumn
Total Start End
CODE 2 1 2
IDENTIFICATION. 13 3 15
LITHO-STRATIGRAPHY/DEPTH RECORDS 63 16 78
DEPTH 5 16 20
Lithostratigraphy Transfer Sheet
^
Explanation^ Example
Columns 1 and 2 are pre-printed and refer^Lithostratigraphy cardto the Code of the card; see
^
Introduction, 1.3.2.^ 14 I C IColumns 3 to 15 deal with the identification
of the bore; this information is tobe repeated from the master card; forfilling of these columns, refer to themaster transfer sheet explanation.
Note column 9, see Introduction, 1.3.3.
Seven litho-stratigraphy/depth records areallocated to each line of the litho-stratigraphy transfer sheet (which correspondsto one data card).
Columns 16 to 20 refer to the deptb of thetop of the formation in feet(ignore decimal parts).The depth is to be recorded as a depthin feet of the formation top measuredfrom the ground elevation as datum.In case measurements of formation topsare made from the kelly bushing orother part of the drilling rig,the depths have to be recalculated fromgroundlevel.
368.5'1^1^1 3 1 6 1 8 1
12375'1 1 1 2 1 3 171 51
11IN^• IIIII • IIIIII • • • MI MI • MO MI •^11111 MI • •
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2.5 Aquifer description card
The aquifer description card records all reliable information on the aquifers or waterbearing
pervious layers which is available in well logs.^This information includes the depth of the aquifer(s),
lithostratigraphy, qualitative permeability description, depth of water struck, records showing the
artesian or subartesian character of the well, the pressure head or depth of standing water level
recorded and the flowrate in case of an artesian bore.
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TopicColumn
Total^Start End
CODE
IDENTIFICATION
2
13
1
3
2
15
AQUItlai32 16 47
DESCRIPTIONRECORDS
Aquifernumber
3 16 18
Aquifer description transfer sheet
V66....1ftsftes+invio
Columns 1 and 2 are pre-printed and refer to theCode of the card, see Introduction, 1.3.2.
Columns 3 to 15 deal with the identification of thewell; this information is to be repeatedfrom the Master card; for filling of thesecolumns, refer to the Master transfer sheetexplanation.Note column 9, see Introduction, 1 3 3._._.
Two record sequences are allocated to each line ofthe Aquifer description transfer sheet(which corresponds to one data card).
Columns 16 to 18 refer to the aquifer number, i.e.the numerical position of the aquifer in thestratigraphic sequence, started from the topof the well.
Column 16 refers to the main water-producing rocklayer as follows:
Example
Aquifer description card1 41 DL
Water table^ 1
Hooray Sandstone and Adori Sandstone^2aquiferr, and correlates
Hutton Sandstone, Evergreen Fm. andPrecipice Sandstone aquifer^3
Triassic, Permian and stratigraphically 4deeper aquifers
Note: If several Main Aquifers are tapped, fillcolumn 16 with 9; if unknown which aquiferis tapped, fill with 0.
Hooray Sandstone121
Hutton Sandstone
3 1several main aquiferstapped
unknown12 j
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- - --Topic
Permeability determination
Reliabili ty of permeability information
Depth tested
- -Column
Total Start
1 32
1 33
4 34
- -- - -- - - -End
32
33
37
Aquifer description transfer sheet
Explanation
101_102 Md:medium
102_103 Hd:good
10'_104 Hd:high 4
greater than 10 Md: . very high
2
3 4
5
Column 32 refers to the source of permeability determination, coded as follows:
unknown 0 field description 1 sample description 2 laboratory analysis 3
4 5 6
Column 33 refers to the reliability of information about permeability, coded:
unknown 0 good 1 medium 2 poor 3
Column 34 to 37 refer to the Depth at which water was met during drilling (normally expressed in drillers t logs as "Water struck") • Record depth in feet j ignore decimal parts; right justification.
- -- -Example
80 l-1d
medium permeability
W
laboratory analysis
good
~
water struck 941.6
1914 11 I
VI \J1 .
-
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2.6^ Well discharge data card
The well discharge data card contains all reliable information on the rate of discharge
of wells throughout their histories. Information includes date of discharge measurement, dynamic
level or back pressure, type of flow, data about the outlet of the well and whether it is a single
well or a group of wells, a single aquifer or group of aquifers tapped.
G A B —ADP System transfer sheetWELL DISCHARGE DATA SHEETB M R G A B Groundwater project
DISCHARGE RECORDS—1—1 ^
F)
reI.
a
TIONFlIDENTI CA
oIQ
No.2
1 Dynamic LevelEi Back Pressure0 c15.0cc Cifc.)
Da Discharge
Rate
103 g pd
te.c.-C0
Da Dynamic LevelBack Pressure
•-•0.o
50441 49180181 52 153
te.c
Discharge
Rate
103 g pd
Discharge
Rate
10 3 gpd
Dynamic LevelBack Pressure
o_
DateWell
Number
1:250000Map
Number
w 2o. U.• 2
0
4Liicc
0
0TD 0 >-
SO89160
-1
•
0 >-
40
29140
U)
30
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TopicColumn
Total^Start End
Well discharge data transfer sheet
Explanation .
CODE 2 1 2 Columns 1 and 2 are pre-printed and refer tothe Code of the card; seeIntroduction, 1.3.2.
IDENiirICATION 13 3 15 Columns 3 to 15 deal with the identification ofthe well; this information is to berepeated from the Master card; forfilling of these columns, refer to theMaster transfer sheet explanation.Note column 9, see Introduction 1.3.3.
MAIN AQUIFER TAPPED 1 16 16 Column 16 deals with the main aquifer tapped bythe well (or representative well in thecentre of a group of wells), as describedfor the Aquifer description card:
Unknown^ 0
Watertable^ 1
Hooray Sandstone and Adori^2Sandstone aquifer, pluscorrelates
Hutton Sandstone, Evergreen^3FM. and Precipice Sandstoneaquifer
Triassic, Permian and^
4stratigraphically deeperaquifers
If several main aquifers aretapped:
Example
Well discharge data card
Hooray Sandstone
Well discharge data transfer sheetColumn
Topic^Total Start^End^Explanation^ Example
RELIABILITY 1^.17^17^Column 17 refers to the reliability of informationabout aquifers tapped, coded as:
unknown 0
good 1
medium 2
poor 3
good111
SINGLE WELL 1^18^18^Column 18 deals with information whether the wellscheduled is a single well or a group ofwells. If the well scheduled with regard^single wellto its discharge history is to be^ I 1 Iconsidered as a single well, column 18has to be filled with 1; if it is^representative wellconsidered as the representative well inthe centre of a group of wells, fill in 2;if unknown, fill in 0.^ unknown
I 01^ •
Three discharge record sets are allocated to eachline of the well discharge data transfersheet (which corresponds to one data card).
Columns 19 to 22 refer to the date of the welldischarge measurement.
Columns 19 and 20 to be used for the last twonumbers of the year, see 2.1.
Columns 21 and 22 for the month of the datacollection (see 2.1), coded 1 to 12.If year and/or month are not known,don't fill the columns.
Columns 23 to 26 refer to the discharge raterecorded, expressed in 1000 gpd. Last^225000number in column 26, i.e. rightjustified.^ I 12 12 15 I
DISCHARGE 20 19RECORDS
Date 4 19 22
Year 2 19 20
Month 2 21 22
Discharge rate 4 23 26
NIEMEN NM MIMI= MI MI IIIII^ MI MI
I MI IIMI MS MI I= MI MI IIIIII MI INII MI NW IIIII MI • OM MI • Mil IMO
Well discharge data transfer sheetColumn
Topic^Total Start End^ Explanation^ Example
Reliability
Dynamic level
1^27^27^Column 27 refers to the reliability ofinformation about the well dischargerate, coded according to the methodof measurement:
unknown^ 0orifice meter, orificebucket, container - good^1types of weirs or flumes -^2mediumjet stream measurements,^3other estimates - poor
6^28^33^Columns 28 to 33 deal with the dynamic level or "backpressure" of the well.
Column 28 deals with the sign for the dynamic levelor back pressure of the well (if given infeet) expressed as + for a flowing well,or well with a level or pressure (in feet)above groundsurface, and - for a well witha level or pressure (in feet) belowgroundsurface.
Columns 29 to 31 refer to the dynamic level orback pressure value for the integer part,fill last whole number in column 31 , the
decimal part to be filled in column 32.
Column 33 refers to the unit in which the dynamiclevel or back pressure is expressed, coded as:
Container
LLJ
V - weir
LLI
pressure, elevation or depth in feet^1pressure in pounds per square inch -^2
(p.s.i.)pressure in inches mercury^3
Note: The back pressure is the pressure measured in thewell when it is free flowing or partially closedby a valve.
Topic
Type of flow
Outlet
Miscellaneous/ Comments
7 FOLIO NmrnER
Column Total Start End
2 35
1 36
2 37
2 79 80
Well discharge data transfer sheet
Explanation
Columns 34 and 35 deal with the type of flow encountered in the well.
A well can be:
free flowing controlled pumped ceased to flow non-flowing
FF OF PF CD NL
Columns 36 refers to the history of the outlet of the well. Changes (lowering) of the outlet are recorded in the following way:
1st lowering of outlet 1 2nd lowering of outlet 2 3rd lowering of outlet 3
~: record an unlmown number of lowerings as 9. If the outlet has been raised instead of lowered, fill column 36 with: H
Columns 37 and 38 are left for optional further information eventually required for the Well discharge rate card. Fill columns 37 and 38 with AD for an abandoned well and with LIe for a well in which leakage occurs. Second and third sets of records are to be filled in columns 39 to 58 and 59 to 78.
Columns 79 and 80 are for the folio number of the well discharge data card. This folio number refers to one well, i.e. the set of cards (and lines on a transfer sheet) to be used for one well.
Example
Free flowing bore
LiliJ
1st lowering
L1J -1'>" N .
• NM I= • MI MI NMI OM^NMI 1•11
2.7^ Well production card
The well production card deals with the production (flow or discharge) history of a well
or group of wells.
The discharge rate is recorded in relation to production periods, which may be hours per
d4y, days per week, or months. The total production of a well in a year and the type of flow are
also recorded.
B M R - G A B Groundwater project^ WELL^PRODUCTION^SHEET^GA B —ADP System transfer sheet
ce
Wo0
IDENTIFICATION
=
a
-4.4
ia)-•PRODUCTION^RECORDS x
W03Mnz
2-Jou..
No.I No.2 No.3
(..)
oI:
in
...0:::
--I
1:250000Map
Number
.1".,O
78c.,i
01.°_ra
Well
Number •
ccco
2cr
-:i.-<^!.--7..-i^..1"^W).-
Discharge
Rate
103 gpd2
'c..6 To0
Product'onPeriod
5.8m
i;0
6"a ci; ,_i et
fg:L. :^Total
:13^Yearly.26
rel; Prod.I0 g
Is x
02C131-
II^
r,41
>.•
Discharge
Rate3
10 gpd
-a
il'
Production
22To..26,,'5,•-
(13
Perioda a t
2 ct,
)..•
1.3
Total
Yearly
6Prod.I0 g
150o il
0.>.i_
.-a•›.-
DischargeRate
10 3 gpd
f-
2
Production
8 Tot
Per.a
X
od
0a
_o
t a0.-...a aX 0-
Z..=ii
aCC
Total
Yearly
•Prod .106g
"6 g
:lir_
1.'1"
3 • 5 14 1 71 4 •
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20
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30
411140 31 31134154135 34157 551191 1140
40141144 0944145 45147 45
50
yam 51 58153154155 511157 56159
10
40141 111121431141115 SSW 54
70
114170 71 72173174175 7617776
80
79180
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Well production transfer sheet
Explanation^ Example
Columns 1 and 2 are pre-printed and refer to the^Well production card.Code of the card, see Introduction, 1.3.2.
Columns 3 to 15 deal with the identification of thewell; this information is to be repeated fromthe Master card; for filling of these columns,refer to the Master transfer sheet explanation.Note column 9, see Introduction, 1.3.3.
Column 16 deals with the main aquifer tapped by thewell (or representative well in the centreof a group of wells), as described in theaquifer description card:
Unknown^ 0Watertable^1Hooray Sandstone andAdori Sandstone aquifer 2plus correlatesHutton Sandstone, EvergreenFM, and Precipice 3Sandstone aquifer
Triassic, Permian and^4stratigraphicallydeeper aquifers
If several main aquifers are tapped: 9
Hooray Sandstone^•
Ld
Hooray Sandstone andHutton Sandstone
=== OM^ NM OM ME^OM^IIE lEI^=I
TopicColumn
Total^Start Ebd
CODE 2 1 2
IDENTIFICATION 13 3 15
MAIN AQUIFER 1 16 16TAPPED
121
Topic TotalColumnStart End
Well production transfer sheet
Explanation
RELIABILITY 1 17 17 Column 17 refers to the reliability of informationon the aquifers tapped, coded as:
unknown^0good^1medium^2poor^3
PRODUCTIONRECORDS^.
20 18 37 Three production records are allocated to each line ofthe Well production transfer sheet (whichcorresponds to one data card).
Year 2 18 19 Columns 18 and 19 refer to the year for which thetotal annual production is given and/or theyear for which a detailed production periodis given in the following columns.^Fillcolumns 18 and 19 with the last two numbersof the year, see 2.1.
Discharge rate 4 20 23 Columns 20 to 23 refer to the discharge rate in 1000gpd.^This figure represents the average dailydischarge rate during the /.22 .21, expressed in1000 gpd.
Production period 7 24 30 Columns 24 to 30 refer to the production period.^Theperiod during which the well is producingwater (i.e. is pumping) can be expressed inmonths, days per week, or hours per day.
Example
medium
1 2_1
production year1928
1 2 1 8 1^-p.cn
5 250 000 gpd
I 5 I 2 I 5 I 0 I
^
Columns 24 to 27 refer to a pumping sequence of months^August to Novemberwithin the year (eg. for a seasonal cycle);
^
the months to be coded from 1 to 12 (see 2.1).^I 1 8 I 1 11 1Month started columns 24 and 25, month endedcolumns 26 and 27.
IINI^I= •^MI • IIIII^•^IIIII • NMI
I EN ow NE NE mu ow EN^I= =I am me No NE^ NE No
Well production transfer sheetColumn
Topic^Total Start End^ Explanation^ Example
Note!. If a pumping season extends from one year^October 1965into the other, eg. October 1965 to May 1966,^tothe record has to be filled as:^ May 1966
Columns 18 and 19:^Year 65,^1 61 51^11 1 I 1 ^10 1 2
columns 24 to 27: Months 10 to 12,and in the next record:^ 16161^1 111^151columns 33 and 39: Year 66,columns 44 to 47: Months 1 to 5
Column 28 refers to the production period expressedin days per week, in case of a weeklypumping cycle.
Columns 29 and 30 deal with the production periodexpressed in hours per day for a daily cycle.
3 days per week1.2. 1
10 hours per day
11101Reliability 1^31^31^Column 31 refers to the: reliability of the
Production period information, coded as:
unknown^ 0good: accurate records^1e.g. continuously flowingwell or recorded pumping
medium: suspect records,^2e.g. irregularly controlledflowing well
poor: unreliable records,^3e.g. wind pumped well
poor
3f
Total year's^4^32^35^Columns 32 to 35 refer to the total productionproduction^ of the well in the year stated in columns
18 and 19 in millions of gallons.
550 000 000 g.
I^1 5 1 5 1 01
Well production transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example
Type of flow 2^36^37^Columns 36 and 37 refer to the type of flowencountered in the well, coded as:
free flowing^FFcontrolled flow^CFpumped^PFceased flowing^CDnon-flowing^NL
Second and third sets of records are to be filled incolumns 38 to 57 and 58 to 77.
pumped
IPIF I
MISCELLANEOUS^1^78^78^Column 78 is available for other informationeventually required for the well productioncard.
FOLIO NUMBER 2^79^80^Columns 79 and 80 are for the folio number of thewell production card. This refers to onewell, i.e. the set of cards (and lineson a transfer sheet) to be used for one'well.
6th card
Li
OM NM^• I= =I MI • NM^II•11 =I NM NM • • MN
2.8^ Head and temperature card
The head and temperature card deals with the head (water level) and temperature
records of a well or group of wells.
The pressure head, depth or elevation with date of measurement are recorded for a
given aquifer, together with the reference level or distance from the ground surface and the
temperature of the water discharging from the well.
‘4,
HEAD AND TEMPERATURE SHEET G A B —ADP System transfer sheetBAIR —GAB Groundwater project
HEAD AND TEMPERATURE RECORDSIDENTIFICATION
No.I No.2 No.3a.
1
co
Date ate
2
PressureDepth
• ElevationE
O
PressureDepth
, Elevation^.,_
14iT)^ci 0
PressureDepth
C Elevation
O D
0.
5
0)); V• C0
0
a) ow
30
30131132
1 1250 000 5•
•^CMap
(f) -J Number o
U.Well
Number
UiU.5
:aa:aaO
•
C4)^0
>-Uicc 4.)
)-0 )-
50
73174176 76 77 76179110
704o10
$ 4 5161716 5 10 11112113114115
2053184158 701711726111519 63 416516067 61I 6933134135 43 145146147 44 4544)14131113518119 20(21 23 24125126127 25_19 57 62I,
4,G
36 37 422215 17
I 1^1^1 111^IIIII 1^1^1^1
4,6
4,6
4,6
4,6
1^1^II li tliltI 1^1
1^II1III I I1 11^I^1II^II1^I^1
_1l^II1III 1 Ill I1^1^I Ii^II
1I II11^1^1 ii^ii 1^1^1
1 II I1^I^11^1^1^1'II
1 1I llill1 1 1 11 1 I
1I ll.111^1^1
It1 1
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i t 1^ii11^I I
I^II !11 1 it
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4,6
4 1 6
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4,G
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1 1^II1^I^1^1^A^liii^I^1
^
I^1^I^1^1^1^1
^
1^1^1^1^1^I^1
^
1 1 1^I I I 1^1—, I
I^1^1^I^1^1^I^1^1
I^1^I
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11 1 1^1^11^1^1
1 III 11^ii
A n
1.1 =I MI 111= OM MI UM NM MI • I= I= •^IIIII NMI II•11 MI MN
MI IMO MINI MIMI IM
TopicColumn
Total^Start End
Head and temperature transfer sheet
Explanation
CODE 2 1 2 Columns 1 and 2 are pre-printed and refer to theCode of the card, see Introduction, 1.3.2.
IDENTIFICATION 13 3 15 Columns 3 to 15 deal with the identification of thewell; this information is to be repeated fromthe Master card; for filling of these columns,refer to the Master transfer sheet explanation.Note column 9, see Introduction 1 3 3
MAIN AQUIFERTAPPED
1 16 16 Column 16 deals with the main aquifer tapped by thewell (or representative well in the centre ofa group of wells) as described by the aquifer
RELIABILITY^1^17^17^Column 17 refers to the reliability of informationabout the aquifers tapped, coded as:
unknown 0good 1medium 2poor 3
Hooray Sandstone
Example
Head and temperature card
description card:
Unknown^ 0Watertable^ 1Hooray Sandstone and Adori^2
Sandstone aquifer pluscorrelates
Hutton Sandstone, Evergreen Fin. and 3Precipice Sandstone aquifer
Triassic, Permian, stratigraphically 4deeper aquifers
If several main aquifers are tapped^9^Hooray Sandstone andHutton Sandstone
L21.1
medium
I 2
Head and temperature transfer sheetColumn
Topic^Total Start End^ Explanation^ Example
HEAD ANDTEMPERATURE RECORDS^20^18^37^Three head and temperature records are allocated to
each line of the transfer sheet (whichcorresponds to one data card).
Date^ 4^18^21^Columns 18 to 21 refer to the date of the head and/ortemperature measurement
Year^ 2^18^19^Columns 18 and 19 refer to the last two numbers of theyear, see 2.1.
Month^ 2^20^21^Columns 20 and 21 refer to the month of the head and/ortemperature measurement; months to be coded1 to 12, see 2.1.
1956
1 51 61
AugustW
Build-up 1^22^22^Column 22 refers to the build-up of the pressure orwaterlevel (recovery):^ pressure or water
level build-up
11Junknown^0build-up occurs 1no build-up
occurs^2
Pressure -^7^23^29^Column 23 to 29 deal with the head, i.e. the pressure,
Depth -^ depth or elevation of the waterlevel of the wellElevation^ according to the unit of measurement.
Column 23 refers to the sign, expressed as the positionof the waterleYel in feet below (-) or above (+)the measurement datum. A standing water level(SWL) is to be indicated as a "depth", sign - .
1=1111111=11•1111=11111111•111=11=111111=111•=111111111=1=11=1•11111
• =I =I • • • • MI • MI I= =I • =I • • OM • NM OM
Head and temperature transfer sheet
ColumnTopic^
Total Start End^
Explanation^
Example
Column
Column
Column
A, pressure head will be indicated by the sign +.
24 to 27 refer to the pressure, Zepth orelevation value, for the integer part.
28 contains the decimal part of the pressure,depth or elevation.
29 refers to the unit in which the pressure,depth or elevation is expressed, and thiscan be either pounds per square inch (psi)or feet, coded as:
pressure or depth in feet^1
pressure in psi^2
elevation (related to referencelevel) in feet,either with sign + or - 3
- 23.5 ft. elevation
I-I^12)3 1 5 1 3 1 + 178.5 ft. elevation
1+1^111 71815131 .... 12.8 ft. pressure
1+1^11121815121- 486.1 ft. depth
1_1^1081611111Reference level/Ground surface
3^30^32^aColumns 30 to 32 refer to the reference level, i.e.the distance in feet (integer part in columns30 and 31, decimal part in column 32), fromthe reference level to the ground surface.The reference level can be the place of thepressure plug for a pressure measurement, orthe top of the casing for SWL measurement.The groundsurface elevation is given on themaster card (columns 40 to 44)
reference level12.6 ft. aboveground surface
L.11.?1_1
Head and temperature transfer sheetColumn
Topic^Total Start^End^ Explanation^ Example
Temperature
Reliability
4^33^36^Columns 33 to 35 refer to the temperature of thewater at the outlet of the well when ithas been flowing or pumped for some time.Ignore decimal parts. Fill last numberin column 35 i.e., right justification.(This measurement will be used with T.D.S.data - card 4K - to correct all headvalues for the water density values)
Column 36 refers to the unit in which thetemperature is expressed, coded as:
degrees Fahrenheit^1degrees Celsius^2
1^37^37^Column 37 deals with the reliability of thepressure, depth or elevationmeasurements coded as:
unknown 0good 1medium 2poor 3
127 Fahrenheit
1 1 12 17 111
Second and third sets of records are to be filled incolumns 38 to 57 and 58 to 77.
FOLIO RUMOR 3^78^80^Columns 78 to 80 refer to the folio number of thehead and temperature card. This folionumber refers to one well, i.e. the setof cards (and lines on a transfer sheet)to be used for one well.
MI • I= • I= • I= • • • MI MI • • • =I I= • MI MI
MN • • • • • • OM I= • • • • I= • MB • MI • •
2.9^ Well Hydrodynamics card
The well hydrodynamics card deals with information about hydrodynamic tests (pumping or
flowing), the test characteristics, and the test results.
Test characteristics include starting and finishing dates of tests, duration of recovery,
elevation, depth of screens, screen length, distance to pumping or flowing well and the interpretation
method used (steady or unsteady state).
Test results include transmissivity values of the main confined aquifer tapped, both from
the lowering and recovery interpretation, the specific capacity of the well and the storage
coefficient. Test results for the confining bed include the thickness, vertical permeability and
storage coefficient.
B MR —GAB Groundwater project^ WELL^HYDRODYNAMICS^SHEET^GA B —ADP System transfer sheet
wca
c..)
IDENTI FICATION
rcw'Lk:mC11
Owzm
ccTEST^CHARACTERISTICS
2TEST^RESULTS
>->. mi— ,—1 wFri >-a w=111 Dcr cn
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0
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0
0—I
...I:250000Map
Number
..:coo
.0■_8
0,c—ca0
A
well
Number
m Date Startedz Date^Ended RecoveryLast
(Hours)
Elevation DepthOf
Screen
ScreenLengthLeng
'DistanceTo
Pumping t(Flowing))
well
In erp.Method Main^Aquifer Confining^Bed
_1—I^..'W rp
.ce0
,..0o
._0a,>-
fc02
>.a0
Datum
o
61i'6
0 4,..5.z— u•
Low.ccisTransm.Transm.
o_Rec.c
o_
Spec.Cap.
.co
StorCoeff. .,
0_
Thickness K' z S'c0
c:0
111 2 3 4 5 16171 . D
I 010 1111211111D1115 16 17 14119
20MU 22123 24115 26127 26119
3030151132 1313413513$ 37
4034139140141142 43144145146
50irriasi4sleolei Si smeaseles 57 5114940
60WU 113 64165 4.4171114169170
7071172 7374178 7S77 75
80791110
41H 1^I^1 1111 L I 1 1 I 1 11 Ill, 1111 III III^1 I 1 1 1 1 III I 1 I
41H ill 1111 1 I 1 II 1 AI 111 1111 III 1111 1 I 1 I 1 III I 1 I
41H I^1^1 1111 11111 I 11 III 1111 III 1111 1 1 I 1 I 11i 1 1 1
41H III iiti t I I I 1 I II 1^1^l 1111 111 1^1^1^1 1 1 1 1 1 III 1 I 1
4,H 1^1^1 I^I^1^1 I I tiii 11111 1111 III 1111 I 1 I 1 I ill I I 1
41H 1^1^1 1111 I I I I I 1 11 III 1111 I^1^I 1111 1 I 1 1 I 1^1^I I I 1
41H I^I^1 1^1^1^1 i I I 1 I I II 111 1111 III 1111 1 I I 1 1 Iii I 1 1
41H I^I^I 1111 I I 1 1 1 1 11 111 1111 III 1111 I 1 1 I I III I 1 I
41H I^1^I 1111 1 1 1 1 1 1 11 111 1111 111 11^11 1 1 I I I ill I 1 1
4H
41H I^1^I 1^I^1^4 1 1 1 1 1 1 11 111 1111 111 1111 1 1 1 1 i 1^1^I 1 y_t_
4H
IT
.
4,H I^I^I I^i^I^1 I 1 1 1 1 1 11 111 1111 III 1111 1 I I 1 I III I I i
41H III 1111 1 1 I ii 1 ii Ili 1111 III iiil 1 1 1 i I III 1 1 1
41H I^I^1 1111 1 1 1 1 1 1 11 111 1111 111 1111 I 1 1 I I 1^1^1 I I i
41H i^1^1 1111 1 1 1 1 1 1 11 111 1111 1^I^1 1111 I I I I I i^1^I i I I
41H III 1111 1 1 1 1 1 I II III 1111 III 1111 I 1 I I I 1^1^I 1 1 i
4,11 Ill I^1^I^1 I 1 1 1 I 1 11 111•1 1111
1111
III
III
1111
1111
1
I
1
I
1
I
I
I
1
I
1^1^1
Iii
I
I
I
I
j
141H 1^I^1 1111 1 1 1 1 1 1 11 111
41H
III 1111 1 1 1 1 1 1 11 111 1111 1^I^1 1111 I i I I I 1^1^1 1 1 141H III 1111 1 1 1 1 1 1 11 111 1111 1^1^L 1111 I I I I I 1^I^1 1 1 i4
1H I^1^1 1111 1 1 1 1 1 1 II 1^1^1 1111 1^1^1 1111 1 I 1 1 I i^i_I I
MU
MN • MI IMO I•11 NM • NM MN • • MI I= IMO • MN • MI • OM
• MI • MN • •^MN MI MI • • Mil • MI I= Ell • =I
ColumnTopic Total Start End
CODE 2 1 2
IDENTIFICATION 13 3 15
MAIN AQUIFER I 16 16TAPPED
Well hydrodynamics transfer sheet
Ekplanation^ Example
Columns 1 and 2 are pre-printed and refer to the^Well hydrodynamics cardcode of the card, see Introduction, 1.3.2.
^1 41 HIColumn 3 to 15 deal with the identification of the
well; this information is to be repeatedfrom the Master card; for filling of thesecolumns, refer to the Master transfersheet explanation.Note column 9 1 see Introduction 1.3.3.
Column 16 deals with the main aquifer tapped bythe well (or representative well in thecentre of a group of wells), as describedby the Aquifer description card:
Unknown^ 0Watertable^ 1Hooray Sandstone and Adori
Sandstone aquifer, pluscorrelates^ 2
^Hooray Sandstone
Hutton Sandstone, EvergreenFM and Precipice Sandstoneaquifer^ 3
Triassic, Permian, andstratigraphically deeperaquifers^ 4
If several main aquifers are tapped 9^Hooray + Hutton Sandstone
191
Well hydrodynamics transfer sheet Column
Topic Total Start End Explanation Example
WELL NUMBER 1 17 17 Column 17 refers to the well number, i.e. the number of the well (or observation well) while the field test was processed. Nine numbers, Observation well 1 to 9 are allowed. If the well scheduled No.3 is the pumping or flowing well: I2J Fill colunm. 17 with P for a pumped, with F for a flowing bore.
TEST 37 18 54 Columns 18 to 54 refer to the test characteristics CHARACTERISTICS of the pumping or flowing tests.
Date started 6 18 23 Columns 18 to 23 refer to the date on which the 7 May 1943 test started. 14 131 151 171
Year 2 18 19 Colunms 18 and 19 to be fiLled in with the last two 1943 numbers of the year (see 2.1) 14131
IJl
Month 2 20 21 Columns 20 and 21 to be fiLled in with the month, ~ CD
numbered from 1 to 12, (see 2.1) 151 .
Day 2 22 23 Columns 22 and 23 to be filled in with the day on 7 which the test started. 17 ,
Date ended 6 24 29 Columns 24 to 29 refer to the date on which the test ended; these columns to be filled in the same way as for date started.
Recovery period 3 30 32 Columns 30 to 32 refer to the recovery period, the time in hours since the recovery started 18~ (since pumping stopped or flow was closed off). I 1 8 Last number to be fiLled in column 32, i.e. 24 s'
. rignt justification. . ~14171
-------~--~---------
3238.6 ft.1 3 ! 2 1 3
■J1Lo
81
MI NM MI SIM^• • MO MI MI OM INN •^• On MI MI MI
ColumnTopic^Total Start End
Well hydrodynamics transfer sheet
Explanation^ Example
Elevation datum^5^33^37^Columns 33 to 37 refer to the elevation datum, i.e.the well datum or reference level in feet above(or below) mean sea level. This well datumor reference level may be the ground-surface,the top of the well casing, or anywhere else.The elevation of this datum needs, therefore,to be carefully copied from the test report.It is expressed in feet, to be filled incolumns 33 to 36, with the decimal part incolumn 37 (right justification).
Note: Fill column 33 with - if the well datumis below sea level.
Depth of screen^5^38^42^Columns 38 to 42 deal with the depth of the bottomof the screen, or bottom of the slotted orperforated part of the casing. In case ofopen hole, the bottom of the hole should betaken if it is in a pervious layer,otherwise the bottom of the pervious layermust be taken. This depth is to berecorded in feet (as the depth from the welldatum to the screen bottom), and no decimalpart is required. Last number in column 42,i.e., right justification.
Screen length^4^43^46^Columns 43 to 46 refer to the screen length, perforatedor slotted part of the casing, or the open-holelength. The length of this interval to bestated in feet (no decimal part required);if there are several intervals, add the actualscreened, slotted or perforated lengths(if facing the same main aquifer).
1425.3 ft.
11141215131
28.5 ft.I -I^1 2 1 8 1 51
138 feet
1^1113181
Topic
Distance to pumping or flowing well
Interpretation method
Column Total. Start End
5 47 51
3 52 54
Well hydrodynamics transfer sheet
Explanation
Columns 47 to 51 refer to the distance from the "well scheduled (if an observation well during the test), to the pumping or flowing well, expressed in feet (no decimal part required), right justified.
Example
324 ft.
I 131 21 4J
~: If the well scheduled is the pumping or flowing well during the test, fill columns 47 to 50 with TEST, and column 51 with P for a pumping well and F for a flowing well.
IT\ElsIT\P!
Columns 52 to 54 refer to the interpretation method used to eValuate the pumping or flowing (hydrodynamic) test (see Kruseman and De Ridder, 1970, tables 15 and 17).
Column 52 to be used for steady-state interpretation methods, coded as:
Thiem, .1906 1 De Glee, 1930 } Hantush~acob, 1955 2 Ernst mod-Thiem Thiem-Dupuit, 1906 3 Dietz, 1943 4
Huisman, corr. 1 t Huisman, corr. 2 Jacob corr., 1963· 6 Huisman, corr. 1 and 2 Hantush corr. 1964 Huisman-Kemperman 1951 1 7
Logan, 1964 t Gosselin, 1951 8 Logan, 1964 Zangar, 1953
Culm;nation point 5 Bruggeman, 1966 r 9 o
C\ o •
TEST RESULTS 22 55 76
Main aquifer 12 55 66
Transmissivity(lowering)
3 55 57
Columns
Columns
Columns
no ow am ma so EN MI Ns Ns as ow um ow No ow ow =I am No ma
Well hydrodynamics transfer sheet
ColumnStart^End^ Explanation Example
Columns 55 and 54 refer to the unsteady-state method ofanalysis, coded as:
Theis (Jacob), 1940 1 Hantush (confined) 1964 15Chow, 1952 2 Hantush (unconfined, 1964 1 6Jacob (Cooper and Jacob), 1946 3 Cooper-Jacob, 1946 17Theis recoverg,1935 4 Aron-Scott, 1965 18Walton, 1962 5 Sternberg, 1968 19Hantush 1, 1956 6 Sternberg recovery, 1967 20Hantush 2, 1956 Hantush, 1962 21Hantush 3, 1956 8 Theis, mod. Hantush, 1962 22Boulton, 1963 9 Jacob, mod. Hantush„ 1962 23Stallman (Ferris et al,)1962 10 Papadopulos-Cooper, 1967 24Hantush image, 1959 11 Hurr, confined, 1966 25Hantush (confined- 12 Hurr, unconfined, 1966 26
unconfined) 1966 Jacob-Lohman, 1952 27Hantush-Thomas, 1966 13Hantush (semi-confined), 1966 14
Topic Total
55 to 76 refer to the results of thepumping and flowing tests.
55 to 66 refer to the test results for themain aquifer and include:
55 to 57 refer to the transmissivity valuesdeduced from the lowering period or from adrawdown test. Transmissivity ortransmissibility is the product of the averagehydraulic conductivity (or permeability) and thethickness of the aquifex • Transmissivities areexpressed in gpd/ft; insert in columns 55 and 56the first two numbers of this value, and in column57 the number indicating the value to the power of10.
22 000 gpd/ft.
2 1 2 1 311 590 000 gpd/ft
1 1 1 5 1 51
210 000 gpd/ft1 2 1 1 1 44 410 000j 4 1 41 5 1
2 560 000 000 gpm/ft
1 2 1 5 1 8 1
-515 x 10
11 5 51
-6,^io1^1 1 1 6
Well hydrodynamics transfer sheet
Explanation^ Example
Columns 58 to 60 refer to the transmissivity valuesdeduced from the recovery period test.Transmissivities are expressed in gpd/ft;insert in columns 58 and 59 the first twonumbers of this value, and in column 60the number of the power of 10.
Columns 61 to 63 refer to the specific capacity or themeasure of the effectiveness of well (which is afunction of the discharge - drawdown ratio and time).Specific capacity values are expressed in gpm/ft;insert in column 61 and 62 the first two numbers ofthis value, and in column 63 the number indicatingthe power of the nearest value of 10.
Columns 64 to 66 refer to the storage coefficient of themain aquifer, as deduced from the test results.(The storage coefficient refers to the volume ofwater released or stored per unit surface area of theaquifer per unit change in the component of head normalto that surface; it refers to the confined parts of anaquifer and depends on the elasticity of the aquifermaterial and fluid).Storagp coe4icients are dimensionless and expressedas 10-4', 10r0, etc.; insert in columns 64 and 65the first two numbers of this value, and in column66 the negative power value of 10
Confining bed^10^67^76^Columns 67 to 76 deal with the test results for theconfining bed, and include:
TopicColumn
Total^Start End
Transmissivity(recovery)
3 58 60
Specificcapacity
3 61 63
Storagecoefficient
3 64 66
1•111^MI^IIIIII •^MI MN SIM MI MI In I= •^III•1 •
Well hydro~~uicG trAnRfer sheet Column
Topic Total Start End Explanation Example
Thickness 4 67 70 Columns 67 to 70 refer to the thickness of the 845.5 ft confining bed confining bed in feet; no decimal part is
1 required. Fill the last number in column 70, 1 81415 J i.e. right justification. 1234 ft
111 2131 4 1
Vertical permeability 71 73 Columns 71 to 73 refer to the vertical permeability of the
confining bed. The vertical permeability is expressed in gp~ft. Fill in columna 71 and 72 the first two numbers of this figure, and in column 73 the power value of 10.
Storage 3 74 76 Columna 74 to 76 refer to the storage coefficient or 25 x 10-4 coefficient specific yield of the cOnfining bed.
Storage coefficient and specific yield are 1215141 dimensionless. Fill in columna 74 and 75 the 10-3 0"1 first two numbers of this value, and in column VI . 76 the negative power of 10.
11 131
RELIABILITY 1 7? 77 Column 77 refers to the reliability of the test characteristics and test data, coded as:
unknown 0 medium good 1 ~ medium 2 poor 3
Well hydrodynamics transfer sheet
ColumnTopic^Total Start End^ EXplanation^ Example
SURVEYED BY^
1^78^78^Column 78 refers to the surveying authority, to becoded as:
unknown 0Bureau of Mineral Resources and its
contractors1
State water authorities:
Queensland 2
New South Wales 3South Australia 4Northern Territory 5
State geological surveys 6Water consultants and industry 7Universities and research organizations 8Local authorities, drillers and owners 9
TEST NUMBER 2^79^80^Columns 79 and 80 refer to the number of the test^ 3rd test(flowing or pumping) in the seriesscheduled for one well^ 1.-31
INIIIIMIIIIIM11111111111•111111111111111111111/1101•111111111111111111111111111111111•11110
I= MI Ell I= MN MEI • MI^ • NM Ili •^IIIII^MI =I
2.10^ Pumping and flowing test card
The pumping and flowing test card deals with the test history in terms of measuring
conditions, together with the actual measurements.
Information about the measuring conditions include the well number, type of test,
reliability of pressure and gauging equipment, and the authority Which carried out the test.
Basic test data consist of the date the test was completed, the flow rate, static head,
standing water level or back pressure at the start of the test, and container capacity if n
container was used for measuring the discharge.
Records of time-dependant test measurements include the time in hours and minutes,
head or depth, and discharge.
iLlc:1
C.,
FLOW RATEOS
BEFOREIDENTI FICATION
Well
NumberMap
Number ID^411 TEST
-••I-
0Lii
L&JDATE
COMPLETED
B MR —GAB Groundwater project PUMPING AND FLOWING TEST SHEET G A B —ADP System transfer sheet
cwco
No.1^ No.2 ^mm
Time Since Head Depth Discharge Time Since Head Depth Dwisocohogryped ozTest Started^Feet 1,000g.p.d. Test Started o. Feet
c or^:I=^or _^c^Or^._^Or^t JHours^Min.^Psi. c,^Seconds^Hours Min. 7, Psi. 6 ; Seconds c
80
RECORDS
U_
TO SO111111111111111111111111111111111111111111 I" IIIIIIIIIIIIIIIII 1111111111111 :::::1[111111111111111111111[1111 11
NEIL11111111111111M11111111111111111111111111111111111111.11111111111111111111111111111111111111
^1 II^
II
11CONIIIIIIIIIIIIM1111111111111111111.1111111111111111.1111111111111111111111111111111
II^11101000111111^"HI ii ^
d T
I I
4,1
4, 1
4.1
4.1
4,1
4,I
4 1.1
4,1
41
MI MO NMI OM MI MB MI NM =I MN MI =II IIIIII MIN MI NM • NM • OM
NIM • MI MO M INIONNI MI • • all SIM IM
TopicColumn
Total^Start End
Pumping and flowing test transfer sheet
Explanation^. Example
CODE 2 1 2 Columns 1 and 2 are pre-printed and refer to the Pumping and flowing testCode of the card, see Introduction, 1.3.2. 'card,
(If 1^I
IDENTIFICATION 13 3 15 Columns 3 to 15 deal with the identification of thewell; this information is to be repeated fromthe master card; for filling of these columns,refer to the master card transfer sheetexplanation.Note column 9 1 see Introduction 1.3.3.
MAIN AQUIFER TAPPED 1 16 16 Column 16 deals with the main aquifer tapped by the well(or representative well in the centre of a group
-
of wells), as described by the aquiferdescription card:
Unknown^ 0
Watertable^ 1
Hooray Sandstone andAdori Sandstone aquifer^2plus correlates
Hutton Sandstone, EvergreenFm and Precipice Sandstoneaquifer^ 3
Triassic, Permian andstratigraphically deeperaquifers^ 4
If several main aquifersare tapped^ 9
Hooray Sat
121
Column Topic Total Start End
RELIABILITY 1 17 17
WELL NUMBER 1 18 18
TYPE OF TEST 1 19 19
Pumping and fiowing test transfer sheet
Explanation
Column 17 refers to the reliability of information about the aquifers tapped, coded as:
unknown
good
medium
poor
o 1
2
3
Column 18 refers to the number of the well during the test, if the well is an observation well. If the well is the flowing or pumping well tested, fill column 18 with F for a fiowing well, and with P for a pumped well. Observation wells can be numbered from 1 to 9.
Column 19 refers to the type of test performed, to be coded as:
static test
dynamic test - opening
dynam1c test - closing
recession test
1
2
3 4
5 6
7 8
9
Example
good
L!.J
fiowing well l!J
2nd observation well
L.5J
"" OJ .
NM MI 1M MI OM I= MI MI MI • OM =I • M IMI= all •
Pumping and flowing test transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example
PRESSURE EQUIPMENT^1^20^20^Column 20 refers to the reliability of theRELIABILITY^ equipment used to measure the
Pressure of the well, coded as:
unknown^0mercury manometer,water tube^- good 1
medium 2pressure gauge - poor 3
mercury manometer
L11
GAUGE EQUIPMENT^1^21^21^Column 21 refers to the reliability of theRELIABILITY^ equipment used to measure the levels
of the well, coded as:
unknown^ 0automatic level recorders,electric probe tape,air line^ 1^ floating tape
floating tape (hand^ LJ^0-■
operated)^
2
measuring tape (hand-operated), wetted tape
^3
COMPLETED BY 2^22^23^Columns 22 and 23 refer to the authority whichcarried out the test scheduled, to becoded as:
Unknown^ 00BMR^ 01BMR contractors^02 - 09State water authorities^10 - 19
Qld^11NSW^12
it^It^SA^13TI^It^ NT^14
71r1 Irrigation and WaterSupply Commission,Brisbane
Ii! 1 1
Flinders Shire Council
1 6 1 0 1
28 May 1956,15161^15 12 1 8 I
19561 5 1 6 1
May1^1 51
281 2 1 81
0
Pumping and flowing test transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example
State geological surveys 20-29TI^U ^Qld 21TI^It^
" NSW 22ft^11^
" SA 23It^It^
"NT 24
Water consultants^30 - 39Universities andresearch organisations 40 - 49
Industrial/ petroleum,& mining companies^50 - 59Local authorities^60 - 69Drillers^70 - 79Owners^80 - 89Others^90 - 99
DATE COMPLETED 6 24 29 Columns 24 to 29 deal with the date on Which thetest was completed
Year 2 24 25 Columns 24 and 25 refer to the year in which thetest was carried out; fill in with lasttwo numbers of the year (see 2.1.)
Month 2 26 27 Columns 26 and 27 refer to the month in Which thetest was carried out; code months from1 to 12, rient justified.
Day 2 28 29 Columns 28 and 29 refer to the day on which thetest was carried out.
MN • MEN= Ell INN • • MI NM NM MI MN MI MI OM • • NM
OM MN MO^ Ell ME M = MI^ NM IMO MI I=
Pumping and flowing test transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example
FLOW RATE BEFORE^6^30^35^Columns 30 to 35 refer to the flow rate beforeTEST STARTS^ the test started.
If the actual amount of water is measured,the measurement of the flowrate is expressedin 1000 gpd in columns 30 to 33. If themeasurement is in gallons per hour, multiply by24 before filling the columns.If the flowrate is measured by the timeneeded to fill a water container of knowncapacity, columns 30 to 33 are to be filledwith the time in minutes or seconds.Insert last number in column 33, see 2.1.
Column 34 deals with the unit in which the flowratemeasurement of columns 30 to 33 is expressed,i.e. whether these figures express gpd orminutes
gpd - gallons per day^1minutes^ 2seconds^ 3
Column 35 refers to the type of flow in the wellbefore the start of the test, coded as:
free flowing^1controlled flow^2^ pumpedpumped^3^ Wceased to flow^4flow nil^5
(flow stopped byclosed valve etc.)
Unit 1 34 34
Type of flow 1 35 35
256000 gpd
I^12 1 5 1 6 1
18 minutesI^11181
gpd^-4
TopicColumn
Total^Start End
STATIC HEAD, 6 36 41STANDING WATERLEVEL OR BACKPRESSURE
Sign 1 36 36
Static head,standing water levelor back pressure
4 37 40
1 141 41Unit
CONTAINER 3 42 44CAPACITY
Pumping and flowing test transfer sheet
Ekplanation^ Example
Columns 36 to 41 refer to the static head,standing water level or back pressureof the bore immediately before thestart of the test.
Column 36 refers to the sign for the head orwaterlevel above (sign +) or below(sign -) the measurement datum level.
Columns 37 to 39 refer to the static head,standing water level or back pressure,expressed in feet or pounds per squareinch. Fill in columns 37 to 39 theinteger part only, with last number incolumn 39, i.e., right justified.
40 refers to the decimal part of thestatic head, standing water level orback pressure record.
Column 41 refers to the unit in which the statichead, standing water level or back pressureare expressed in columns 37 to 40, coded as:
pressure, head or levelin feet^1
pressure in psi^ 2pressure in inches of mercury^3
Columns 42 to 44 refer to the capacity of the containerin gallons if such a device is used to measure^20 gallon,the flow rate. Fill last number in column 44,^I 12 10.1i.e. right justified.
+ 28.4 ft
1 +1^1 2181 411
-4- 356.8 ft
1 - 1 31 5 1 6 1 8 I ii
38 psi
1 3 1 8 1^l2
=I IMI MININ^ I•11 IIIIII^I= OM •
Pumping and flowing test transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example
PUMPING AND^17^45^61^Two pumping and flowing test records are allocatedFLOWING TEST^ to each line of the pumping and flowingRECORDS^ test transfer sheet, which corresponds
to one data card.
Time since^6^45^50^Columns 45 to 50 refer to the time since the testtest started^ started, expressed in hours in colmins 45 to
48, and in minutes in columns 49 and 50.Fill last numbers in columns 48 and 50respectively; i.e., right justification.
Head or depth^6^51^56^Columns 51 to 56 refer to the head or depthmeasured at the time recorded in columns45 to 50.
Column 51 refers to the sign for the head or waterlevelabove (4-) or below (-) the measurementdatum level.
Columns 52 to 55 deal with the integer part of theactual head or depth measurements, to befilled with the last number in column 54, see 2.1.
Column 55 refers to the decimal part of the head or depthfigures.
Column 56 refers to the unit in which the head or depth isexpressed in columns 52 to 55, coded as:
head or level in feet^1in psi^2
pressure in inches of mercury 3
4 h. 12 min.
1^1^1^I kil I2 1
- 256.8 ft1 -1 2 1 5 1 61 8111^d
gpd 1minutes 2seconds 3
minutes
Ili^.-.Q-1=-
Pumping and flowing test transfer sheet
ColumnTotal Start End Explanation^ Example
5^57^61^Columns 57 to 61 refer to the discharge rate measuredat the time recorded.ti columns k5 to 50.The discharge rate is expressed in 1000 gpdto be filled in columns 57 to 60, with lastnumber in column 60, i.e. right justification.If the flowrate is measured by the timeneeded to fill a water-container of knowncapacity (filled in columns 42 to 44),columns 57 to 60 are filled with this timein minutes or seconds. Insert last nuu-iberin column 60, i.e. right justification.
Topic
Dischargein 1000 gpdor time
35000 gpd
1 3 1 51 1 125 minutes
1^I^1 2 1 5 1 2 1Column 61 refers to the unit in which the discharge
rate measurement in columns 57 to 60 is expressedcoded as:
FOLIO NUMBER
A second set of records is to be filled in columns 62 to 78.
2^79^80^Columns 79 and 80 refer to the folio number of thepumping and flowing test card. This folio numberrefers to one well, i.e. the set of cards (andlines on a transfer sheet) used for one well.
3rd card
12.!
NM MI IMO NM MI MI NM III•1 • =MEM 11•111^ • 111•11
I= OM NM • MI MI • MO I=^MI =I MI • IMMI^• INN
2.11^ Well characteristic curve card
The well characteristic curve card deals with the information about stepwise steady state tests,
i.e. tests with a varying discharge.
Information about these types of tests include the date on which they were carried out,
head measurements at the start of tests, discharge rates, and pressure or waterlevel of the well.
B IA R —G A B Groundwater project^WELL^CHARACTERISTIC^CURVE^SHEET^GAB —ADP System transfer sheet
ut0
0
IDENTIFICATION 6z
ccWU.—D.:ccyw
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DATECOMPLETED
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DischargeRate
(1.000g.p.d)
PressureOr
Depth
DischargeRate
(1.000g.p.c1)
PressureOr
Depth
DischargeRate
(1.000cjp.d)
PressureOr
Depth
DischargeRate
(1.000g.p.c0
PressureOr
Depth
DischargeRate
(1.000g.p.d)
PressureOr
Depth
04-
,,,
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1:250 000ma n
vNumber
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Well
Number
ilit $ 4 5 11 I 7 IS I
1010 II ilt113114118 Is I? li
20IOW WU 23114 Ite
SOVA aTlailaslaolsi 32i11111141116
403111l$71)111311140 41 142 l41}44 40 I41114714111411
50WW1 11121113 5445e IssIsme
0951111110181 let 85111414151811111117
7001/1111170171 72173174170176 77 71 re
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4 1 J 1^1^1 1111 I 1 1 1111 III 1111 111 1111 1^I^1 i^1^1^1 III 1111 III 1111
4 1 J 1^1^l 1111 II 1 1111 111 1111 111 1111 111 1111 111 1111 111 1111
4 t J i^1^1 1111 I 1 I 11^11 111 1111 1^1^1 1111 1^1^1 1111 1^1^1 1.111 111 1111
4 1 J t^i^1 'it' i i t. ill! ill 'ill 111 lilt i11 1111 lii illi 111 iIti
41.1 III 1111 I I I 1111 111 1111 ill 1111 I^1^1 1111 iii 1111 111 1111
4 1 .1 III 1111 1 1 I 1111 111 1111 Iii 1111 1^1^1 1111 III 1111 I^1^I 1111
4 1 J 1^t^1 1111 1 I 1 1111 III 1^111 III 1111 I^1^I 1111 ill 1111 I^1^1 1111
4t J II^1 1111 1 1 1 1111 1^I^1 1111 1^1^1 1111 1^1^1 1111 lii 1111 1^1^1 1111
4 1 J II^I 1111 I 1 1 1111 1^I^1 11 11 1^I^1 till 111 i^1^1^1 ill 1111 III 1111
4 1 J III 1111 1 1 1 1111 III 1111 111 1111 III 1111 III 1111 111 III
Ill 1111 1^1^l 1111 1^I^I 1111 1^1^1 1111 1^1^1 ii^-■14 1 J Iii 1^1^1^1 I i i 1111
4 1 ,1 - ill 1111 1 1 I Ilil 111 1111 1^1^1 1111 I^I^1 1111 111 1111 1^I^1Cr)
II
1^I^1 1111 111 1111 1^1^1 1111 1^1^1 1111 1^1^1 1 1114,J III 1^i^1^1 1 1 I 1111
I ii 1111 I i I 111i III4,J 1111 III 1111 III !ill Ili 1111 Ili till
4J 1^I^1 1111 I 1 I 1111 111 1111 I^1^I 1111 1^1^1 1 1 11 III 1111 111 1111 '
4,J 1^I^1 1 111 I I 1 1111 1^1^1 1111 1^1^l 1111 111 1111 111 1111 lii 1111
ill 1111 I 1 I 1111 111 1111 111 1111 111 1111 III LI^II III 111 1
4 1 J i^1^1 1111 1 1 1 1111 111 1111 III 1111 111 1111 111 1111 111 1111
41,1 III 1111 1 1 1 1111 III 1111 111 1111 111 1111 111 1111 III III^1
401 il l 1111 1 1 I 1111 111 1111 III 1111 111 1111 III 1111 ill Jill
4,J 1^1^1 1111 I 1 1 1 111 III 1111 III 1111 111 1111 III 1111 III 1111
I II 1111 1 1 1 1111 1^1^1 11 1 1 III 1111 III 1111 ill 1111 111 1111
4 .1
• MI MI 11= MI^IIMII MM^ MI1= 1= MII NIM M^1.11
•^ MI • =11^ MI NM EMI MIIMIM
TopicColumn
Total^Start End
Well characteristic curve transfer sheet
Explanation Example
CODE 2 1 2 Columns 1 and 2 are pre-printed and refer to thecode of the card, see Introduction, 1.3.2.
Well characteristiccurve cardI4IJI
IDENTIFICATION 13 3 15 Columns 3 to 15 deal with the identification of thewell; this information is to be repeated fromthe master card; for filling of these columns,refer to the master transfer sheet explanation.Note column 9, see Introduction 1.3.3.
MAIN AQUIFERTAPPED
1 16 16 Column 16 deals with the main aquifer tapped by thewell (or representative well in the centre ofa group of wells), as described by the Aquiferdescription card:
Unknown^ 0
Watertable^ I -4
Hooray Sandstone and AdoriSandstone aquifers, pluscorrelates 2
Hutton Sandstone, EvergreenFt and Precipice Sandstoneaquifer 3
Triassic, Permian andstratigraphically deeper^ Cambrianaquifers^ 4^UL1
If several main aquifers are tapped 9
Hooray Sat
TopicColumn
Total^Start End
Well characteristic curve transfer sheet
Explanation
RELIABILITY 1 17 17 Column 17 refers to the reliability of informationabout the aquifers tapped, coded as:
unknown^0good^1medium^2poor^3
TEST NUMBER 1 18 18 Column 18 refers to the test number, i.e. thechronological number of the test performedon the date recorded in columns 19 to 24.
DATE COMPLETED 6 19 24 Columns 19 to 24 deal with the date on which the testwas carried out.
Year 2 19 20 Columns 19 and 20 refer to the year in which the testwas carried out; fill with the last two numbersof the year, see 2.1.
Month 2 21 22 Columns 21 and 22 refer to the month in which the testwas carried out; fill in with the months codedfrom 1 to 12, see 2.1.
Day 2 23 24 Columns 23 and 24 refer to the day on which the test wascarried out.
STARING HEAD 7 25 31 Columns 25 to 31 refer to the head measurement before
Example
Poor
L21
2nd test
LI
00
the test started.
=I 11•1 =MEM MN = M I= IM WI •
- - - -Topic
Build up
Sign
Measurement
DISCHARGE AND PRESSURE OR DEPTH RECORDS
Discharge Rate
- - -Column
Total Start End
1 25 25
1 26 26
5 27 31
9 32 40
4 32 35
- - - - - - - - - - - - -Well characteristic curve transfer sheet
Explanation
Column 25 refers to the build-up of the pressure or water-level (recovery), to be filled according to the occurrence of a build up:
unknown 0 build up occurs 1 no build up occurs 2
Column 26 refers to the sign for the head or water level below (-) or above (+) the measurement datum level. A standing water level is to be indicated as a depth with sign -, a pressure with sign +.
Columns 27 to 31 refer to the head measurement at the time the test started
Columns 27 to 30 contain the integer part of the pressure, depth, or elevation, and
Column 31 contains the decimal part.
Note: The unit in which the head measurement is expressed is shown in column 77
Five discharge and pressure or depth records are allocated to each line on a well characteristic curve transfer sheet (Which corresponds to one data card).
Columns 32 to 35 refer to the discharge rate during a test or specific test interval, characterized by the test number in column 18. If the actual amount of water is measured the discharge rate is expressed in 1000 gpd shown in this wa:y in columns 32 to 35. If the measurement is in gallons per hour, multiply by 24 before filling the columns. If the discharge rate is measured by the time required to fill a water container of known capacity, insert the time in minutes or seconds in columns 32 to 35. The unit of discharge rate measurement is shown in column 77. Insert last number in column 35, i.e. right justification.
Example
pressure or water level build ur
11
+ 23.6 ft
1+ 1213161
....J \.0 .
Well characteristic curve transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example
Pressure or^5^36^40^columns 36 to 40 refer to the pressure, head ordepth^ depth during a test or specific test interval,
characterized by the test number in column 18.Column 36 refers to the sign for the head or water
level below (-) or above (+) the measurementdatum level. A standing water level is to beindicated as a depth with sign -, a pressurewith sign +.
Columns 37 to 39 contain the integer part of thepressure, depth or elevation, and
Column 40 contains the decimal part.
Note: The unit in which the pressure or depth isexpressed is shown in column 77.
Second, third, fourth and fifth sets of record can cobe filled in columns 41 to 49, 50 to 58,
59 to 67 and 68 to 76.
UNITS 1^77^77^Column 77 refers to the units in which the dischargerate, pressure, head and depth are expressed,coded as:
gpd - pressure/depth in ft^1gpd - pressure in psi^2gpd - elevation, either with
sign + or -, in ft^3(insert the sign in column 36)
gpd -^pressure in inchesmercury^ 4
min - pressure/depth in ft^5min pressure in psi^6min - elevation, either with
sign + or -, in ft^7(insert sign in column 36)
min pressure in inches mercury^8sec pressure/depth in ft^9sec pressure in psi^0sec - elevation, either with sign^A
+ or -, in ft(insert sign in column 36)
No I=^ MI NM MI^MIIMIM
OM IMO OM OM =I =I I= • MI NM MI II•11 I= •^MI 1•11^•
Well characteristic curve transfer sheetColumn
Topic^Total Start End^ Explanation^ Example
COMPLETED BY
sec - pressure in inches mercury
1^78^78^Column 78 refers to the authority whichcarried out the test, coded as:
Unknown^ 0Bureau of Mineral Resources and its
contractors^ 1State water authorities:
Queensland^ 2New South Wales^ 3South Australia^ 4Northern Territory^5
State geological surveys^6Water consultants and industry^7^wcic - NSWUniversities and research^ 1.2.1
organisations^ 8Local authorities, drillers, owners 9
79^79^Column 79 refers to the reliability of thedischarge rate and pressure or depthmeasurements, coded as:
RELIABILITY03
unknown 0good 1medium 2poor 3
medium
FOLIO NUMBER 1^80^80^Column 80 refers to the folio number of the well^2nd cardcharacteristic curve card. This folio^12.1number refers to one well, i.e. the setof cards (and lines on a transfer sheet)used for one well.
.. r~
eG8
• OM MI •^IMMUMM UM MINI • ••I^• MI MO MI =I •
2.12^ Total dissolved solids card
The total dissolved solids card deals with measurements of the total amount of dissolved
solids in the water of the well. This information will be used for corrections of the head or water
T^ level measurements.
Information recorded includes the year of measurement, the unit in which the total
dissolved solids measurement is expressed, and the actual measurement.
co\
1^iii
1^1^1
1^I^1^I
Ill^I
I^1^1
III' 1^1^I I Ill^I
1 1 1 1^1 . 1^1
GO571541551501m 62163165 65 60471641611170 71172173 74 7517‘1771721179
It!
1^1^1
1
ill
III
1^1^I
1 1^I
I^1^1
IDENTIFICATION
4 111$1715
11250000^Well0 0Map^I Number
co -1 Number a to
ILl
1 0 i0 •41111141 51
Ill
1^1^l
Ill
1^1^1
Il l
1^1^1
Ill
I l l
II^1^1
II^II
II^it
1^ii
lilt
I I I 1
!Ill
1^1^I^1^II
4k
NM =I • IN NE Ma NI^ • NM^111111 •^11•1 • •
16
1Total Dissolved
SolidsMeasurement
2
Total DissolvedSolids
Measurement
3
Total DissolvedSolids
Measurement
4
Total DissolvedSolids
Measurement
40tO55154155 5614140141 142 141 44145 14634351161171 111^4120 lel 12314 ILO 26127124IT 1^1
50451411150151152
3030131 1521211134
4 1 K
4K
4 t K
4 1 K
1 1^1
Il l
4 1 K 1^1^1
4 1 K 1
4 1 K 1
4 i K 1
4,K Ill
4,K II^1
4 1 K ii^1
1 1^1 1
i 1 11
1111
1 1 1 1
1 1^1^1
'ill
II^1
Il l
1 1 . 1^1^1
I^1^1
1
I^1^1^1^i i^1^1^1^1^II^III, I^I^1^I^1^1^1^I^1^1^II^I^1^I^I^It
1111
1^1
I^1^1
1 . 1^1^I
1^1^1^I
1
1^1^1^1^1^1
5
Total DissolvedSolids
Measurement
6
Total DissolvedSolids
Measurement
7Total Dissolved
SolidsMeasurement-;6
MI I= • • • MI • • MI • •^• MN Ell^•I•1
Total dissolved solids transfer sheet
Topic TotalColumnStart End Explanation Example
CODE 2 1 2 Columns 1 and 2 are pre-printed and refer to theCode of the card, see Introduction, 1.3.2.
Total dissolved solidscard
I 121LIC
IDENTIFICATION 13 3 15 Columns 3 to 15 deal with the identification of thewell; this information is to be repeated fromthe master card; for fillipg of these columns,refer to the master transfer sheet explanation.Note column 9 1 see Introduction, 1.3.3.
NASH AQUIFERTAPPED
1 16 16 Column 16 deals with the main aquifer tapped by thewell (or representative well in the centre of agroup of wells), as described by the aquiferdescription card;
Unknown^ 0
Watertable^ 1
Hooray Sandstone and AdoriSandstone aquifer, pluscorrelates^ 2
Hutton Sandstone, Evergreen FMand Precipice Sandstone aquifer^3
Triassic, Permian andstratigraphically deeper aquifers 4
If several main aquifers are tapped 9
Hutton Sandstone
Hooray Sandstone 4.
Hutton Sandstone
Topic TotalCol=Start End
Total dissolved solids transfer sheet
Explanation
TOTAL DISSOLVEDSCUD RECORDS
9 17 25 Seven total dissolved solids records are allocatedto each line of the total dissolved solidstransfer sheet (which corresponds to onedata card)
Year 3 17 19 Columns 17 to 19 refer to the year of measurement, i.e.the year in which the water of the well wassampled and analyzed for the amount of totaldissolved solids.^Fill columns 17 to 19with the last three numbers of the year,80e 2.1.
Unit 1 20 20 Column 20 refers to the unit in which the total dissolvedsolids measurement is expressed, coded:
Example
1955
I 91 51 51
parts per million (ppm)
^
1
grains per gallon^ 2
ounces per gallon^
3
TDSMeasurement^5^21^25^Columns 21 to ?5 refer to the total dissolved solids
measurement of the water, i.e. the value of theanalysis result in figures.Fill the last number of this figure in column25, see 2.1, right justification.
A total of seven sets of records can be filled incolumns 17 to 25, 26 to 34, 35 to 43, 44 to 52,53 to 61, 62 to 70 and 71 to 79.
, 5, 000 PPm1^5 1 01 0 1 0,1
Ell IIIII NM MI MO MEM= MN MI MTh • NM • =I
• • • MI • I•111 I•11 • MN OM MO 11•1 • • MI • MI • • •
Total dissolved solids transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example
FOLIO NUMBER 80^80^Column 80 refers to the folio number of the totaldissolved solids card. This folio numberrefers to one well, i.e. the set of cards(and lines on the transfer sheet) used forone well.
CO
·88
i i I
- - - - - - - - - - - - - - - - -
2.13 Water chemistry - 1 card.
The water chemistry -1 card deals with the basic physical and chemical characteristics of a
water sample.
Information recorded on this card includes the authority which took the water sample, the date
of sampling and analysis, the laboratory which performed the analysis, field determination data and basic
laboratory determinations, and availability of further information on the sample.
Field determination data include the actual temperature of the water at the time of sampling,
pH and Eh and resistivity or conductivity values, and the temperature during resistivity or conductivity
measurements.
Laboratory determinations include the resistivity or conductivity value determined in the
laboratory analysis, pH, total hardness, total alkalinity, total dissolved soli_ds, and the amount of
free carbon dioxide.
Further information about the sample may include data about hydrocarbons, trace elements,
pesticides, insecticides, radioactive material, and other components.
- -
()) \D .
-
!MON
72 7
1
1
1
1
1
1
B MR —G AB Groundwater project WATER CHEMISTRY - I SHEET G A B —ADP System transfer sheet -
0029 e
75'E
el?^cc
LL.
o
"1-2-^212a
o
ePH Eh
ohm
43.0
Resistivity
)_..imhos/cm
/.ConduchvttyConduct
m
—
ohm
0
Resistivity
p mhos/cm
/i vity
o
pH -8-51
TotalHardness
Co
-0o.0t,2
TotalAlkalinity
PPm
TotalCissolvec
plipdms
t:co—
FreeCO,p
• c
1I t 4 5 16 1 7 1
I 0
10 11112113 114 l's 16
2
tO 21122 2314 4 25125 271te
30
119130 31132 33 154 $5136137 55
40
3914014 1 42 43144 4 5146147 4
50
49150 51 52 5315445 51057 55
60
59180 61 St1
83164 56 68
70
69170 71
4 1 L II^I II^II 1 1 1 I I II 1 II 1
4 1 1.. II^I II^I 1 1 II 1 1 I^I 1
4 1 L 1^I 11 1 1 1 1 1 1 1 1 II II 1 II 1
4 1 1_ III II^1 1 1 1 1 II II 1
4 1 1_ I^1^1 II^II 1 1 1 11 1
4 1 L 1^I 1111 1 1 1 II II II
1^1^I 111^1 1 1 1 1 II It II
4 1 L 1^1^1 II^II 1 1 1 1 1 1 II II II 1 1
4 1 L 1^1^1 1111 1 1 1 1 1 1 1 II I I 1 1
1L jIll t^1^1^1 I 1 I I I 1 I 1 II It I Ii 1 1 1
1^1^1 . lilt i I I 1 1 I I II II I II 1
1^1^1 1 11^1, I I I I I I I I ll Ii 1 II 1 1 1
1^1^I till 1 1 1 1 II II 1 II 1 1 1 1
1^1^1 'Il l 1 1 1 1 1 1 it II 1 II 1 1 1 1
1^1^1 Ill! 1 1 II II 1 II 1. 1
Ill 1^1^1^1 1 I I 1 I 1 I I II II I II 1 1 1
1^1^1 ill' 1 II II II 1 1
4 1 L 1^1^1 1^1^1^1 1 1 1 1 1 1 II II 11 1 1 1 1
4 1 L 1^1 Ill^1 1 1 1 1 1 1 II ii 1 11 1 1 1 1 1 1
4 1 L 1^1^1 1 11^1 1 1 II II 1 II 1 1 1
4 1 1_ II 1111 1 1 1 1 II II I I 1 1 1 1
I^1^1 1^1^II I I I 1 1 I I ii Ii 1 II 1 1 1 1
all MI NM IMO 11111 IIIIII^En MI IMO OM • NM OM MN MI NM NM
- - - - - - - - - - - - - - - - - - - -Water chemistry - 1 transfer sheet
Column Topic Total Start End Explanation Example
CODE 2 1 2 Columns 1 and 2 are pre-printed and refer to the code r,'ater chemistry - 1 card of the card, see Introduction, 1.3.2.
141 L I IDENTIFICATION 13 3 15 Columns 3 to 15 deal with the identification of the vJell;
this information is to be repeated from the master card; for filling of these columns, refer to the master transfer sheet explanation. Note column 9, see Introduction, 1.3.3.
MAIN AQUIFER 1 16 16 Column 16 deals with the main aquifer tapped by the well TAPPED (or representative well in the centre of a group
of wells), as described by the aquifer description card:
Unknown 0
Watertable 1
.Hooray Sandstone and \.0 .... Adori Sandstone aquifer, plus correlates 2 Hooray Sst
Hutton Sandstone, ~. Evergreen Fm and Precipice Sandstone aquifer 3
Triassic, Permian and stratigraphically deeper aquifers 4
If several. main aquifers are tapped 9
RELIABILITY 1 17 17 Column 17 refers to the reliability of information about the aquifers tapped, coded:
unknown 0 good good 1 l2J medium 2 poor 3
ColumnTotal Start End
Water chemistry - 1 transfer sheet
Explanation
Columns 18 and 19 refer to the authority which tookthe sample of water from the well.
Topic
SAMPLINGAUTHORITY
1^
18^1 9
Example
UnknownBureau of Mineral ResourcesBMR and its contractorsState Water Authorities
0001
02-09BMR
lol l11^ Cad. 1111^Ii^ NSW 12It^It^ SA 13II^It^ NT 14
State Geological SurveysII^It^II Qld. 21
11^NSW 22It^It^II^SA 23II^II^It NT 24
Water consultants 30-39Universities & research
organizations 4o-49 (NJ•Industriall petroleum,andmining companies 50-59
Local authorities 60-69Drillers 70-79 OwnerOwnersOthers
80-8990-99 I 8 I o
RELIABILITY 1 20^20 Column 20 refers to the reliabilitymethod used by the samplingcoded as
of the samplingauthority,
unknowngoodmediumpoor
0123
medium1 2 1
NM ill^ IIIIII • MIIIIMM^IMMNIII 111.
July
3rd1^13 1
8 Aug. 19611 6 1^1^181 8
=I^ MI •^ MI II= M
Water chemistry - 1 transfer sheet
Explanation^ Example
Columns 21 to 26 refer to the date on which the^3 July 1961,sample of water was taken.^ I 6 1 1 1 1 7 1 1
Columns 21 and 22 refer to the year in which the water sample^1961 -was taken; fill the last two numbers of the 6year in columns 21 and 22 (see 2.1.)
^1
Columns 23 and 24 refer to the month in which the watersample was taken; code the months from 1 to 12,see 2.1.
Columns 25 and 26 refer to the day on which the water• sample was taken.
Columns 27 to 32 refer to the date on Which the watersample, was analyzed in the laboratory; thesecolumns are to be filled in the same method
• described for date sampled.
Columns 33 to 34 refer to the laboratory which performedthe analysis of the water sample, coded as:
Unknown^ 00Bureau of Mineral Resources^01BMR and its contractors^02-09State chemical laboratories
tt^ti
It^II
It^ II
Universities and Researchorganizations^20-29
AMDEL^ 3031-3940-4950-5960-6970-798o-,3990-99
TopicColumn
Total^Start Bnd
DATE 6 21 26SAMPLED
Year 2 21 22
Month 2 23 24
Day 2 25 26
DATE 6 27 32ANALYZED
ANALYZING 2 33 34LABORATORY
Qld^11NSW^12SA^13NT^14
Water chemistry - 1 transfer sheet
ColumnTopic^Total Start End Explanation^ Example
FIELDDETERMINATION^17^35^51^Columns 35 to 51 refer to the field determinations of
some characteristics of the watersampled.
Temperatureof resistivity^4^35•38 Columns 35 to 38 refer to a temperature measurement of
a water -sample,^taken at thetime the resistivity or conductivitymeasurement was made in the field.Fill columns 35 to 37 with integerpart of the temperature value measured,(no decimal is required).Fill columns 38 with the unit inwhich the temperature in columns 35 to37 is expressed, i.e. Fahrenheit orCelsius, coded:
85.6C
18 151 CI123.4 F
1 1 2 1 3 1 Fl
FahrenheitCelsius
Temperatureof sample^4^39^42^Columns 39 to 42 refer to the temperature measurement
of the watitr from the well, taken atthe time of sampling at the samplepoint.Fill columns 39 to 41 with the integerpart (nojdecimal required), and column42 with either F or C; depending whetherthe temperature is expressed in Fahrenheitor Celsius.
Topic
pH
Resistivity or
Conductivity
Column Total Start End
2 44
3 45 47
4 48 51
Water Chemistry - 1 transfer sheet
Explanation
Columns 43 and 44 r~fer to the field pH measurement of the water from the well, i.e. the value used to designate the logarithm (base
Example
10) of the reciprocal of th~ hydrogen- 7.8 ion concentration. Column 43 to be used for the integer part of the pH value, column 44 for the decimal I 7 I 8 I part.
Columns 45 to 47 refer to the f'ield Eh measurement of the water from the well; i.e. the value used to designate the energy needed to remove electrons from ions in a given chemical environment, the redox potential or oxidation-reduction potential. Column 45 to be used for the positive (+) or negative (-) sign of the Eh value. Column 46 to be used for the integer part of ' the Eh value, column 47 for the decimal part.
Columns 48 to 51 refer to the resistivity (in ohms-m) or Conductivity micromhos per centimeter measurement, performed on the water from the well in the field; i.e. the electrical resistivity or resistance and its reciprocal the electrical conducttvity or ability to conduct an electrical current
+ 0.2
+ 101 2/
Conductivity 1600 micromhas/cm
16 X 102
•
C ! 1 161 2
~ \Jl .
Water Chemistry - 1 transfer sheet
ColumnTopic^Total Start End^ Explanation^ Example
LABORATORYDETERMINATIONS 20 52 71
Resistivityor
Conductivity 4 52 55
pH 2 56 57
Totalhardness 4 58 61
Column 48 to be filled with:R-in case of a resistivity value, andC-in case of a conductivity value.
Columns 49 and 51 contain the actual measured value,i.e. fill column 49 and 50 with thefirst two numbers of this figure,and in column 51 the nearest powervalue of 10.
Columns 52 to 71 refer to the Laboratory determinationsof some physical and chemical characteris-tics of the water sampled.
Columns 52 to 55 refer to the resistivity (in,ohms-cm)or conductivity (micromhos/cm-1 ) measurement,performed on the water sample in thelaboratory.Fill columns 52 to 55 in the same wayas described for the field measurementin columns 48 to 51.
Columns 56 to 57 refer to the pH (laboratory) measurement^8.2of water sampled.Fill column 56 with the integer part ofthe pH value, column 57 with the decimalpart.^ I 8 1 2 1
Columns 58 to 61 refer to the total hardness of the watersample; i.e. the measure of the calciumand magnesium content of the water, eitherexpressed as the equivalent of calciumcarbonate in ppm or in degrees.
Conductivity150 micromhos/cm
15 x 10.
1C1115111
IIM MONIN MI MO M^MM11•11
Topic
Total alkalinity
Column Total Start End
4 62 65
Water chemistry - 1 transfer sheet
Column 58:
Explanation
The unit of total hardness filled in
CaCO in ppm Clar~e degrees German degrees
1oD, equivjO mg CaO per litre
English derrees
1 2 3
4 10 E = 0.80 °D
French degrees 10 F = 0.56 °D 5
Columns 59 and 60 to be filled with the first two numbers of the figure.
Column 61 with the power value of 10 (if necessary).
Columns 62 to 65 refer to the total alkalinity of the water sample, i.e. the measure of an amount of a standard concentration of sulfuric acid which is needed to titrate a water sample to an endpoint of pH 4.5. Alkalinity is prvduced almost exclusively by bicarbonate and carbonate ions. Fill columns 62 to 65 with the value for the total alkali.'1;.ty as calcium carbonate in ppm; column b2 with the method of analysis, coded as:
unknown titration
o 1 2
Fill column 63 and 64 with the first two numbers of the ppm value, and comumn 65 with the power of 10.
Example
25 ppm CaC03
/1/215/01 300 ppm Cac0
3
11 I 3 1 0 11 I
3000 ppm 30.10-2
1 131 01 2 I
-
Topic
Total dissolved solids
Free CO
2
- - -
Column Total Start End
3 66 68
3 69 71
- - -
Water chemistry - 1 transfer Sheet
Explanation
Columns 66 to 68 refer·to the amount of total dissolved solids (TDS) in the water sample, as determined in the laboratory analysis. The total dissolved solids in a water sample includes all solid material in solution, whether ionized or not, and does not include suspended sediments, colloids or dissolved gases.
Columns 69 to 71
- - -
Column 66 refers to the method by which the TDS is determined, coded as:
unknown 0
evaporation at 110 C evaporation at 1800 c numerical sum of all dissolved solids,which are determined by chemical
o 1 2
tests 3 electrical conductivity 4
Column 67 refers to the first number of ppm value, and Column 68 to the power of 10.
refer to the amount of free carbon dioxide in the water sample, determined in the laboratory, expressed in ppm. Fill columns 69 and 70 with the first two numbers of this value, and column 71 with the power of 10.
- - - - - -
Example
evaporation at 1800 c
3600 ppm
3 x 10.3
12 13131
60 ppm 60 x 10 0
I 6 10 101 01'
. 6 x 1cl 16 I 1 I
- - -
\..D co .
-
V pm um um um N. im imi NI .. imi NE 1.0 Imi I= I= I= ii. .. 1.. EN
Water chemistry - 1 transfer sheet
TopicColumn
Total Start End Explanation Example
FURTHERINFORMATIONAVAILABLE 62 72 77 Columns 72 to 77 refer to further information avail:table
on the results of the laboratoryanalysis of the water sample, coded:
unknown^ 0available^ 1not available^2
Hydrocarbons 1 72 72 Column 72 refers to hydrocarbons.
Trace elements 1 73 73 Column 73 refers to trace elements.
Pesticides 1 74 74 Column 74 refers to pesticides.
Insecticides 1 75 75 C9lumn 75 refers to insecticides.
Radioacitivity 1 76 76 Column 76 refers to radioactive materials
Other 1 77 77 Column 77 refers to other information availableon the results of the water analysis,which is not expressed in one of theprevious columns.
MISCELLANEOUS 1 78 78 Column 78 is left open for optional further informationeventually required for the waterchemistry - 1 card.
FOLIO NUMBER 2 79 80 Columns 79 and 80 refer to the folio number of the water 4th cardchemistry - 1 card.This folio number refers to one well,i.e. the set of cards(and lines on atransfer sheet) used for one well.^12±..1
-0
MI MN MENIMI MI=M111^ •
2.14^Water chemistry - 2 card
The water chemistry - 2 card deals with the information about the actual chemical determinations
of water sampled from a well.
Information recorded on this card includes the laboratory determinations of all anions and cations
present in the water as well as the amount of hydrocarbons. The dates of sampling and analyzing the water
are also recorded.
Recording on the card is in parts per million (ppm). An intermediate, temporary, transfer sheet
and card will be used for determinations in other units and these will be converted by computer.
WATER CHEMISTRY — 2 SHEET G A B —ADP System transfer sheetB MR —GAB Groundwater project
LABORATORY^DETERMINATION ccDATE
2ANALYZED
T IONFl CA
.—Co.
toto
!DENT! Hyidrocar.bank
DATE
SAMPLEDAnions Cations
Ca2+
PPm
Fe+
PPm
(73
Mn2+
PPm
0
LU Br —
PPm
a
CH 4
PPm
F
PPma-)LUcc
1:250000Map
Number
Well
Number
LU .c^0- cCU 0 0 0} M 0 U.
8075174 75176 77175'79RM
.cc0 0
>- 2 0
716$ 61170 71172
PPm
1040300
151111 20 so 1si az 53144165571511 5151152 55 54155 56 511442143 44 45146 47311140 41311157 555001712 13114 1521122 23 44125 26 27125 1211iii tall) 11411851.1710 16 17I it 4
1^1^111 14 1 M
41 M
4 1 M
4 1 M
1111^1^I Ii^Ii
11 1111111lit
1 1 111 1 111 11 11^1^I^11^I^1
1111^1^1
1 11 114 I M
4 1 M
4 1M
1 11it'
1 11 1111111^1^I
1^1^I1 1 111111 111 1 I
1 1 11141 M 11 111 11I 1 1 1I^1^I
1 111111 11
11 1111111 1111^1^I
14,M
4,M
4 1 M
1^1 1
1 1 1 111 1 11 11 1111111^1^I
11111 11^1^1
1 1_4 1 M 1 11 11 11111 I 1 I1^1^1
4,M 1 111111111111Iii
1 1 1 1 1114 1M
41M
41 M
11 11^1^1
11 1111 1I I^1^IIii
1 11 11 11 111 11lil t1^1^1
I 14,M 1 111^1^I^"^1^1^1^1
I= I= =I I= NM MN NM EN MIMI= NM MO NM I=^MN INN •
I= =I =I =I • • • • Ell I•11^• • I= • I= MI MI MN MI
Water Chemistry - 2 transfer sheet
Explanation^ Example
Columns 1 and 2 are pre-printed and refer to the^Water chemistry - 2 cardcode of the card, see Introduction, 1.3.2.^I 41 MI
Columns 3 to 15 deal with the identification of thewell; this information is to be repeated fromthe master card; for filling of these columns,refer to the master transfer sheet explanation.Note column 9, see Introduction, 1.3.30
Column 16 deals with the main aquifer tapped by thewell (or representative well in the centre ofa group of wells) as described by the aquiferdescription card:
Unknown^ 0
Watertable^ 1
Hooray Sandstone and AdoriSandstone aquifers, pluscorrelates 2
Hutton Sandstone, Evergreen FMand Precipice Sandstoneaquifer^ 3
Triassic, Permian andstratigraphically deeperaquifers^ 4
If several main aquifersare tapped:^9
ColumnTopic Total Start End
CODE 2 1 2
IDENTIFICATION 13 3 15
MAIN AQUIFER TAPPED 1 16 16
Hooray Sandstone +Adori Sandstone^•
lU
Clematis Sandstone
121.1
605 ppm60 x lof
I 6 I ol^I
56 ppm 056 x 10
5 6101
0
Topic TotalColumnStart End
Water Chemistry - 2 transfer sheet
Explanation
RELIABILITY 1 17 17 Column 17 refers to the reliability of informationabout the aquifers tapped, coded:
unknown^0good^1medium^2poor^3
LABORATORYDETERMINATIONS
49 18 66 Columns 18 to 66 refer to the laboratorydeterminations of anions and cationsin the water sample, and hydro-carbons,if present.
Anions 24 18 41 Columns 18 to 41 refer to the amount of anionsdetermined to be present by the laboratoryanalysis of the water sample, expressed inppm (parts per million).Fill the first two columns of each anionrecord with the first two numbers of theppm - figure determined, and fill the thirdcolumn of each anion record with the powerof 10 (except for fluoride and bromide, wherethe third column is to be filled with thedecimal part of the ppm - value).
poor
L?..J
Example
MIMI= =I • I= MI^ MIMI= NMI
I • I= • 11•11 OM • OM I= • =I • I= I= MN • INII Ell I•111 • •
TotalColumnStart End
Water Chemistry - 2 transfer sheet
Explanation Example
The following anion determinations can be recorded:
3 18 20 Columns 18 to 20 refer to chloride, Cl - expressed in
3 21 23-^.4^In ppm.Columns 21 to 23 refer to sulphate, SO
2
-3 24 26 Columns 24 to 26 refer to bicarbOnate, HCO 3^in
Mom.
3 27 29 Columns 27 to 29 refer to carbonate 1 CO32- in ppm
3 30 32 Columns 30 to 32 refer to nitrate I NO3 I in ppm.
3 33 35 Columns 33 to 35 refer to phosphate, PO 43- , in ppm.
3 36 38 Columns 36 to 38 refer to fluoride, F, in ppm.Note:^Fill the decimal in part in column 38.
. 0rl•
3 39 41 Columns 39 to 41 refer to bromide, Br-, in ppm.Note:^Fill the decimal part in column 41.
21 42 62 Columns 42 to 62 refer to the amount of cationsdetermined to be present by the laboratoryanalysis of the water sample, expressed in ppm(parts per million).Fill the first two columns of each cation recordwith the first two numbers of the ppm figure andfill the third column of the cation record withthe power of 10 (except for iron, manganese andsiliconwhere the third column is to be filledwith the decimal part of the ppm value insteadof the power of 10).
Topic
Chloride
Sulphate
Bicarbonate
Carbonate
Nitrate
Phosphate
Fluoride
Bromide
Cations
TopicColumn
Total^Start End
Water Chemistry - 2 transfer sheet
Explanation^ Example
The following cation determinations can be recorded:
Calcium 3 42 44 Columns 42 to 44 refer to calcium, Ca2+^expressed
in ppm.
• Magnesium 3 45 47 Columns 45 to 47 refer to magnesium, Mg2+ expressed
in ppm.
Sodium 3 48 50 Columns 48 to 50 refer to sodium, Na+
expressedin ppm.
Potassium 3 51 53 Columns 51 to 53 refer to potassium, e expressedin ppm.
Iron 3 54 56 Columns 54 to 56 refer to iron, Fe2+ expressed in
PPm•Note: Fill the decimal part in column 56.
Manganese 3 57 59 Colpmns 57 to 59 refer to manganese, Mn2+ expressed
in ppm.Note the decimal part in column 59.
silioiom 3 60 62 Columns 60 to 62 refer to silica,^Siin ppm.Note the decimal part in column 62.
Hydrocarbons 4 63 66 Columns 63 to 66 refer to the presence of hydrocarbons.The amount of methane, CH4, determined by thelaboratory analysis of the water sample,expressed in ppm, is recorded in columns63 to 65.
Column 66 is used to indicate whether other hydrocarbonsare present, by use of the code:
unknown^ 0no other hydrocarbonsother hydrocarbons^2
NM MN • • I= NM =I MI^ MI • • Ell
Example
1972
17 121
November
kill
221 2 1 2 1
23 November, 1972I 7 1 2 1 1 1 1 1 2 1 31
ION^•^MB INN MN • I= MI MI MN OM • NM MN NM • NM
ColumnTopic^Total^Start^End^ Explanation
Water Chemistry - 2 transfer sheet
DATE SAMPLED 6^67^72^Columns 67 to 72 refer to the date on which thewater sample was taken.
Year 2^67^68^Columns 67 and 68 refer to the year in which thewater sample was taken; fill in columns67 and 68 the last two numbers of theyea;^see 2.1.
Month 2^69^70^Columns 69 to 70 refer to the month in which thewater sample was taken.^Code the monthsfrom 1 to 12, see 2.1.
Day 2^71^72^Columns 71 and 72 refer to the day on Which the samplewas taken.
DATE ANALYZED 2^73^78^Columns 73 to 78 refer to the date on which the watersample was analyzed in the laboratory; fillthese columns in the same way as for datesampled.
FOLIO NUMBER 2^79^80^Columns 79 and 80 refer to the folio number of thewater chemistry - 2 card.^ 2nd cardThis folio number refers to one well, i.e.^LLIthe set of cards (and lines on a transfersheet) used for one well.
(D CD .. ^i
CI
..E
1^0
td c
nV
i0^
+3^
c/aF
1 U
i 0
"cl-
0CD 0 0
0^
..--
-. (
DCD
0 P
i.1^
c+
PJ t
0 I'd
c+
..._
.• C
D0^
•^Cl]
0^
P.
11 CI P. 0
•0 EI 1-c
l^td
0 0
PCD^
ch C
Oct
- CD^
P••
11 0
PLI
'Ci^
ir,
0 Ft 0
0 0
ch
.•
MI 0
I'S^
gi t.11•"
....
P. g^
c-'-
0^
P.
fa, 0
,-c:i^
0Fi^
CD^
P.,
4 6
ri, c+. 0 P
......
• o
•c+
izi
P
11c+
0P• 0
0 0
0 C
D•
rn P.
Ca 0
)-0 6rx
.0
0Cr
q c+ CD^
ga,
CD^
0,
c+ C
D 1-1
P •
i-1 0
CD
,J4 •
MN
MN
• M
I^IM
M •
MI
NE
MN
MI
MN
MN
OM
MO
MN
MN
Ma N
M M
N
MN MI • NM MN • MI NM MI • MI I= MI I= • •^MI •
4. Appendix - Lithostratigraphic Symbols For Rock Units
4.1. Stratiaranhic List
Quaternary, undivided Coreena Member KLC
Tertiary, undivided TB Ranmoor Member KLQ
Cainozoic, undivided Cg Jones Valley Member KL.T
Doncaster Member KLD
Mesozoic, undivided Griman Creek Formation KLGG
Surat Siltstone KLS
Rumbalara Shale KLR
Cretaceous, undivided K Oodnadatta Formation KLOD
Upper Cretaceous, undivided KU Mt Alexander Sandstone Member KLAS
Lower Cretaceous, undivided KL Wooldridge Limestone Member KLWL
Pre-Cretaceous, undivided XX Coorikiana Member KLCO
Rolling Downs Group KR Bulldog Shale KIB
Manuka Sub-group KM Bungil Formation KLY
Wilgunya Sub-group KLW Mimi Member KLI
Winton Formation KW Nullawurt Sandstone Member KLN
Mackunda Formation KLK Kingull Member KLK
Allaru Mudstone KLA Claravale Sandstone Member XLX
Toolebuc Limestone KLO Mooga Sandstone (Surat
Wallumbilla Formation KLU Basin only) IMMO
Gilbert River Formation KLG
4.1. Stratigraphic Mst (cont.)
Cadna-Owie Formation
lit Annoa Sandstone Nember
Gum Vale Beds
Crooble Beds
KC¢
KLHA
KLV
KLCR
Jurassic to Cretaceous, undivided JK
Hooray Sandstone JKH
Upper Hooray Sandstone JKHU
Lower Hooray Sandstone JKHL
Pre-Jurassic XJ
Kumbarilla Beds JKK
Ronlow Beds
Longsight Sandstone
De Souza Sandstone
Southlands Formation
Jurassic, undivided
Upper Jurassic, undivided
Middle Jurassic, undivided
Lower Jurassic, undivided
Westbourne Formation
Adori Sandstone
JKR
JKL
JKD
JKS
J.
JU
JTIl:
JL
JU'rl
JA
Birkhead Formation
Injune Creek Group
Hutton Sandstone
Evergreen Formation
JMB
JI
JLH
JIE
Boxvale Sandstone Hember JLB
Oolite Nember
Westgrove Ironstone 11ember
Precipice Sandstone
OralIo Formation
Gubberamunda Sandstone
Springbok Sandstone
Walloon Coal Measures
Eurombah Formation
Marburg Sandstone
Helidon Sandstone
Blantyre Beds
Loth Formation
Hampstead Sandstone
Algebuckina Sandstone
Pilliga Sandstone
Purlawaugh Beds
Warialda Sandstone
JLvl
JLP
JU,0 JUG
JS
JMW
JME
JUi
J1L
JUB
JUL
JH
JUA
JP
JPU
JPvl
-" o
Garrawilla Volcanics
Gragin Conglomerate hemher·
Triassic, undivided
Pre-Triassic
Hoolayember Formation
Clematis Sandstone
Dunda Beds
Rewan Formation
Brumby Sandstone Nember
Warang Sandstone
Showgrounds Sandstone
vlandoan Formation
Narrabeen Group
Nappamerrie Formation
Palaeozoic, undivided
Permian, undivided
Upper Permian
Lower to Upper Permian
Lower Permian
Pre-Permian
Blacbrater Group
"Bandanna" Formation
Black Allay Shale
4.1. Stratigraphic List (cont.)
JG
JGC
T
XT
TN
THE
TLD
TL...lt
TB
TLI'T
TS
T,.v
TN
TP
pg
P
PU
PLU
PL
XP
PUH
PUA
PUC
Peawaddy F'ormation
Colinlea Sandstone
Ingelara Formation
Cattle Creek F'ormation
Aldebaran Sandstone
Back Creek Group
Reids Dome Beds
Betts Creek Beds
Boonderoo Beds
Crown Point Formation
Gidgealpa Group
Toolachee Pormation
Fly Lake Member
Roseneath Shale
Daralingie Member
Epsilon Formation
Hurteree Shale
Tirrawarra Sandstone
IvIerrimelia Formation
Barra Beds
V.Jerrie Formation
Carboniferous to Permian, undivided
Joe Joe ]!'ormation
PUP
pL¢
PLI
PLK
PLL
PB
PLJ
PUB
PLB
PC
PG
PUT
PUF
PLR
PLD
PLE
PLM
PLT
PH
PUBB
PLvl
CP
CPJ
"'" .
Carboniferous, undivided C
Drwa~ond Group CD
Devonian, undivided D
Adavale Group DA
Silurian, undivided S
Ordovician, undivided ¢
Cam~rian to Ordovician, undivided E¢
Cambrian, undivided
Precambrian to Palaeozoic, undivided
Precambrian
"Basement"
E
XEP~
XE
BAS
I\) .
Adavale Group
Adori Sandstone
Aldebaran Sandstone
Algebuckina Sandstone
Allaru Hudstone
Back Creek Group
"Bandanna" Formation
Barra Beds
Basement
Betts Creek Beds
Birkhead Formation
Black Alley Shale
BlacbTater Group
Blantyre Beds
Boonderoo Beds
BO::"'''Yale Sandstone r·!ember
Brumby Sandstone Hember
Eulldog Shale
Bungil For~tion
DA
JA
PLL
JUA
KLA
PB
PDA
PUBE
BAS
PUB
JIIB
PUC
pmI
JUB
PLB
JLE
TB
KLB
KLY
4.2 Alpha.";)ctic List
Cadna-OvTie Forr:.ation KC¢
Cainozoic, ~mdivided Cg
Cambrian, undivided E
Ca~brian to Ordovician,undiv. E¢
Carboniferous, undivided C
Carboniferous to Permian, undivided CP
Cattle Creek Formation PLK
Claravale Sandstone Hember KLX
Clematis Sandstone TRE
Colinlea Sandstone PL¢
Coorikiana lIember KLC¢
Coreena Member
Cretaceous, undivided
Crooble Beds
CrOl-Tn Point Formation
Daralingie i.ember
De Souza Sandstone
Devonian, undivided
Doncaster nember
:;)r;;';:illloncl Gr01.!p
Th.)l:da .Jede
KLC
K
KLCR
PC
.PLD
JKD
D
RLD
CD
TLD
vI .
--------------------
Epsilon Formation
Eurombah Formation
Evergreen Formation
Fly Lake J.1ember
Garrallilla Volcanics
Gidgealpa Group
Gilbert River Formation
Gragin Conglomerate r.lember
Griman Creek Formation
Gubberamunda Sandstone
Gum Vale Beds
Hampstead Sandstone
Helidon Sandstone
Hooray Sandstone
Hutton Sandstone
Ingelara Forwation
InjuneCreek Group
PLE
JIlE
JLE
PUF
JG
PG
KLG
JGC
KLGG
JUG
K1V
JH
JL1
Jim
JLH
1'11
J1
4.2 Alnhabetic List contd.
Joe Joe ]!'oTIlation
Jones Valley Hember
Jurassic to Cretaceous, undivided
Jurassic, undivided
Kingull Hember
KUL1barilla Beds
Longsight Sandstone
Loth FoI'I!l8.tion
Lower Cretaceous, undivided
LOv1er Hooray Sandstone
CPJ
KLJ
JK
J
I~LI(
JKL
JUL
KL
JKHL
LOvier Jurassic, undivided JL
Lower Permian, undivided
Lower to Upper Permian, undivided
I:iackunda Formation
r~aauka Sub-GroulJ
narburg Sandstone
PL
PLU
1\LI-1
JLN
Herrimelia Formation PH
Hesozoic, undivided H
l:iiddle Jurassic, undivided J1I
;,iTh-ai I!;eT0.ber KlI
i·iooga Sanustone (Surat Basin only) KUl¢
..p-.
I-Ioolayember Formation TH
TIt. Alexander Sandstone I·Iember KL.AS
l·j:t. Anna Sandstone Hember
Eurteree Shale
Na)Ilamerrie Formation
Narrabeen Group
l'iullm'TUrt Sandstone HGmber
Oodnadatta Formation
Ooli te Hember
OralIo Forwation
Ordovician, undivided
Palaeozoic, undivided
Pealmddy Formation
Permian, undivided
Pilliga Sandstone
Precambrian, undivided
Precambrian to Paleozoic, undivided
rre-Cretaceous, undivided
Pre-Jurassic, l.U1di vid.ed
Pre-Permian, undivided
Pre-Triassic, undivided
Precipice Sandstone
Purla.raugh Beds
PUi
TP
'l'H
KLH
KL¢D
JL¢
JU¢ ¢
pg
PUP
P
JP
XE
XK
XJ
XP
XT
JLP
JPU
Quaternary, undivided
Ranmoor r:ember
Reids Dome Beds
Re.Tan Formation
Rolling D01ms Group
Ronlol'[ Beds
Roseneath Shale
llumbalara Shale
Shm'lgrounds Sandstone
Silurian, undivided
Southlands Formation
Springbok Sandstone
Surat Siltstone
Tertiary, undivided
Tirra1'Tarra Sandstone
Toolachee Formation
Toolebuc Limestone
Triassic, undivided
Q
YLQ'
PLJ
TLR
KR
J1G/.
PLR
KLR
TS
S
JKS
JS
KLS
TE
PLT
PUT
KL¢
T
\Jl .
4.2 Alphabetic List contd.
Upper Cretaceous, undivided^KU
Upper Hooray Sandstone^JKHU
Upper Jurassic, undivided^JU
Upper Permian, undivided^PU
Walloon Coal Measures^JMW
Wallumbilla Formation^KLU
Wandoan Formation^TW
Warang Sandstone^TLW
Warialda Sandstone^JPW
Werrie Formation^PLW
Westbourne Formation^JUW
Westgrove Ironstone Member^JLW
Wilgunya Sub-Group^KLW
Winton Formation^KW
Wooldridge Limestone Member^KLWL
um mu • am NE^me I= EN =I No ism EN No Nisi I= I= um ow
