NAT'L INST. OF STAND & TECH R.I.C.

A 11 ID 4 Q 2 3 3 fl

5

MBS

PUBLICATIONS

NBSIR 79-1757

Volume 10 HUD UTILITIES

DEMONSTRATION

SERIES

DATA REDUCTION PROCESSES

FOR THE JERSEY CITY

TOTAL ENERGY PROJECT

Center for Building Technology

National Engineering Laboratory

National Bureau of Standards

Washington, D.C. 20234

iMBSimius

MODULAR INTEGRATED UTILITY SYSTEMS

improving community utility services by supplying

electricity, heating, cooling, and water/ processing

liquid and solid wastes/ conserving energy and

natural resources/ minimizing environmental impact

Prepared for:

Department of Housing and Urban Development

Energy, Building Technology and Standards Division

Office of Policy Development and Research

Washington, D.C. 20410

JUL 10 ???§

£r\ fvCt, - C>- fC

NBSIR 79-1757

DOOQ

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D<V^V)

DATA REDUCTION PROCESSES FOR

THE JERSEY CITY TOTAL ENERGY

PROJECT

c

.

Daniel E. Rorrer

William G. Rippey

Yui-May L. Chang

Center for Building Technology

National Engineering Laboratory

National Bureau of Standards

Washington, D.C. 20234

May 1979

Prepared for: U.S. Department of Housing and Urban Development

Energy, Building Technology and Standards Division

Office of Policy Development and Research

Washington, D.C. 20410

U.S. DEPARTMENT OF COMMERCE, Juanita M. Kreps, Secretary

Jordan J. Baruch, Assistant Secretary for Science and Technology

NATIONAL BUREAU OF STANDARDS, Ernest Ambler, Director

TABLE OF CONTENTS

Page

List of Figures and Tables . vii

Abstract v

1. Introduction 1

1.1 Background 1

1.1.1 Site Description 1 1.1.2 Instrumentation System Description 3

1.1.3 Data Acquisition System Outputs 8

1.1. 3.1 Raw Data Tape ......*. 8

1.1. 3. 2 Modem Transmission 8

1.1.4 Data Processing 8

1.1.5 Mini-Computer Configuration 8

1.2 Purpose and Scope 9

2. Description of Data Flow Through the Overall Data Reduction Software System 9

3. Description of Data Reduction Software Functions 13

3.1 Raw Data Tape Editing (TEREVIEW) 13

3.2 Creation of the Monthly Disk (ANALYSIS) 14

3.2.1 Hourly Accumulation of Engineering Units .... 14

3.2.2 Calculation of Hourly Derived Variables 15

3.2.3 Calculation of Daily and Monthly Summaries .. 15

3.2.4 Monthly Disk Editing 15

3.3 Creation of Yearly Data Summary Disk 16

4. Description of Output and Display Software Capabilities . 16

4.1 Graphical Presentations 16

4.2 Numerical Presentations 17

4.2.1 Monthly Disks 17

4.2.2 Modem Data 17

5. Format Descriptions 18

5.1 Raw Data 18

iii
Page

5.1.1 Magnetic Tape Format 18

5.1.2 Modem Format 18

6. Data Conversion and Editing 19

6.1 Editing Considerations 19

6.2 Initialization and Command Decoding 19

6.3 Data Flow in Normal Operation 20

6. A Character Group Conversion 23

6.5 Engineering Unit Conversion 23

6.5.1 Non-existing Measurements 24

6.5.2 Pressure 24

6.5.3 Venturi 25

6.5.4 Integrated Pulse Type 29

6. 5. 4.1 Turbine Meters » 32

6. 5. 4. 2 Kilowatt 34

6. 5. 4. 3 Time 34

6.5.5 Special 35

6.5.6 Temperatures 35

6. 5. 6.1 T-Type 35

6. 5. 6. 2 ' J-Type 36

6. 5. 6. 3 Differential 36

6.5.7 Events 37

6.5.8 Voltage 37

6.5.9 Frequency 40

6.5.10 Power Factor 40

6.5.11 Weather Station 40

6.5.12 Deleted Measurements 41

6.6 Subroutine Classification 41

6.7 TEREVIEW Commands 42

6.8 Error Processing 42

6.9 Output Data Tape 42

6.10 Additional Documentation and Original Design

Philosophy 43

References ' 44

Appendices 46

I. Typical Magnetic Tape Scan - Character by Character . 47

II. Instrumentation Locations and Raw Data Codes 48

III. Derived Variable Definitions and Codes 59

IV. Typical TEREVIEW Output of a Converted Scan 64

V. Typical Numerical Summary Listing 70

iv
Page

1. Hourly 70

2. Dally 75

3. Monthly 80

VI. Typical Graphical Displays 85

1. Daily 85

2. Monthly 86

3. Yearly 87

VII. Typical Modem Scan Output 88

1. Characters Received 88

2. Converted Output 89

VIII. Raw Data Format 93

1. Character Location Description 93

2. Magnetic Tape BIT Configuration 95

3. MODEM BIT Configuration 95

* ‘S IX. Listing of Subroutines 96

1. Input or Output 96

2. Bookkeeping 96

3. Conversion 96

4. Control 97

5. Support .' . 97

X. TEREVIEW Command Listing 100

1. Definitions and Abbreviations 100

2. Commands and Functions 100

XI. TEREVIEW Error Messages 106

Acknowledgements 110

v
LIST OF FIGURES Page

Figure 1 Aerial view of the total energy site 2

Figure 2 Plan layout of the total energy site .............. 2

Figure 3 Total energy plant schematic 4

Figure 4 Photograph of the total energy data acquisition

system 5

Figure 5 Basic data flow through the total energy data

acquisition system 7

Figure 6 Photograph of mini-computer system 10

Figure 7 Overall data flow diagram ......................... 11

Figure 8 Initialization and command decoding flow

diagram 21

Figure 9 Pulse counter sequence 31

Figure 10 Logical connection of event (on/off)

measurements 38

Figure 11 Logical diagram of the binary decomposition of a number representing six events 39

vi
DATA REDUCTION PROCESSES FOR THE JERSEY CITY TOTAL ENERGY PROJECT

by

Daniel E. Rorrer, William G. Rippey, Yui-May L. Chang

Center for Building Technology

National Engineering Laboratory

National Bureau of Standards

Washington, D.C. 20234

ABSTRACT

The major processes used in the reduction of the data obtained from

the Jersey City, New Jersey, Total Energy Site are discussed. These

discussions begin with the acquisition of the raw engineering data

and carry through to the final data presentation in a form from which

the summary performance reports of the Total Energy Site are produced.

The major functions of the Jersey City otal energy data editing and

conversion software program developed by the National Bureau of Standards are described in some detail. Included are descriptions of the

command structure, overall data flow, data editing, data conversions,

error processing, and the creation of data output tapes for use in

further analysis. The more important subroutines which are used to

handle the individual operations are also discussed. The equations

used in the calculation of engineering units are described, along with

their derivations where appropriate.

The report assumes that the reader has a basic familiarity with

computer and engineering terminology.

Key Words: Computerized processing; data editing; data flow; data

reductions; data processing; raw data conversion to engineering units; total energy; total energy data flow.

vii

DATA REDUCTION PROCESSES FOR THE JERSEY CITY TOTAL ENERGY PROJECT.

by

Daniel E. Rorrer, William G. Rippey, Yui-May L. Chang

Center for Building Technology

National Engineering Laboratory

National Bureau of Standards

Washington, D.C. 20234

1. INTRODUCTION

During the normal generation of electrical power, a considerable amount

of energy is lost in the form of waste heat. The total energy concept

makes use of this waste heat to supplement the, energy required for other

purposes such as the heating and cooling of buildings and the generation

of domestic hot water. In order for this to be a viable concept, the

point of use of the waste heat must be close to the point of generation of the electrical energy. Thus, the single plant generation of

electrical energy as well as thermal energy is encouraged. Such a plant is a total energy plant [1]*.

1.1 BACKGROUND

The Department of Housing and Urban Development (HUD) has sponsored

the Jersey City, New Jersey, Total Energy study with the National

Bureau of Standards (NBS) having the responsibility for the evaluation

of the effectiveness of the Total Energy plant in a building complex.

Extensive engineering and economic data are being continually collected and analyzed by NBS to determine the energy savings, costs,

reliability, and environmental impact of an actual total energy

system.

1.1.1 Site Description

The Jersey City Total Energy system consists of a Central Equipment

Building (CEB) which supplies all electrical and thermal energy to a 6.35 acre (2.6 hectare) site which has 4 medium to high-rise apartments housing 1300 people in 485 apartments, an elementary school,

a swimming pool, a 46,000 ft Z (4300 m^) commercial building, and

parking space for the site tenants. Figures 1 and 2 show an aerial

view and a site plan respectively.

The Central Equipment Building (CEB) is a three-story structure which

houses five 600 kW diesel engine generators, two 13.4 MBtu/hour

(4.0 MW) hot water boilers, and two 546 ton (6.6 MBtu/hour or 1.9 MW)

*Numbers in brackets refer to reference numbers.

1
FIGURE 1. Aerial view of the total energy site

FIGURE 2. Plan layout of the total energy site

2
absorption chillers. The engines and boilers burn #2 fuel oil which

is stored in three 25,000 gallon (95 nr) underground tanks. The total

energy plant is completely automatic, allowing unattended overnight

and weekend operation. The plant is operated by a private contractor

under contract to HUD.

Heat is recovered from the engine-generators and utilized by a primary

hot-water (PHW) loop (see Fig. 3). Primary hot water at a temperature

ranging from 180°F to 230°F (82°C to 110°C) is pumped at an approximate rate of 11000 pounds (5000 kg) per minute, transferring heat from

the engines and boilers to the chillers and site hot water system.

From the engines, the PHW passes through two 25 hp (19 kW) circulation

pumps and then through the boilers where additional heat can be added

if necessary. During the summer the PHW is routed through two 546 ton

(1.9 MW) absorption chillers which provide 45°F (7°C) chilled water

for the site. The PHW then passes through two water-to-water heat

exchangers transferring heat to the site secondary hot-water system.

In the rare event that both heating and cooling demands are extremely

low, a forced circulation, dry surface heat exchanger (dry cooler)

releases the excess PHW heat to the atmosphere as a control on the

upper limit of the PHW temperature. Figure 3 depicts schematically

the major components of the CEB.

• -.s Electric power, hot water, and chilled water are delivered to the site

via underground conduits. Two sets of 480-volt, three-phase feeders

(normal and essential) are used for eletrical power distribution. In

the event of an electrical plant outage, power is automatically supplied to the essential feeder (only) from the local utility company to

preserve certain operations (emergency lighting, fire protection systems, and hot water supply and return, and chilled water supply and

return). Heat exchangers in the individual buildings transfer heat to

and from the building loops which are designed for space heating, cooling, and .domestic hot-water production.

The site is also equipped with a pneumatic trash collection system

(PTC) which collects refuse from the site buildings into a single,

compactor-type receptacle located in the central equipment building.

1.1.2 Instrumentation System Description

Evaluation of the performance of the total energy plant and its components and the determination of building utility loads are being accomplished by analyzing data obtained from transducers which are located

throughout the CEB and site buildings. These specialized transducers

translate physical variables into analog voltages that are sampled and

recorded electronically on magnetic tape in a digital format. All

measurments are directly related to physical and electrical parameters

(such as flow rate, temperature, pressure, poWer, voltage, frequency,

etc). The Data Acquisition System (DAS) (see Fig. 4) is the engineering tool that accomplishes the task of recording these measurement

data every five minutes on a 24-hour, year round basis [2]. These

3
k

FIGURE

3.

Total

energ}?

plant

schematic
)

FIGURE 4. Photograph of the total energy data

acquisition system

5
5-minute recording intervals (scans) are short enough to reflect

changes in plant status and to measure accurately the changing physical

quantities

The instrumentation consists of a variety of transducers which measure

both thermal and electrical variables. Water flow and fuel flow are measured by either turbine or nutating disk meters with integrating

circuitry, or by venturis with differential pressure cells. Temperature measurements are obtained by either copper/constantan or iron/

constantan thermocouples. Temperature differentials are measured by

multi-junction copper/constantan thermopiles. Potential and current

transformers placed on the electrical buses feed signals to watt transducers and voltage transducers. The DC output of the watt transducer

is then amplified for use as an instantaneous power signal which is

integrated over time to obtain plant electrical frequency, electrical

power factor, and system voltage[ 2 , 3]

Signal lines from plant (CEB) transducers are hardwired tc the DAS

scanning equipment. This equipment selects one line at a time to feed

the system digital voltmeter. Each of the site buildings has a remote

station which is controlled by the central DAS. These remote stations

have relays which select each remote transducer signal to be sampled

by the DAS. A system clock initiates data scans to begin at selected

time intervals (durreritly, every 5 minutes). In the scan mode, the

DAS selects data channels sequentially and routes the analog signal

to the digital voltmeter. The digital voltmeter digitizes the analog

voltages which are then written with their respective channel numbers

(in EBCDIC* format) on an incremental 9-track magnetic tape drive. A

data scan includes the recording of information from all channels in

the central equipment building plus all of the sub-channels in each

of 8 remote locations (Six buildings, swimming pool, and weather station). The entire data scanning process for a single scan requires

less than 30 seconds.

A ten inch (25.4 cm) diameter magnetic tape is sufficient for recording

up to 2 weeks of raw (unprocessed) data. "Real time" transmission is on a character by character basis (in ASCII** format) at a BAUD*** rate

of 300. [5] Figure 5 illustrates the basic data flow through the data

acquisition system. It should be noted that channel 13 on each of the

remote scanners is a reference channel. This reference channel is used

by the computer software for the determination of the remote amplifier

bias.

^EBCDIC - Extended Binary coded decimal interchange code.

**A5CIX - American Standard Code for Information Interchange. Established as an American Standard by the American Standards

Association (ANSI)

***BAUD - A unit of data transfer rate where 1 binary digit equals

1 BAUD.

6
REMOTE

LOCATION

2

7

FIGURE

5.

Basic

data

flow

through

the

total

energy

data

acquisition

system
The DAS began monitoring and recording CEB data in April, 1975. The

first remote building data were recorded in November 1975, and the

remaining remotes were placed on-line in conjuction with building

construction 1.1.3 and equipment calibration schedules.

Data Acquisition System Outputs

1 . 1 . 3 . 1 Raw Data Tape

The DAS is currently operated in an automatic mode whereby a magnetic

tape record (scan) is produced every 5 minutes. Each record on the

tape contains information concerning the total energy site physical

parameters for the previous 5-minute period. A 5 minute data collection interval was chosen based on accuracy considerations of integration-type measurements, thermal response of the total energy plant,

desired time resolution for later systems analysis, and the number of scans a single magnetic tape could contain. After a raw data tape

is sufficiently filled with data (approximately each week) it is

shipped to NBS for computerized editing and analysis.

1.1. 3.2 Modem Transmission

During the time periods in which magnetic tape records are not being

written, data scans are' transmitted to NBS vising a telephone datalink in an ASCII format. Through the use of computerized techniques,

a "pseudo" raw data magnetic tape in EBCDIC format can be created. This

capability has the advantage of near real-time processing and allows

for daily checks of the data acquisition and instrumentation system

operation.

1.1.4 Data Processing

Raw data tapes are processed at NBS by a Raytheon 704 mini-computer in

order to obtain the engineering information needed for system analysis.

The software program that processes the raw data tapes is called TEREVIEW. TEREVIEW is an operator interactive set of subroutines which

are utilized in the editing of the raw data, its conversion to engineering units, and the production of an output tape for the purpose

of data, or, total energy system analysis. The software program, TEREVIEW, is the major program used in the processing of all Jersey City

total energy data. All subsequent data processing and data analysis

are directly dependent upon the output of TEREVIEW.

1.1.5 Mini-Computer Configuration

All data which are received by NBS from the Total Energy site in the

form of DAS-generated magnetic tapes or modem transmissons, are processed by a Raytheon 704 mini-computer .[ 4] This computer system

consists of a (16 bit word) central processing unit (CPU), two disk

memories of 128K words each, a 7 -and a 9-Track magnetic tape drive,

a 9600 BAUD Cathode Ray Tube (CRT) terminal and keyboard with "hard

8
copy" unit, a teletype (110 BAUD) terminal, a high speed paper tape

reader and punch, and a full-duplex modem. The CPU has 32K words

of 1.0 micro-second core memory, hardware multiply-and-divide capability, 16 priority interrupt levels, and a power-fail-safe provision.

Communication between the two disk memories and the CPU is by Direct

Memory access with control of the disk drives taking place over a Direct Input/Output (DIO) bus. Signals from the CRT and modem are

converted from serial to parallel and are preconditioned through the

use of a 4-channel serial line multiplexer with control and output

taking place over the DIO bus. All other peripherals have their own electronic hardware controllers and signal conditioners which communicate with the CPU over the DIO bus. The two magnetic tape drives

operate at 25 inches per second in a synchronous mode with selectable

density and parity. Figure 6 is a photograph of the minicomputer

system.

1.2 PURPOSE AND SCOPE

The purpose of this report is to describe the basic data flow from its

receipt at NBS through the software system that processes it into its

final "report ready" condition of charts, graphs, and numbers.

This report describes in some detail the total energy data editor and

engineering units conversion program (TEREVIEW) including the command

structure, overall data flow, data editing, data conversions, error

processing, and the creation of data tapes to be used in further analysis. The more important subroutines which are used to handle the

individual operations are also discussed. The equations which are used in the engineering unit conversions are described, along with

their derivations where appropriate. The format of the output data

tape is also discussed. This report assumes that the reader has a basic familiarity with computer and engineering terminology.

2. DESCRIPTION OF DATA FLOW THROUGH THE OVERALL DATA REDUCTION

SOFTWARE SYSTEM

For the following discussion it will prove helpful to refer to Figure

7. Each of the instrumented engineering parameters arrive at the DAS

as an analog voltage input (some of the basic instrumentation has a digital output format initially; however, in every case, conversion

to analog takes place before presentation to the DAS). The DAS then

converts these analog voltages to digital values prior to output.

Three options exist with respect to the DAS handling of the raw digital data outputs for transfer to NBS:

1. Production of a magnetic tape in an EBCDIC format for

subsequent land/air transport to the NBS.

9
Figure 6. Photograph of mini-computer system

10
MEASUREMENT
2. Transmission of the data in an ASCII format over telephone

lines to NBS where it is received and reformatted into

EBCDIC. Once format conversion has occurred, three

additional options are available to the computer operator:

(a) Engineering unit conversions can be performed and the

resultant answers compared against their "normal range

values." A numerical display summary of the plant and

instrumentation status is also made. A sample printout

of this option is contained in Appendix VII-2.

(b) A magnetic tape can be produced to simulate the magnetic

tape which is normally obtained by option 1.

(c) Both (a) and (b) can be performed simultaneously.

3. Options 1 and 2 above are available simultaneously.

The normal mode of operation for receipt of raw data at NBS is to utilize option 1 above, with a daily verification of plant operation

through the use of option 2(a).

Additional engineering information concerning the site fuel oil analysis is received twice a month at NBS from a private testing laboratory.

This information is manually input into the data flow at a later stage

of processing.

The raw data tape in conjunction with a site status log serve as the

basic data inputs to an operator interface and data editor software

program (this program is named TIJREVIEW). The prime purpose of

TEREVIEW is to produce another magnetic tape which is both electrically and mechanically acceptable to the computer and which consists

of the millivolt readings as well as the engineering unit parameters

for each channel for each scan. Additionally, this "engineering unit"

magnetic tape contains a set of flags for each scan (one flag per

channel) indicating the software as well as the operator assessment

of the quality of the data. A more detailed description of the functions of TEREVIEW is contained in section 3.1. When the engineering

unit magnetic tape has been completed and verified, the raw data tape

is erased and returned to the site for use again by the DAS.

In order to produce the engineering parameters which consist of relationships or calculations involving two or more data measurements

(these parameters are called Derived Variables), a software program

called ANALYSIS is used. ANALYSIS utilizes as its input the engineering unit magnetic tape, as well as the operator's input of such items

as the site fuel oil laboratory analysis, plant status, and data dates.

The basic function of ANALYSIS is to produce a cartridge disk (for

each month of the year) which contains all of the information necessary to analyze properly the engineering performance of the total

energy system. ANALYSIS is actually a set of three main software

12
programs which handle the data sequentially in a logical order such

that the required result is achieved. A more detailed discussion of

ANALYSIS is contained in section 3.2.

The monthly disk produced by the ANALYSIS software is used in the

accumulation of seasonal trends on a yearly disk (see paragraph 3.3)

as well as for input to numerical and graphical display software.

Ultimately, the engineering reports concerning the total energy system

operation are written on the basis of a careful study of all data

stored on the monthly and yearly disks.

Both the monthly and yearly disks are copied to magnetic tape (as a backup storage media) and saved for future reference.

3. DESCRIPTION OF DATA REDUCTION SOFTWARE FUNCTIONS

3.1 RAW DATA TAPE EDITING ( TEREVIEW)

Past experience with the raw data tapes produced by the DAS has shown

that it is not feasible to assume that the tape will be both electrically and mechanically "perfect". Such common anomalies as parity

errors, scratched oxide base, interspaced inter-record gaps, intermittent ends-of-f ile , extraneous bits and characters, and missing bits

and characters have been frequently experienced. The first job of

TEREVIEW is to read a complete raw data record (scan) and check

it for proper format and structure. In the event an error is found

which cannot be corrected by software, the operator is informed of the

error and is given many options to use in its correction. A complete

list of the command codes and error displays which are available to

the operator is contained in Sections 6.7 and 6.8. Once a corrected

record has been placed in computer memory, the following operations

are performed.

1. Conversion of the label information (see Section 5.1), date,

and time from EBCDIC to binary real* numbers.

2. Conversion of the EBCDIC, 13-character groupings (see APPENDIX

VIII (1)) to a DAS channel-ordered array of binary real

numbers representing the millivolt readings of each channel.

3. Conversion of the millivolt readings to their respective

engineering units.

* A real number, for purposes used in this report, is a computer compatible, signed, floating point, decimal number.

13
4. Verification of millivolt and engineering unit values to be

within broad practical operation limits.

5. Setting of flags for each channel to indicate such information as: no error detected, error detected and not corrected

by operator, and converted value inserted by operator.

6. Production of a temporary disk based (scratch) file.

i 7. Further editing and checking of the scratch file (if

required) with complete operator interaction.

8. Creation of the engineering unit tape from the scratch file.

9. Verification of the engineering unit tape.

The raw data tape edit (and creation of the engineering unit tape)

function is performed on each tape which is received from the total

energy site. Approximately four raw data tapes are processed each

month and the resultant engineering unit tapes (one to four per month)

are stored for future processing and reference. Since the engineering

unit tapes contain the raw millivolt values, they serve as a direct

link back to the primary measurements. A listing of a representative

scan as ouput by TER^VlEW is contained in Appendix IV.

It should be noted that although the intention is to gather data every

five minutes, this is not always the case. In reality, due to DAS

system calibration verifications, occasional transducer malfunctions,

and various other reasons, there are time periods for which no data

exists. These time periods of no data are taken into account by the

ANALYSIS software as described in the following section.

3.2 CREATION OF THE MONTHLY DISK (ANALYSIS)

3.2.1 Hourly Accumulation of Engineering Units

In order to create a monthly disk which contains engineering parameters representing the total energy plant operation, it is first

necessary to compress the five-minute data prior to the calculation of

derived variables. In this stage, a five-minute data scan is read

into the computer and each data flag is checked for the validity of

the data. If the flag indicates that the data are not acceptable,

then no further action is taken; however 'y if the data is apparently

good, the data value is further verified to be within a range of

values. The particular verification range for which the data is

tested is based on the status of the plant at the time the measurement

value was recorded. The selection of the actual verification range

value was made based on analysis of all data fecorded during a time

period in excess of a year. If the data does not check out under the

last test, then no action is taken. If the data does check out under

the last test, then it is accumulated into an accumulation buffer and

14
a "time of good data" counter is incremented. At the end of each

data hour, the average value of the data (over the time for which

acceptable data were present) is calculated and written, along with

the time for which the data channel was present, into its respective

hour sector on the disk. The above continues on a channel by channel

and scan-by-scan basis until all hours in the month have been processed. At this point, the second phase of ANALYSIS is called into operation.

3.2.2 Calculation of Hourly Derived Variables

All derived variables are calculated based on the hourly average of

the required engineering units. If any required variable is indicated

(by its time parameter) as not being present, then no calculation is

made. A time for which the derived variable is considered to be good

is also calculated. This time is normally the smallest time of all of

the engineering units used in the calculation.^ Once the hourly derived

variables (and their associated times) are calculated, they are written

to the disk on the appropriate derived variable hourly time sector.

The above calculations take place for each hour of the month for which

any data existed. At this point, all of the engineering units and

derived variables (with their associated times) for each hour of the

month are on the disk.

3.2.3 Calculation of Daily and Monthly Summaries

The third and final phase of ANALYSIS is to calculate the daily and

monthly summary for each of the engineering units and derived variables.

The daily summaries are averages over time of all of the hours in the

day and are written on the disk (with their effective time) in specific

daily sector locations. The monthly summary is also an average over

time; however, it is based on the daily values. Once this third phase

is completed, selected data can be displayed either graphically or numerically and an operator can assess the validity of the entire

process.

3.2.4 Monthly Disk Editing

If, after the creation of the monthly disk, it is learned that conditions at the total energy site were different from that which was originally thought, a software program called DISKUPDT will allow for

a knowledgeable operator to have access to the hourly engineering units

(only) in order to modify or update them. • Once DISKUPDT has been used

on a particular disk, then the second and third phases of ANALYSIS must

also be reexecuted. An example of where this program has been used is

in the deletion of a data channel when it was discovered that the channel

was malfunctioning.

A typical listing of an hourly, daily, and a monthly summary is con- tained in Appendix V. Definitions for each engineering unit and

derived variable are contained in Appendices II and III.

15
3.3 CREATION OF YEARLY DATA SUMMARY DISK

The name "yearly data summary disk" is a misnomer; in reality, the disk

is a 20-month disk. The number 20 was arrived at based on the space

which was available on a single disk cartridge. This disk is nothing

more than a logically ordered copy of all of the daily and monthly sum- maries for up to 20 sequential months. This disk is only used for graphical presentation such that "smoothed" trends can be easily observed.

The presentation is "smoothed" by eliminating the normal diurnal hourly

fluctuations and by using the average daily values.

4. DESCRIPTION OF OUTPUT AND DISPLAY SOFTWARE CAPABILITIES

Provisions for displaying all calculated data in a graphical and/or a numerical format is dependent not only on the desires of the operator,

but also upon the type of media from which the data are obtained. Graphical presentation of information is available only for data which exists

on either a monthly or yearly disk. Numerical information display is

available for data existing on a monthly disk or for data which are being

obtained from the direct modem telephone link with the site. The reason

that numerical data lists are not available from the yearly disk is that

the yearly disk is sihply a reduced copy of the several monthly disks

comprising it. If the operator desires numerical listing of information

contained on a yearly disk, then it is obtainable in greater detail from

one or more of the monthly disks (which were used in the creation of the

yearly disk).

4.1 GRAPHICAL PRESENTATIONS

The software used in the preparation of plots (or graphs) of monthly

information is call PLQTDISK. FLOTDISK is a program that requires the

operator to enter the current date, data code (or codes), data range,

and time domain. Additionally, options exist for the operator to display different types of data, insert title and/or sub-title, and to vary

the number of divisions of the data range along the Y-axis. Simple arithmetic operations involving two variables are also available for display.

In order to maintain a consistent history, each plot has printed on it

a code number. From this code number, the particular disk from which

the data were obtained, the current date, and the data code which was plotted can all be determined. A summary of the capabilities of PLOTDISK which are available to the operator follows.

Number of Plotted Variables - one to five per display.

Type of Variable - hourly raw data, hourly derived variables,

time history for which data were considered acceptable,

hourly information concerning constants and other data which

have no established data code, and arithmetic operations

involving two variables.

Main Title - either automatic or selectable by operator.

16
Sub-Title - operator choice only.

Variable Range - maximum and minimum values selectable by operator.

Divisions of Range on Y-axis - selectable by operator.

Unit titling of x and y axes - automatic with no operator choice.

Time period of plot - selectable by operator by first and last

hour or first and last day of month to plot. If no data

existed for a part of a requested time period for reasons

previously described, then no data will be plotted. If data

existed but was not used in calculations, it is either

not displayed or, at the operators option, will be plotted

with appropriate code marks.

The software which is used in the graphical display of yearly information is called PLOTYEAR. PLOTYEAR is essentially identical to PLOTDISK

with the only exceptions being:

(1) daily information points are presented instead of hourly;

(2) the time period of the plot is based on the first month and

day and the last month and day; and

(3) no option exists for display of unused data.

Examples of several of the available modes of graphical presentation are presented in Appendix VI.

4 . 2 NUMERICAL PRESENTATIONS

4.2.1 Monthly Disks

Numerical listings of the monthly disk values of hourly, daily, and

monthly variables are available through the use of a software program

called ANALYSPT. The particular listing which is presented is left to

the desire of the operator. Examples of each option are contained in

Appendix V.

4.2.2 Modem Data

Current millivolt and engineering unit values of raw data are available

to the operator on a "real-time" basis. Additionally, these listings

contain a software assessment as to the quality of the received data.

The program which is used for this listing is called MODMCHEK. Another

program called MODMLIST will only print each raw character as received

by the electronic hardware. Examples of both types of output are contained in Appendix VII.

17
5. FORMAT DESCRIPTIONS

5.1 RAW DATA

All data transmission (which is either recorded on magnetic tape or sent

to NBS over telephone lines) takes place serially on a character-bycharacter basis. The only alphanumeric characters which are used are:

0, 1, 2, 3, 4, 5, 6, 7, 8, 9, +, B, M, N, S, V, blank.

A character-by-character description for a typical scan is contained in

Appendix VIII (1).

5.1.1 Magnetic Tape Format

Each magnetic tape as generated by the DAS contains a series of data

records (1 record per data scan), inter* record gaps, and end-of-file

marks. After each data record (of 3672 characters) is an inter-record

gap followed by either another data record (for the next data scan) or an end-of-file mark. An end-of-file mark is used to indicate either the

physical end of data recording for the tape, or that the DAS has not

been recording continuously. The DAS does not record data scans when it

is being used for transducer calibration or if it is "down" because of

some malfunction or other reason.

Each character which is placed on the tape consists of 8 binary digits

(BITS) and a parity BIT which make up a single 9 BIT incremental frame.

There are 800 frames or BITS per inch (BPI) and both the lateral and

longitudinal parity is odd. The individual character BIT configurations

for the magnetic tape are given in Appendix VIII (2).

5.1.2 Modem Format

All characters which are transmitted (and received) over the modem data

link are continuous with no breaks or gaps between individual data scans. The only time that a break in the data flow occurs is when the DAS is

recording on magnetic tape and this is represented by a complete loss of

the modem transmission carrier. An individual character is transmitted

serially as a string of 10 pieces of information which consist of 8 data

BITS and 2 control functions. These BITS are transmitted at a rate of

300 per second and determine a character transfer rate of 30 characters

per second. The individual character BIT configurations for the modem

are given in Appendix VIII (3).

The only other difference in the modem and the magnetic tape format is

that an extra blank is added by the modem before the label and before

each data signal group of 13.

18
6. DATA CONVERSION AND EDITING

6.1 EDITING CONSIDERATIONS

The program TEREVIEW was developed by NBS* to operate with a raw data

magnetic tape as input, a magnetic tape for output, and a disk for use

as a temporary storage (scratch) media.

It was desired that maximum human operator interaction be available and

that operator inputs and commands be simple and flexible. It was required that the input and output operations controlling the flow of

data through TEREVIEW be operable in either an automatic or a manual,

scan-by-scan mode. Input operations include the reading of the input

raw data tape, format conversion, millivolt calculation, conversion of

the millivolt data to engineering units, error test, data sorting and

cataloging, setting of status flags, etc., while output is the recording

of the information on a magnetic tape. In addition, it was necessary

that the operator have access to a sufficiently large volume of converted

data (covering a long data time period) in order for realistic decisions

to be made as to the acceptability of the data. Of secondary importance

were such functions as audible error alarms, operator input variable

assignments, capability for operator termination of certain error listings, automatic carryover of calculations from one day to another, and

automatic correction of certain repetitive logical errors in the raw

data. Since raw unprocessed data records (approximately 250 measurements per record) were to be processed for each 5 minute time period

over a two-year span or more, the execution time (time required to process a data record or scan) was of prime importance. All of the required

and desired conditions for this major editing and conversion computer

program were met.

The TEREVIEW program requires approximately 24000 (16 BIT) words (out of

32000 available) of core storage (memory) and has been written to operate

as a library program on a Raytheon 704 mini-computer. The subroutines

which comprise TEREVIEW were written in either FORTRAN-4 or in machine

(symbolic) language [4,5]. If a particular subroutine was normally used

enough times to justify the potential processing time savings, then the

routine was written in machine language; otherwise, it was written in

FORTRAN-4. As a result, the automatic execution time required to process

completely (from input tape to output tape) a single (error free) scan

of data is approximately 31/4 seconds.

6.2 INITIALIZATION AND COMMAND DECODING '

When TEREVIEW is first brought into execution, all variables are initialized to their required first values, all working buffers are cleared,

all constants are initialized, and a command structure table is set up

to include a unique reference number and pointer set for each command.

* For a description of the early stages of program development,

including original design philosophy, see [15].

19
Initialization of the scratch disk file [5] and its associated time and

scan reference table, if desired, must be done through an operator initialization command. A textual reminder is provided (at first command

input time only) such that the operator will not forget that a decision

is necessary concerning the mode of disk initialization. The operator

options are to begin processing where it was terminated last, or to

start processing data as if no previous processing had been done.

All operator input commands are processed by a command decode processor

set of routines which return (to the calling routine) a unique integer

number (1-39) for each command, a disk vector pointer, and all operatorentered arguments. Command arguments (24 maximum) are placed in an argument table in the order in which the operator entered them and the first

location of the table is set to the total number of arguments entered.

If the argument entered is a variable name, then the last previously

defined numerical value of the variable is retrieved and placed in the

table. Command legality, as well as command argument count correspondence, are checked and appropriate error codes are provided. In addition,

certain commands require that arguments be related directly to each other

or that they meet closely defined criteria; these conditions are also

verified. Figure 8 illustrates the initialization and command decoding

sequence. Once a command (with its associated arguments) is verified

as acceptable, control is passed to the command processor part of the

software. It is in the command processor that a final determination is

made as to what has been requested by the operator.

6.3 DATA FLOW IN NORMAL OPERATION

In order to utilize the full capabilities of TEREVIEW, it is essential

that the data flow through the various data handling buffers be understood. If a normal operation does in fact exist, then it would be

defined as those operations that take place when two or more error-free

raV data scans are converted. Two sequential scans are necessary in

order to reduce properly certain ramp-type measurement data. In reality

many data scans have been found to contain errors of some type, most of

which are corrected by the software without any decision required (or

desired) by the operator. The basic sequence of data flow is as follows.

1. One scan (record) from the raw data magnetic tape containing

EBCDIC characters is read into an input buffer.

2. The first 19 EBCDIC characters of the input buffer are subdivided into groups of 4, 4, 4, 3, 2, 2 characters which

are converted to 6 integer numbers and placed in a label

buffer. The label buffer contains:

Label - 3 four-digit numbers (The characters "NBS" are

replaced by zeros);

Day - 1 three-digit number;

Hour and Minute - 1 four-digit number [(Hour x 100) + Mi nut e) ] ; Minute - 1 two-digit number.

20
Initialization and command decoding

flow diagram

21

FIGURE 8.
3 . The remaining EBCDIC characters in the input buffer array are divided into groups of 13 and are converted, one group at a time, into two integers representing DAS channel and subchannel, and one real floating point number representing

millivolt value. A unique location index number is calculated using the channel and subchannel numbers, and the

millivolt value is placed in a millivolt buffer location

as determined by the index.

4. The millivolt buffer is transferred to a working buffer

which contains the last known good millivolt values. The

working buffer is only updated if the millivolts are known

(by the software from previously defined criteria) to be

good and if the operator has made no entries which would

disallow it. Any changes to input data which are made by

the operator, in reality, are made to the working buffer.

The millivolt buffer is not allowed to be changed.

5. All engineering units (pressure, temperature, etc.) are calculated in an optimum, logical order using the millivolt

value contained in the working buffer. The engineering

units are placed in an engineering units buffer. The order

of calculation of the engineering units is such that a practical minimum of duplicate calculations is required.

For example; since the temperature of various points throughout the system is required in many of the calculations (for

differential temperature, viscosity, density, etc.), then

all temperatures are calculated first.

6. A status flag buffer is continuously updated during all of

the above operations. These flags consist of one integer

number per DAS channel and indicate such information as:

data is good, data is bad, data was set by operator to be

used in all subsequent calculations, data was set by operator

to be used only in certain subsequent calculations, data was deleted by operator, etc.

7. The label, flag, millivolt, and engineering units buffers are written to a scratch disk utilizing a data time based file

control system [5].

In the automatic mode, the above operations continue, if not interrupted

by either the operator or the occurance of a major error requiring an

operator assisted fix, until the scratch disk file is full (700 data

s ea ns )

Additional editing of the scans contained on the disk can be made at

this time if the operator so desires.

8. The engineering units output tape is next created by transferring the data scans (one scan per record) from the scratch

disk file to the output tape unit. The only data difference

22
in an output tape record and a scratch disk scan is that the

integer label information is deleted (it is contained, along

with other processing status information, within the first

nine locations of all buffers) and certain checksum calculations are made.

If for some reason the disk file is not available for use, a program

called TEEDITOR is available which performs the same functions as TEREVIEW except that the engineering units output tape is created at step 7 above. The disk file would not be available for use at times of malfunction of either the disk hardware, disk controller, or the computer direct

memory access capability.

6. A CHARACTER GROUP CONVERSION

All EBCDIC characters representing numerical digits contained on a raw

data input magnetic tape must be broken down into their respective

integer numbers before they are computer usable. Once the individual

digits are obtained, these must be combined logically into computer

numbers representing 1 or more digits. Useful computerized processing

can take place only after the above is completed.

6.5 ENGINEERING UNIT CONVERSION

After character group conversion, each measurement channel is identified

by its DAS channel number (and its assigned NBS number) and is converted

to a real millivolt number which is placed in a holding buffer. Each

measurement channel is further categorized into one of seventeen types

in which there is also one and only one reference value. Each category

type has associated with it a unique engineering unit conversion routine

and each reference channel number (within a specific type family) has

associated with it a particular set of calibration constants. A subsubroutine is used to set up the NBS number, type of measurement, and

reference value (when given the DAS channel). The subroutine which performs these functions is called LOCTED. Engineering unit conversions

take place according to the type of measurement. A brief discussion of

the equations applied and the name of the conversion routines which are used is contained below.

During the initial TEREVIEW planning and transducer calibration phases

of the Total Energy program, the metric system of measurement (SI) was

just beginning to be used in the United States. As a consequence, all

transducer calibrations were received by NBS and all software was developed by NBS in English units. To convert the TEREVIEW software to the

SI system would have represented a major effort. The derivations and

textual discussions which follow are therefore as originally done at

NBS and are not described in the SI system (except where appropriate).

If the reader desires further information concerning the SI measurement

system, reference 6 has been found to be appropriate.

23
6.5.1 Non-Existing Measurement (Type 1):

Since the DAS is designed to take measurement data sequentially from all

channels beginning with the first programmed channel and ending with the

last, there are necessarily some channels which do not contain measurements. In addition, there are some channels which are reserved as spares to be used if they are required for future system analysis purposes. When a type 1 measurement Is encountered, no further processing

takes place; however, the millivolt value for the channel is maintained

for possible future reference.

6.5.2 Pressure (Type 2): PRESS1*

There are two kinds of pressure measurement. The first is for measuring

liquid pressure such as system water (pump discharge) and lubrication

oil for an individual engine. The second is for measuring exhaust gas

back pressures from individual engines.

For the first kind; the measured voltage is calibrated to be between 2 and 10 volts while the pressure varies from 0 to 100 pounds per square

inch (PSI). The linear equation for the pressure is:

P (M - 2000)

80

( 1 )

wher e

M is the measured voltage in millivolts (mv) , and

p is the pressure in PSI.

For the second kind, the measured voltage is calibrated to be between

2 and 10 volts while the pressure varies from 0 to 30 inches of water

column. The linear equation is

h = 0.00375 (M - 2000) , (2)

wher e

M is the measured value in mv , and

h is the pressure in inches of water.

The gas pressure in PSI is

P - (yj> (Y>, U)

* PRESS 1 is the name of the subroutine which converts pressure (type 2)

data to engineering units. • 2U
where

O Y is the water density in (lb/ft ), which is taken as 62.3664

lb/ft 3 (at 60° F ) .

By combining (2) and (3) and inserting the value for y , the pressure

at 60°F will be

p = 0.0194895 (M - 2000) lb/ft 2

. (4)

The constant volume relationship for a perfect gas as given in reference

7 is

where

(5)

Pj is pressure at temperature Tp

P 2 is pressure at temperature T

2

, and T

2 are absolute temperatures,

i.e. , T = (459.63 + T°F) . (6)

Therefore, by combining (4), (5), and (6), the equation for the gas

pressure being measured is

p = 3.75 (M - 2000) (459.63 + T°F) (10

-5

) . (7)

6.5.3 Venturi (Type 3): VENTRI

Flow rate is measured at many points throughout the total energy system

by venturis. Their basic equation as given in Reference 8 is:

with a (-> 2

12

v

y

( 8 )

(9)

( 10 )

(ID

25
where

W

c = the flow rate of fluid in Ib/sec,

C = the coefficient of discharge,

y

= specific weight of fluid in lb/ft^,

g b

= gravitational constant at site = 32.16 ft/sec 2 at

latitud e 40°45 '

,

d = venturi throat diameter in inches,

D = internal pipe diameter in inches,

Ap = differential pressure in lb/ft , and

F n = bore temperature correction factor.

By combining equations (8), (9) and (11) we obtain

( 12 )

(13)

Wc i(A2

} 4 l 12 /

(ay)

A 1 - 0

" M ? SL A2.

The pipe Reynolds number as given in references 8 and 9:

Rn =_ 22752 75 / Wc \

D

y

yep)

where

cp = the line fluid viscosity in centipoises.

Hie expression representing coefficient of discharge (C) as a function of pipe Reynolds number (R^) is expressed as

C = a 4- —, (14)

R

D

where a and b are constants which are obtained by laboratory tests

for each venturi.

Let

ca = . ./^gL = 7. 6 90279 x 10" 6

, 22752 (12)

2

Cb = Jr /Sk = 4.374230 x 10

-2

, 4 ( 12)2

cc

(15)

(16)

(17)

26
c (18) d

_ d

2 D

/l - 3 4

By combining equations (12), (13), and (14) and by substitution of

definitions (15) through (18), the following is obtained:

w

c - c

e ±\K2 + c£.

where

(19)

% ^b ^a P

( 20 )

Cf = b ca

Cd

^ cp Fa

Classification of terms necessary to solve equation (19)

is as follows:

( 21 )

true constants: Ca and C^;

venturi specific constants: a, b, C , and C d ; and

system variables: p , y, F and Ap„

cp “ The specific weight of water (y) as a function of temperature (reference

10) can be plotted and a curve fit to the resulting points. The resulting expression is:

y = A + B(T°F) + C(T°F) 2 + D(T°F) 3 + E(T°F) 4

, ( 22 )

where

A = 62.21161,

B = 1.198719 x 10-2

, C =-1.820609 x 10~4

, D = 4.684719 x 10“7 E =-6.036029 x 10“1(5

,

The viscosity, y cp = 0.029e

( 510 ^

(23)

where T°K is the temperature in degree Kelvin (reference 11), or

918

T°F + 189.688 )

y = 0.029e

cp

(24)

27
Each differential pressure transducer was calibrated to produce a voltage drop across a 500 resistor. The voltage range is 2 to 10 volts,

corresponding to a differential pressure of 0 to 150 inches water column.

The differential pressure is determined by

h = 0.01875 (m - 2000) in.,

or h = 1.5625 x 10“3 (M - 2000) ft, (25)

where M is the measured voltage across the 500 resistor in mv. The

transducer was also calibrated at 60°F with y =62.3664 lb/ft3

, therefore

Ap = .0974475 (M - 2000) lb/ft 2

. (26)

The venturi temperature correction factor, F

a

, can be calculated by a linear approximation as follows:

Then

(F

a - 1) _

(F

a

» - 1)

“———————— — ,n " ’ 1 e (T - Tc ) (T ? - T c )

Fa = 1 + (F^ - 1)

(T TM T

c

) (T* - T

c

)’

f where F

a is the temperature correction factor at temperature T'

,

F is the temperature correction factor at temperature T,

T

c is the temperature when F = 1.

(27)

(28)

In order to calculate F

fl for each venturi, Tc mus{: be determined first.

Once T

c is known, a set of known calibrations, F

a and T* , is used to

obtain F by equation (28). The calculation of T

c is based on the Flow

Calibration Report (reference 8) as follows:

Two sets of temperatures and corrections are needed in order to determine

T

c

. One set is at operation condition, Top and F op , given by the Flow

Data Calibration Sheet for each venturi. Another set is calculated from

actual flow calibrations. The velocity of approach factor, F, given by

the physical dimensions of an individual venturi, corresponds to the

particular temperature T-^. T^ equals the temperature for which the discharge coefficient has an approximate zero percentage deviation from the

fitted expression over the calibrated range. By using these values and

equation (27) to solve for T

c> we have

T c

< BT1 " T

op>

“Tb - l)" ’ (29)

28
where

( 30 )

Therefore, equation 28 becomes

a

= 1 + CFF(T

op

- T ) , c

* (31)

where

(F - 1) (32)

F

a can now be determined through the use of the venturi specific

constants CFF and T

c when the system temperature T°F is known.

The actual flow rate calculation for a venturi is performed by the

subroutine VENTRI as follows.

1. Calculate Ap = h using equation (25).

2. Calculate Y using the subroutine DENSTY (which uses equation

4. Calculate F

a using equation (31).

5. Calculate C

0

and C^ using equations (20) and (21).

6. Calculate the flow rate, W

c in lb/sec using equation (19).

7. Convert W

c to lb/min.

6.5.4 Integrated Pulse Type (Types 4, 9, and 13): INTEGR

Several types of measurement are being made which depend on the change

in the value of the measurement from one scan to the next. In all cases

of this type, the primary parameter (which is a rate) produces a series

of pulses which are electronically counted (integrated) and then presented to the DAS as a voltage level which represents the number of

pulses which have currently been counted. Since an infinitely large

voltage would be obtained if this process were allowed to continue

indefinitely, it is necessary to reset to a zero value and start over when the counters reach their limiting value. The parameters which are being measured through the use of this technique are fuel flow rate

(turbine meters with pulses representing gallons), electrical power

(kilowatt hour meters with pulses representing kilowatts), and time

(frequency with pulses representing minutes). In order to calculate

accurately the number of pulses which were counted during a given time

period, it is necessary to know if the counter reset to zero during the

period. It is also necessary to be absolutely certain that the counter

22 ).

3. Calculate

tion 24)

using the subroutine VISCOS (which uses equa29
only reset once (if at all). This condition is met by dividing the

number of pulses presented to the counter by a power of two such that no reset will occur during a time period less than or equal to the DAS scan time when the physical parameter being measured is at its maximum

value. This division is controlled by the semi- permanent manual setting

of a thumbwheel. A representation of the process is contained in

Figure 10.

For a given thumbwheel setting, N, and a physical parameter count output

of C, the counters will contain a value, CN

, of

CN (33)

Since the digital to analog converter (DAC) is electronically wired to

the most significant bits of the counter, the Digital Count is effectively

divided by 32 (or 2^). Therefore, the input to the DAC, C^ is equivalent

to

C

2 N + 5 (34)

The voltage output of the DAC (and therefore, the voltage which will be

recorded by the DAS) is

wher e

M = ax

C D

256

(35)

M = the voltage as recorded by the DAS,

= the full scale voltage output of the DAC.

Since we are converting an analog step to a digital value, the value

CD

= 256- -M

(36)

\ax

must be taken as an integer;

i.e., Cn = (- ^--—) Forced to be integer (37) ax between 0 and 255

Applying (37) to (34) produces the pulse count integration as a function

of DAS voltage:

C - CDI (2

N + 5

)

(38)

30
Figure 9. Pulse Counter Sequence

31
During any given time period, the integration of the number of pulses

over time is

C

I = C

2 - C

x

. (39)

If the quantity Cj is negative, then the digital counter reached its

maximum (and reset) during the time period between the two samples.

The value CT in this case would then be

C

I R

=

C

2 - Cx + ((2 12

) (2) (2 n

)), or

Ct = C, + R, (40)

R

where

R = 8192(2N

). (41)

Between two sequential scans, the number of pulses which were output

from the instrument measuring the physical parameter is calculated by

the INTEGR subroutine as follows.

1. Calculate the current count, C£ = C using equations (37)

and (38).

2. Retrieve the previous count, from a count save buffer

array.

3. Update the count save buffer array with the current count,

4. Calculate C^ using equation (39).

5. If C T is negative, calculate C T = CT using equations (40)

and (41). R

The value Cy is calculated for every measurement which is of type 4 (tur

bine), 9 (kilowatt), and 13 (time). This value of Cy is then utilized

(by INTEGR) to calculate the actual engineering unit value of the parameter being measured.

6.5,4a Turbine meters (TYPE 4): INTEGR

For each turbine meter installed in the system, there is a corresponding

family of curves consisting of K factor versus total flow [12, 13]. K

factor is typically expressed in pulses per gallon, and is also a function of flow rate and fluid viscosity. The viscosity of #2 fuel oil,

li Q is a function of temperature. For the normal fuel oil system operating temperature range, viscosity can be approximated as

y 0 = A + BT + CT2 + DT3 + ET4

, (42)

32
where

u = the viscosity of #2 fuel oil in centipoises,

A° = -4.764022,

B = 6.907599 x 10,_.

C = -1.450071 x 10 , D = 1.159411 x 10 4

E = -3.29042 x 10 , and

T = the temperature of the fuel oil in degrees Fahrenheit.

Equation (42) was obtained by using a least-squares fit (on laboratory

test data) over the range of temperatures from 70° F to 110° F. The standard error of estimate is .0038 centipoises.

The flow of the fuel oil through the turbine will cause a series of

pulses to be output to the DAS counters. Knowing the time between DAS scans and the total number of pulses counted between the scans, an average pulse frequency can be determined. This frequency is proportional

to the average flow rate over the time period between scans.

where

TIME

(43)

H

z = frequency in pulses per minute,

C-j- = total pulses as determined in section 6.5.4,

TIME = time over which was determined (in minutes).

K factor can be expressed as a function of H

z /y . The original factory

(and additional laboratory) calibration points (K factor) were tabulated

versus corresponding H

z /yo values and a series of equations were fit to

the tabulated data points. Through examination of the standard error of

estimates obtained, and from considerations for consistency in calculation from one turbine meter to another, the following equation was obtained

K = A + RV + CV2 + DV 3

+ EV4 + FV 5 + GV6 + HV 7

, (44)

where

K = K factor in pulses per gallon,

V = H

z /y 0

, (45)

A thru H = a set of unique constants for each turbine meter.

The total flow through the turbine meter during the time over which the

turbine output pulses were counted is

33
gallons (46)

and the average flow rate is

GPM = g. all. ons

. (47) time

The subroutine INTEGR calculates the average flow rate of fuel oil

through a turbine as follows.

1. Cj is calculated as described in section 6.5.4.

2. The time between scans is known.

3. The fuel oil temperature, T has been determined previously

by another subroutine (DEGRSF).

4. is calculated using equation (42).

5. H

z is calculated using equation (43).

6. V is calculated using equation (45).

7. K is calculated using equation (44).

8. The average flow rate in GPM is calculated using equations

(46) and (47).

6. 5. 4. 2 Kilowatt (Type 9): INTEGR

The kilowatt transducers measure instantaneous electrical power and output a voltage which is proportional to if. This voltage is then input

to a voltage to frequency converter, the output of which is input to the

integrating counters described previously. Therefore,

KW

C

x (A)

Time ’ (48)

where

KW

C

I A

Time =

kilowatts produced during the time period,

total counts over time,

a unique constant for each kilowatt transducer in

k i 1 o wa1 1 mi nut eg whi ch has been previously obtained

pulse

from laboratory calibration, and

the time in minutes over which Cj was obtained.

6. 5,4.3 Time (Type 13) ; INTEGR

Time measurements are made by counting the voltage (frequency) pulses

which are output as a result of the normal operation of the system (or

subsystem) for which operation time is desired. This frequency is 60 Hz

(pulses per second). Therefore,

60(60) 3600

34

Time (49)
where

Time = time in minutes, and

Cj = total 60 Hz pulses counted.

6.5.5 Special (Type 5): SPECL1

Several of the more important (for analysis purposes) kilowatt transducers

described in section 6. 5. 4. 2 have their outputs (voltage vs instantaneous

electrical power) measured directly. These measurements serve as a backup

(and check) for the voltage-to-frequency conversion and counter technique

•previously described. Of course it must be assumed that the instantaneous

power being produced or used (at the time of the sample) is representative

of the average electrical power produced during the time between successive

samples. The instantaneous power is calculated by

KWj = M( A) , (50)

wher e

KWj = instantaneous power in kilowatts,

M = the measured millivolts, and

A = the kilowatt transducer calibration constant in kilowatts

per millivolt.

6.5.6 Temperatures

6. 5. 6.1 T-Type (Type 6): DEGRSF

Measurement data obtained from all copper/cons tantan thermocouples referenced to 0°C (T-Type) are converted to engineering units by the use of

the following equation [14]:

T°C = AM4 + BM3 + CM2 + DM + E, (51)

wher e

A = -3.550090 x 10~ 4

, B = 2.218164 x 10, . C = -6.195487 x 10,

D = 25.66130,

E = 0,

M = the measured millivolts, and

T°C = temperature in degrees Celsius.

Since most of the subsequent total energy work requiring temperature as

a variable is expressed as degrees Fahrenheit (T°F), the value obtained

above is converted to T°F using the equation:

35
'T°F T°C (1.8) + 32 (52) =

6. 5. 6. 2 J-Type (Type 7): DEGRSF

Measurement data obtained from all iron/constantan thermocouples referenced to 0°C (J-Type) are converted to degrees Fahrenheit in the same manner as shown above for T-Type, the only difference being in the value

of the constants used. The constants are a function of temperature range

as shown in the table below.

constant

A

B

C

D

E

6. 5. 6. 3 Differential

0 <T°F < 752

( M < 21.84588 )

-1.328057 x 10~4

8.368396 x 10"3

-1.854260 x 10~1

19.75095

0

(Type 8): DEGDLF

752 < T°F

( 21. 84588 < M

)

9.936448 x 10~5

-1.398701 x 10" 2

6.525454 x 10”1

5.445382

92.60835

Differential temperatures are measured between two points through the use of multi- junction copper/constantan thermopiles. Through this technique, several thermocouples are electrically connected in series such

that the measured voltage is an integer multiple of the value that would

have been obtained if only one set of junctions were used. This higher

measured value is desired in order for the DAS to be operating in its

most accurate region. An actual temperature is also being measured at one end point in the differential thermopile. This actual temperature

serves as a reference and is coded (in the software) as being either

the normally high or normally low side of the differential measurement.

The actual differential temperature is calculated as follows.

1. T^ is calculated using equations (51) and (52) based on the

reference temperature millivolt, M

R

.

M (J)

2. M

2 is calculated using M2 = M^ +

v/here

(53)

M = measured millivolts for the differential temperature,

N = the number of junctions in the thermopile,

J = +1 if the reference is normally low,

-1 if the reference is normally high.

36
3. T is calculated using equations (51) and (52) and M2

.

4. The differential temperature, AT is then

AT = (T ( 54 ) R

- T) J.

6.5.7 Events (Type 10): EVENTS

Events are ON/OFF type measurements and are used as indicators for cer- tain engine parameters, system malfunctions, and other plant alarm conditions. There are six event indicators compressed into each DAS event

channel. The six events are electrically connected to an eight-bit

digital-to-analog converter (DAC) as shown logically in figure 10. The

output of the DAC would normally be 0 to 5 volts; however, note that

the two least significant inputs are electrically set to a logical 0

(off). Thus, the least significant (logically) event has a binary weight

of 4. Each step of the DAS output voltage will correspond to

yPO..

. (4) = 78.431 millivolts; and

256 - 1

if a DAC drift of no more than two logical input bits (39.216 millivolts

output) is assumed; then a number, 1, from 0 to 63 representing all of

the 64 input event combinations can be determined. This is accomplished

as follows:

I +

integer

part of

(55)

where

M = the measured analog millivolts for the event channel I,

forced by the software to be within the range of 0 to 63.

A simple binary decomposition is next performed on I such that the number

carried forward for subsequent use is an integer power of 10 with each

digit representing the status of a particular event. This number varies

from 0 to 111111 and is calculated as illustrated in Figure 11.

6.5.8 Voltage (Type 12): V0LTS1

A.C. voltage is measured through the use of potential transformers. The

output of the potential transformer is rectified such that a D.C. voltage is presented to the DAS. The equation which is used to reconstruct

the measured voltage is:

V = M(A)

(56)

37
SIX

ANALOG

VOLTAGE

TO

DAS

FIGURE 10. Logical Connection of event (on/off) measurements

38
ANSWER = O

C = 100,000

J = 32

ANSWER = ANSWER +

I = l-j

15

C = C/10

J= J/2

FIGURE 11. Logical diagram of the binary

decomposition of a number

representing six events

39
where

V = the AC voltage measured,

M = the millivolts as recorded by the DAS,

A = the channel calibration constant in volts AC per milli6.5.9 volt DC.

Frequency (Type 14): FREQHZ

The Total Energy Plant output frequency is measured at each scan time

by the use of a transducer connected to the main power bus. The characteristics of the frequency measurement system are such that the following equation is valid:

HZ = 59 + M(A), (57)

where

HZ = the system frequency in hertz,

M = the transducer output in millivolts,

A = the transducer calibration constant in HZ per millivolt.

6.5.10

Power Factor (Type 15): PWRFCT

Power factor (the ratio of the active power to the apparent power) is

being measured at the main plant bus. The conversion equation for the

power factor transducer is:

PF = (1000 - M) x 10“4

, (58)

where

PF = power factor (0 to 1),

M = measured millivolts.

6,5,11

Weather Station (Type 16): WEASTA

A weather station is installed at the Total Energy site and is instrumented to measure wind direction and velocity, direct and indirect solar

radiation, barometric pressure, relative humidity, ambient temperature,

and weather station electronics cabinet temperature. Since the weather

station instrumentation and associated calibration factors represent a special category which generally does not fit any other particular measurement conversion technique, all of the measurements are converted

within one subroutine. The linear equation used for the conversion from

DAS measured millivolts to the particular weather station measured parameter along with the calibration constant for each measurement is:

ANS - M(A) , (59)

40
where

ANS = the engineering unit answer as shown below,

M = the measured millivolts,

A = the particular parameter calibration constant as shown

below.

1. Direct Solar radiation:

ANS = calories per square centimeter per minute,

A = 1.329787 x 10 .

2. Indirect Solar radiation:

ANS = calories per square centimeter per minute,

A = 1.25 x 10 .

3. Wind direction:

ANS = compass heading in degrees (0 - 360°) , A = .1.

4. Wind Velocity:

ANS = miles per hour,

A = .01.

5. Barometric pressure:

ANS = inches of mercury,

A = .01.

6. Relative Humidity:

ANS = percent,

A = .01.

7. Temperature:

ANS = degrees Fahrenheit,

A = .01.

6.5.12 Deleted Measurements

Measurement types which were originally planned and have since been

deleted are handled the same as a Type 1 (non-existing measurements).

Currently, these are represented by Types 11 and 17.

6.6 SUBROUTINE CLASSIFICATION

All computer subroutines used in the TEREVIEW program can be classified

by the type of function they perform. These functions are input or output, bookkeeping, conversion, control, and support. Appendix IX contains

an alphabetical listing of each subroutine classified by type, along with

a brief description of what it does.

41
6.7 TEREVIEW COMMANDS

Once TEREVIEW has been placed in operation, all requests for an operator

command input will be solicited (by the program) with a question mark (?).

The operator then has the option of selecting any one of 39 commands to

be executed. A command is entered by the operator preceded by a line

feed and followed by a carriage return. All commands consist of two

alphanumeric characters followed by a variable length argument string.

Commands and arguments are separated by either a comma or a space (or

spaces). Two or more commas in a row are interpreted as containing

a zero between them. Arguments can either be entered as integer numbers

or as a one or two alphanumeric character name which has been previously

assigned a value. Appendix X contains a listing of all TEREVIEW commands.

6.8 ERROR PROCESSING

For the purposes of TEREVIEW, all errors have been classified into two

categories: those not requiring operator assistance and those that do.

Detected errors which do not require operator assistance are either

simple magnet ic-t ape-related mechanical or electronic errors which are logically correctable by the software (such as extra or missing characters, parity, intermittent record gaps, etc.), abnormalities that are

known before conversions take place (such as timing errors) for which

the operator has made provisions by the setting of appropriate flags,

and certain minor special EBCDIC character errors which are either not

used in the calculation of data or whose value is known. If an error

is detected which does not require operator interaction, it is corrected

by the software and, in most cases, an error message is output to the

operator; however, the overall program flow will continue normally.

If an error is detected and no software provision has been made to fix

it, an error message is provided to the operator followed by a question

mark (?). It is then left to the operator to provide the necessary

commands to either fix the error or delete the data.

In general, the error messages which are output by TEREVIEW have the

following format

** ERROR-NAME TYPE () "I" "J” "K" "L" ”M" " HHHH"

Where "HHHH" is normally the hexidecimal representation of ”M" and is

used in those few cases where bit value or position are required in

order to evaluate an error and determine its subsequent fix. "NAME"

indicates the subroutine which detected the error.

Appendix XI contains a list of TEREVIEW error messages.

6.9 OUTPUT DATA TAPE

The output data tape from TEREVIEW contains the following information

for each scan of data processed.

42
1. Label information including the data time.

2. A set of flag numbers, one flag per data point, which

indicate both the software and operator assessment

of quality of the respective data.

3. The input millivolt values, one value per DAS channel.

4. The converted engineering units.

The output data tape is utilized in the subsequent calculation of those

variables requiring two or more data points and is the primary data

set from which all further processing ultimately originates.

6. 10 ADDITIONAL DOCUMENTATION AND ORIGINAL DESIGN PHILOSOPHY

For the interested reader, reference [15] contains additional documentation of TEREVIEW, including a discussion of the original design philosophy. Certain major subroutines are discussed in detail with respect

to their original design, implementation, and interaction. It also

contains the original listings for many of the subroutine? which are given

in Appendix IX.

43
References

1. J.B. Coble & P.R.Achenbach, Site Analysis and Field Instrumentation

for an Apartment Application of a Total Energy Plant, National

Bureau of Standards, NBSIR 75-711.

2. Description of the Data Acquisition and Instrumentation Systems:

Jersey City Total Energy Project, HUD Utilities Demonstration Series,

Volume 9, NBSIR 79-1709.

3. Instruction Manual - Multi-Channel Data Acquisition System, Volumes

1 and 2, Document 1Q185A, July 20, 1973, Monitor Laboratories,

Incorporated.

4. Raytheon 704 Computer User's Manual, Rev. 1, August 1973. Raytheon

Data Systems, 1415 Boston-Providence Turnpike, Norwood, Massachusetts

02062.

5. File Control System (FCS) Specification, Rev. B, November 1973

Raytheon Data Systems, 1415 Boston-Providence Turnpike, Norwood,

Massachusetts 02062.

6. The International System of Units (SI), NBS Special Publication 330,

1977 Edition, U.S. Department of Commerce, National Bureau of

Standards, Washington, D.C. 20234

7. Handbook of Chemistry and Physics, 36th Edition, Chemical Rubber

Publishing Co., 2310 Superior Avenue, NE . , Cleveland, Ohio.

8. Flow calibration reports (for various venturis) tested at The Foxboro

Company Fluid Flow Laboratory, Foxboro, Massachusetts 02035.

9. Flow of Fluids through Valves, Fittings, and Pipe; Crane Technical

Paper No. 410, Crane Co., 4100 S. Kedzie Avenue, Chicago, 111.

60632

10. International Critical Tables of Numerical Data, Volume III.

11. A. A. Miller, "Free Volume" and the Viscosity of Liquid Water, The

Journal of Chemical Physics, Volume 38, Number 7, April 1, 1963,

page 1568.

12. Installation and Operation Manual, Omniflow Turbine Flowmeter Model

FTM, Manual FTM-751 Flow Technology, Inc., 4250 E. Broadway Road,

Phoenix, Arizona 85040.

13. Turbine Meter Calibration Data 'Sheets and Curves, ITT Barton.

44
14. R.P. Benedict, Generating Thermocouple Reference Tables - new equation to meet standards, Westinghouse Instruments and Control

Systems, January 1974.

15. Richard H.F. Jackson, An Expandable Total Energy Data Editor,

National Bureau of Standards, NBSIR 75-735, June 1977.

45
'

APPENDICES

46
I. TYPICAL MAGNETIC TAPE SCAN - CHARACTER BY CHARACTER

14309300 1977 143093000200 V+0 1 022500300 V+ 15664500400 V+06 1995

00500 V+0 6062500 600 V+0 1 505500700 V+03 42 1 5 00 800 V+029 9 6500900V -00 1315

00201 V+0003350030 1 V+0 84 65 50040 1 V+02 2 63 500 50 1V+02260500601V+021555

00 701 V+02 18550080 1V+02 14950090 1 V+086 1 7500202V+07 66 1500302 V+l 13 665

00402 V+006 1 6500502 V-0000 1 500602 V+00 159500 702V-00356500802 V+002435

00902V+09400500203V+091 47500303 V+05 730500403 V +04400500503 V-000005

00 603 V+05 579500 703V+0 20 62500803 V+0331 4500903 V+021 13500204 V+028895

00304 V-0041 2500404 V-00733500504 V+03053500 604 V+01 635500704 V +034305

00804 V+0 3 68 5500904 V+000 9 1 500205 V +004 2 4 500305 V +020 97 5004 05 V+03 668

00505 V+ 111 68500 60 5 V+0 38 8 6 500 70 5 V +0 5 3 4 1 5 00 80 5 V +0 3 2 9 5 50 0 90 5 V +0 3 2 2 95

00206 V +0292 6 500 30 6 V+0 28 08 50040 6 V+0 4 7 68 500 506V +0 63 38500 606 V +04 7 4 65

00 70 6 V +0402 5 500 80 6 V+044 3 2 500 90 6 V+02 2 5 4500 207 V +0233 8 500 30 7 V+0 2 27 3 5

0040 7V+00 141 50050 7V+00001 500607 V+03902500707 V+03952500807 V+029 125

0090 7V+06 19 7500208 V+0 5 754500308 V+02 75 7500408V+04097 500508 V+0000 15

00608 V+0 591 1 500708 V+0 6 1 41 500808V+0587350090SV+07307500209V+07 1 135

00309 V-00268500409V+0 1277500509 V+0000 1 500609V+00440500709 V-000075

00809 V-00020500909V+005895002 10 V+0 1 3 1 55003 10 V+02 6335004 10 V+004 7 65

0 0 5 1 0 V - 1 5 0 7 5 500 6 1 0 V +0 3 8 0 1 500 7 1 0 V +0 l 3 2 0 5 0 0 8 1 0 V +0 04 5 4 5 0 0 9 10 V + 0 3 9 2 9 5

0021 1 V+0365 350031

00 7 1 1 V +038825008 1 0041 2 V+008285005

009 12 V+0004 150021

0061 3 V -0000 6500 7

Oil V +0205950 1

016 V+058 1 650 1

021 V+0 5 58 65022

026 V +065725027

031 V +009455032

036 V+00 524503

041 V+0 13285042

046 V+0 12845047

051 M +038842052

05 6 M+04039205 7

061 M+00 53 62062

066 M+0 12062067

071 M+0 1 2202072

076 M+014372077

081 M+040832082

086 M-00 1532087

091 M+02 1262092

096 M-006632097

101 M+0 13702 102

106 M-001 102107

111 V+0005 15112

116 V +040055 1 1

121 V +028655 122

126 V+028625 127

131 V +028605 1 32

136 V +028585 137

141 V +09 380 5 142

346 V+0 30985147

151 V +024735 1 52

156 V+0 24 7 35 157

161 V +0000461 62

166 V »000006 167

171 V -000043 172

176 V+0 6 6224 177

1 V+00 9 695004 11

1 V+038275009 1

2V- 1 5071500612

3 V+00 1095003 13

3 V -00008 5008 1

V+0 660 150 13

V+0 545950 18

V+0585 l 5023

V+020465028

V+029265033

V+02871 5038

V- 000 185043

V+0 13455048

M+040552053

M+0 3900 20 58

M+0 03 62 20 63

M+0 12072068

M-00 15620 73

M+0 14902078

M+03060 2083

M+024 162088

M-000 132093

M+0 56032098

M+00 7462 103

M+023582108

V+0041 151 13

V+006525 118

V+028655 1 23

V+0286251 28

V+028605 1 33

V+0 28 58 5 138

V+075785143

V+0253551 48

V+024 735 1 53

V+024 745158

V+0000061 63

V-0000061 68

V+ 1 5 64741 73

V+0 30 32 51 7800

V+0 154550051

V+0004 150021

V-0000 650071

V-QGO U 50041

V-0003 150091

v+0 is 1050 14

V+0287250 1

V+Q383 15024

V+042755029

V+0 10 165034

V+030225039

V+023485044

V+00 7035049

M+038522054

M+040232059

M+004602064

M+0 121 22069

M+035 742074

M+0 13072079

M+ 180292084

M+002682089

M+000852094

M+0 1 7692099

M+ 128932 104

M+00 03 42 109

V+0000051 14

V+03 1165119

V+028645 1 24

V+028625 129

V+028605 134

V+028585 139

V+058805 144

V+024845 149

V+024735 1 54

V+024745 159

V+004726 1 64

V-0000 161 69

V+0 37085174

V+024805

IV- 15073 30061

8V+004605003

2 V +038675008

3V-0000 150051

3 V+0004 150 10

V +0356250 1

V +048035020

V+0424 15025

V +026505030

V+0055 15035

V+01 1545040

V-000445045

V-000245050

M+Q4 1592055

M+038912060

M+0052620 65

M+0 121 12070

M+0 14542075

M+0 13262080

M+0 3 1232085

M+0 16732090

M+0 13452095

M +004 90 2 100

M+0 1 7 522 105

M-GG00121 10

V+01 1335115

V+028655 120

V+028635 125

V+0286 1 5 1 30

V+028595 135

V+028585 140

V+045555 145

V+024745 150

V+024745 155

V+024745 160

V+0000061 65

V-0000061 70

V+07 1624175

1 V+0382 I 5

2 V-000 1 15

2 V+03 8 1 15

3 V- 1507 05

V+07 5445

V+0 64545

V+07 28 5

V+043075

V+0 35365

V+029695

V+029485

V+03 1965

M+038932

M+043962

M+038942

M+00 6922

M+0 137 12

M+0 145 12

M+077622

M+l 17202

M-G02602

M+082292

M-034922

M+02 6042

V+043405

V+0424 65

V+028665

V+028635

V+028605

V+028595

V+043385

V+035455

V+024735

V+024745

V+004966

V-0000 16

V - 0 0 0 0 4 3

V+0 68404

47
II. INSTRUMENTATION LOCATIONS AND RAW DATA CODES

National Bureau of Standards

Jersey City Total Energy System

Data Acquisition List

Revision 9/19/77

DAS MBS

CHANNEL CODE Identification

SPECIAL CATEGORY

HEADING 100 7 characters in the heading of each

scan contain clock data: date (1-365)

and time (0-24 hours plus minutes)

172 102 Time generated by plant

173 110 Eng. run time EG 1

174 111 Eng. run time EG 2

177 130 Power factor on CEB bus

178 141 Frequency of total plant output

WEATHER STATION - Remote 005

005-00 148 Direct solar radiation

005-01 - 149 Indirect solar radiation

©08-08 150 Wind Direction

008-09 151 Wind velocity

005-04 200 Outdoor baro. pressure

005-05 710 Outdoor temperature

005-06 712 Outdoor humidity

005-07 714 Data cabinet ambient temperature

Normal Physical Range

DAS mV in parentheses

5 minutes (2.82V/5 min)

5 minutes (2. 80V/5 min)

when engine is on

.5 lag - 1.0 (+5.0V - 0.0V)

59-61 Hz (0-5. 0V)

Clear Sky (7.5V)

Bright Sky (1.6V)

0-360 deg (0-3. 6V)

0-120 MPH (0-12V)

27-31 inches Hg (2.7 - 3.1V)

-20° to 120°F (-2.0 to

12.0V DC)

0 to 100% (0 to 10V DC)

48
DAS

CHANNEL

NBS

CODE Identification

Normal Physical Range

DAS mV in parentheses

PRESSURE CATEGORY (// * s 200 to 299)

010 202 CEB primary hot water system

pressure, at pump outlet

0 to 100 psi transducer range (2-10V DC)

.

Oil 220 Lub. oil pressure EG-1 Normal Values: 202-55

012 221 Lub. oil pressure EG-2 psi (6.4V) 220,

221-50 psi (6.0V) when

engine is on.

013 230 Exhaust gas back pressure EG-1 Transducer range 0-30

014 231 Exhaust gas back pressure EG-2 inches water (2-10V DC)

Normal 20 in. (7.0V)

when engine is on.

FLOW CATEGORY (#» s 300 to 399

All flows determined by Venturi and delta pressure

transducer unless a turbine meter is specified. Delta

pressure cells have 0 to 150" H2O range (2-10V DC).

015 301 Primary water flow to all engines 11,300 lb /min (6.1V)

016 302 Primary water flow from engine 1

jacket

2,200 lb /min (5.0V)

017 303 Primary water flow from eng. 2 jacket 2,300 lb/min (5.2V)

018 304 Primary water flow from Chiller #1 7,500 lb/min (5.1V)

019 305 SHW return from HSP East (Shelley A,

Shelley B, School, Pool)

8,700 lb/min (6.3V)

020 306 SHW supply to HSP West (Business,

Camci, Descon)

7,000 lb/min (8.2V)

021 307 Condenser water flow inlet to

Chiller CH 1

14,000 lb/min (4.5V)

022 308 Condenser water inlet to Chiller #2 17,000 lb/min (5.9V)

023 309 Total condenser water makeup

024 310 Total chilled water flow to both

chillers

20,000 lb/min (5.5V)

025 311 Chilled water from chiller #1 10,000 lb/min (6.4V)

330 312 . Chilled water or HWR ret. from

plant fan coil units FC-1 thru 5

(Turbine)

49
DAS

CHANNEL

NBS

CODE Identification

Normal

DAS mV

Physical Range

in parentheses

027 313 Chilled water return from main 900 Ib/min (4.1V)

CEB air inlet coil CC-1

028 314 Chilled water from HSP East zone 9,000 lb/min (5.5V)

029 315 Chilled water from HSP West zone 9,000 Ib/min (3.2V)

026 316 Total raw water from all engines 3,200 lb/min (8.8V)

FUEL CONSUMPTION - DIRECT TURBINE MEASUREMENT

140 360 Engine 1 0-.6 GPM

141 361 Engine 2 0-.6 GPM

142 362 Engine 3 0-.6 GPM

143 363 Engine 4 0-.6 GPM

144 364 Engine 5 0-.6 GPM

145 365 Boiler 1 0-1.5 GPM

146 366 Boiler 2 0-1.5 GPM

147 367 Spare 0-10.24 VDC

50
DAS NBS

CHANNEL CODE Identification

Normal Physical Range

DAS mV in parentheses

SITE BUILDING FLOW

Flow by venturi and delta pressure

transducer unless a turbine is specified.

All delta pressure cells range 0 to 150 inches

water (2-10V DC)

.

CEB Secondary Hot Water to Buildings

007-01 327 Shelley A Total Building Return

006-01 328 Shelley B Heating Return

003-01 330 School Heating Hot Water Return

004-01 331 Business Building Total Building Return

002-01 332 Pool Domestic Hot Water Exchanger Supply

009-01 333 Descon Concordia Heating Hot Water in

Winter, Chilled Water in Summer

008-01 334 Camci Total Building Supply

CEB Chilled Water To Each Building

007-03 336 Shelley A Return

006-03 337 Shelley B Return

003-03 339 School Return

004-03 340 Business Building Return

008-03 343 Camci Supply

CEB SHW To Building Domestic Heat Exchanger

007-05 345 Shelley A Supply

006-05 346 Shelley B Return

003-05 348 School Return (turbine)

004-05 349 Business Building Return (turbine meter)

009-03 351 Descon Return

008-05 353 Camci Supply

51
DAS NBS Normal Physical Range

CHANNEL CODE Identification DAS mV in parentheses

ELECTRICAL SIGNALS

Voltage (#'

s

400 to 499)

160 400 CEB main bus line voltage, 0A-B 480V AC (12.0V DC)

163 410 PSE&G feeder in CEB, utility side 480V AC (12.0V DC)

007-08 416 Shelley A PN5 voltage 480V AC (6.0V DC)

006-08 420 Shelley B PN4 voltage 120V AC (6.0V DC)

003-08 424 School PN3 voltage 277V AC (2.77V DC)

009-07 426 Descon-Concordia PN2 A3 480V AC (6.0V DC)

009-08 428 Descon-Concordia PN2 Al,2 120V AC (6.0V DC)

008-08 430 Camci PN1 voltage 480V AC (6.0V DC)

004-08 432 Business Bldg. PN1 voltage 277V AC (6.0V DC)

Integrated Power (#'s 500 to 549)

110 501 Total plant production 600-1200 KW

ill 502 GEN #1 Production 200-350 KW

112 503 GEN #2 Production 200-350 KW

113 509 PTC Compactor Load

114 510 LP-1 12-16 KW

115 511 MCC-1 100-140 KW

116 512 MCC-2 35-45 KW

117 513 MCC-3 150 KW summer

118 514 PTC

007-07 515 Shelley A PE2 30-40 KW

007-06 516 Shelley A PN5 180-350 KW

006-07 519 Shelley B PE2 10-20 KW

006-06 520 Shelley B PN4 40-110 KW

002-04 522 Pool PN3

003-07 523 School PE3

003-06 524 School PN3

009-04 526 Descon-Concordia PN2, A3 40-100 KW

009-05 527 Descon-Concordia PEI, A3 40-45 KW

009-06 528 Descon-Concordia PN2, Al,2 50-150 KW

008-07 529 Camci PEI 30-40 KW

008-06 530 , Camci PN1 100-200 KW

004-07 531 Business Bldg. PEI

004-06 532 Business Bldg. PN1

52
DAS NBS

CHANNEL CODE Identification

Normal Physical Range

DAS mV in parentheses

Instantaneous Power

DC voltage proportional to KW (0-10V DC)

041 550 Total Plant Production 700-1200 KW

042 551 Generator //I 200-350 KW

043 552 Generator //2 200-350 KW

044 553 PTC Compactor

045 554 LP-1 18-21 KW

046 555 MCC-1 125 KW

047 556 MCC-2 38 KW

048 557 MCC-3 150 KW summer

049 558 PTC

TEMPERATURE CATEGORY (ff ’s 600 to 799 )

Actual temperature signals originate from a single

thermocouple junction, delta (DT) measurements from

a pair of multi-junction piles. Signal levels are -10 to 4-10 mV. All are type T copper -constantan

unless otherwise noted.

050 600

A,B,C

(Actual) PHW temp, to all engines 175-195°F

086 601 (DT) PHW between engine 1 jacket

water inlet & outlet (600C & 603)

3-6°F ON

-1 OFF

087 602 (DT) PHW between engine 2 jacket

water inlet & outlet (600B & 604)

3-6°F ON

-1° OFF

051 603 (Actual) PHW outlet from EG-1

jacket

Inlet plus 3-6°F

052 604 (Actual) PHW outlet from EG-2

jacket

Inlet plus 3-6°F

089 605 (DT) PHW supply and return all

engines (600A)

3.5-6.0°F

080 612 . (Actual) exhaust gas temp, in

boiler 1 stack, iron constantan

300-460°F ON

160°F OFF

081 613 (Actual) exhaust gas temp, in

boiler 2 stack, iron constantan

300-460°F ON

160°F OFF

090 614 (DT) PHW across EG-1 jacket plus

M-l (600A)

4.5-7. 0 ON

091 615 (DT) PHW across EG-2 jacket plus

M-2 (600C)

4. 5- 7.0 ON

53
054

055

092

056

057

093

094

058

095

096

059

097

060

098

099

100

101

102

NBS

CODE

616

617

627

A,B,C

628

629

630

631

632

633

634

635

636

637

640

641

642

647

A,B

659

660

Identification

Normal Physical Range

DAS mV in parentheses

(Actual) PHW outlet from M-l

(Actual) PHW outlet from M-2

195-215°F

195-215°F

(Actual) PHW outlet of both boilers, 195-225°F

inlet to the chillers.

(DT) PHW across B-2 inlet & outlet

(627C)

(Actual) PHW inlet to HX-1, 1-A,

outlet of chillers

(Actual) PHW inlet to DCJW, outlet

of HX-1, 1A

(DT) in PHW main line caused by

DCJW (630)

(DT) PHW across inlet & outlet of

HX-1, 1A (629&630)

(Actual) PHW inlet to boilers

(DT) PHW across inlet & outlet,

CH-1 (627B)

-1 to 14°F

170-195°F

165-195°F

. 3-1 . 0°F

10-18 °F winter

170-195°F

8-20°F

(Actual) PHW outlet of DCJW 170-185°F

(uses well 631)

(DT) PHW across inlet & outlet of 5-15°F

both boilers (633 & 627A)

(Actual) mixed outlet of both SHW 175-190°F

heat exchangers, SHW to site.

(DT) across East site SHW supply & 7-15°F winter

return (640)

(DT) across west site SHW supply & 12-21°F winter

return (640)

(DT) CHW or HW across CEB office fan

coil supply & return

(DT) across East site CHW supply and 1-5°F

return

(DT) across West site CHW supply and 1-5°F

return

54
DAS NBS Normal Physical Range

CHANNEL CODE Identification DAS mV in Parentheses

061 661 (Actual) CHW outlet CH-1 42-50°F

062 662 (Actual) CHW outlet CH-2 42-50°F

063 663 (Actual) temp, chilled water to 42-50°F

A, B site West zone

103 664 (DT) across CC-1 supply & return

A,B

064 665 (Actual) CHW to inlet of both

chillers.

45-55°F

065 671 (Actual) condenser water makeup 65-75°F

066 672 (Actual) condenser water inlet to

CH-2

75-85°F

067 673 (Actual) condenser water inlet to 75-85°F

CH-1

104 674 (DT) condenser water temp between

inlet & outlet CH-1 (673)

2~12°F

105 675 (DT) condenser water temp, between

inlet & outlet CH-2 (672)

2-12°F

068 690 (Actual) raw water inlet to all 70-85°F

A,B engines

069 691 (Actual) raw water supply manifold

after E-l outlet, before E-2 inlet.

70-85°F

106 692 (DT) between inlet and outlet of

raw water pumps. (693A)

2°F

070 693 (Actual) raw water temp, downstream 75-85°F

A,B,C of all engines—total engine outlet

088 694 (DT) RW across HWPS and HC-1 plus

RHC-1 thru 3 (693B)

. 2°F

107 695 (DT) RW between total engine outlet

and DCRW outlet (693C) 6-8°F

071 696 (Actual) Raw water supply manifold

after E-2 outlet, before E-3 inlet.

70-80°F

072 . 700 (Actual) lub. oil sump Eng. 1 120°F OFF, 180°F ON

073 701 (Actual) lub. oil sump Eng. 2 120°F OFF, 180°F ON

55
DAS

CHANNEL

NBS

CODE Identification

Normal Physical Range

DAS mV in Parentheses

108 702 (DT) RW across HX-3 (690A)

109 703 (DT) on RW supply manifold across

E-l (691 & 690B)

1 . 5°F ON

074 711 (Actual) engine room air temp, db 75-85°F

075 713 (Actual) engine room air temp, wb 60-75 c F

076 730 (Actual) fuel oil supply to all

engines

84-93°F

077 731 (Actual) fuel oil return from all

engines

85-94°F

078 732 (Actual) fuel oil supply to boilers 70~81°F

079 733 (Actual) fuel oil return from

boilers

71-82°F

082 750 (Actual) temp, of exhaust gas

entering M-l, iron constantan

480-600°F ON

130°F OFF

083 751 (Actual) temp, of exhaust gas

entering M-2, iron constantan

480-600°F ON

130°F OFF

084 752 (Actual) temp, of exhaust gas

leaving M-l, iron constantan

400-500 ON

130°F OFF

085 753 (Actual) temp, of exhaust gas

leaving M-2, iron constantan

WATER TEMPERATURES AT SITE BUILDINGS

(Actual) Chilled Water To Individual

400-500°F ON

Buildings

006-09 643 Shelley B (well 650A) 42-50°F for all

007-10 644 Shelley A (well 648A) buildings

008-10 645 Camci (well 654A)

009-09 646 (Actual) Hot or chilled water for

heating or cooling (well 626A)

003-09 624 School

004-10 625 Business Building

56
DAS NBS Normal Physical Range

CHANNEL CODE Identification DAS mV in Parentheses

(DT) Chilled Water Between Building Supply And Return

Well A is Supply, B Return

007-02 648 Shelley A

006-02 650 Shelley B

003-02 651 School

009-00 626 Descon Heating and Cooling

008-02 654 Camci

004-02 655 Business Building

002-08 760

(Actual) CEB SHW To Buildings

Pool domestic 170-190°F for all

003-10 761 School heating supply buildings

004-11 762 Business Bldg. Total Bldg, supply

006-10 763 Shelley B Total Supply

007-11 764 Shelley A Total bldg, supply

008-11 765

(uses well 768)

Camci Total bldg supply (uses well 774)

007-00 768

(DT) Between HW5 and HWR

Shelley A total building

006-00 770 Shelley B total building

003-00 771 School heating 1 002-00 772 Pool domestic

008-00 774 Camci total bldg.

004-00 775 Business bldg, total bldg.

(Actual) HW Temperature Inlet To Domestic Heat Exchanger

003-11 781 School 170-190°F for ail

004-12 782 Business bldg. buildings

006-11 783 Shelley B

l 007-12 784 Shelley A 1 008-12 785 Camci

009-10 786 Descon-Concord ia i

(DT) Hot Water Inlet and Outlet of Domestic Heat Exchanger

007-04 788 Shelley A

006-04 790 Shelley B

003-04 791 School

009-02 793 Descon-Concord ia

008-04 794 Camci

004-04 795 Business bldg.

|

57
DAS

CHANNEL

NBS

CODE Identification

Normal

DAS mV

Physical Range

in Parentheses

ALARMS AND INDICATORS (//’ s 800 to 899)

Engines

127 800 Engine low oil pressure, malfunction Engine 1 -(2.58V)

801 Engine high water temperature,

malfunction

(1.29V)

802 Engine high oil temperature, malfunction (.65V)

803 Engine overspeed (110%) (.32V)

804 Engine underspeed (90%) ( . 16V)

805 Engine excessive vibration malfunction ( . 08V)

120 806 Engine high oil coolant temperature Engine 1 -(2.58V)

807 Circuit breaker trip (1.29V)

808 Engine excessive start time (.65V)

809 Generator overload ( .32V)

810 Failure to parallel ( .16V)

811 Reverse power protection ( .08V)

121 815 to

820 (Same as 800 to 805) Engine 2

122 821 to

826 (Same as 806 to 811) Engine 2

123 830 to

835

(Same as 800 to 805) Engine 3

124 836 to

841

(Same as 806 to 811) Engine 3

125 845 to

850

(Same as 800 to 805) Engine 4

126 851 to

856

(Same as 806 to 811) Engine 4

128 860 to

865

(Same as 800 to 805) Engine 5

129 866 to

871

(Same as 806 to 811) Engine 5

58
LOC

1 0 10

1 on

1012

1 013

1 014

1 015

1016

1 016

1 019

1 020

1 021

1 022

1 023

l 025

1 026

1 027

1 026

1 030

1 031

1 032

1 033

1 034

1 035

1 036

1 037

1 038

1 039

1 040

I 041

1 042

1 043

1 044

1 045

1 046

1 04 7

1 046

1 049

1 050

1 051

1 052

1 053

1 054

1 055

1 056

1 059

1 060

I 061

1 062

l 063

1 064

1 065

1 066

III. DERIVED VARIABLE DEFINITIONS AND CODES

T ITLE UNITS

TIME GAIN OF SITE CLOCKS

EG1 RUN TIME

EG2 RUN TIME

INST POWER - ALL EG

INST POWER - EG1

INST POWER - EG2

INST POWER - EG3-

INST POWER USED - PTC COMP

INST POWER USED - LP

INST POWER USED - MCC1

INST POWER USED - MCC2

INST POWER USED - MCC3

INST POWER USED - PTC EXH

TOTAL POWER PROD BY ALL EG

TOTAL POWER PROD BY EG1

TOTAL POWER PROD BY EG2

TOTAL POWER PROD BY EG3-5

TOTAL POWER USED BY PTC COMP

TOTAL POWER USED BY LPi

TOTAL POWER USED BY MCC1

TOTAL POWER USED BY MCC2

TOTAL POWER USED BY MCC3

TOTAL POWER USED BY PTC EXH

POWER USED BY SHELLEY A , PE2

POWER USED BY SHELLEY A # PN5

TOTAL POWER USED BY SHELLEY A

POWER USED BY SHELLEY B # PE2

POWER USED BY SHELLEY B # PN4

TOTAL POWER USED BY SHELLEY B

TOTAL POWER USED BY POOL # PN3

POWER USED BY SCHOOL # PE2

POWER USED BY SCHOOL # PN3

TOTAL POWER USED BY SCHOOL

POWER USED BY DESCON EAST * PN2

POWER USED BY DESCON EAST # PEI

TOTAL POWER USED BY DESCON EAST

TOTAL POWER USED BY DESCON WEST

TOTAL POWER USED BY DESCON

POWER USED BY CAMCI # PEI

POWER USED BY CAMCI * PN

TOTAL POWER USED BY CAMCI

POWER USED BY COM. BLDG # PEI

POWER USED BY COM. BLDG * PN1

TOTAL POWER USED BY COM. BLDG

TOTAL POWER USED BY CEB

POWER USED BY SHWP

POWER ASSIGNED TO BOILERS

POWER ASSIGNED TO CHILLERS

POWER ASSIGNED TO ELECT PROD

POWER ASSIGNED TO AIR & HEAT

TOTAL POWER USED BY PTC

TOTAL POWER USED BY SITE

MINUTES PER HOUR

MINUTES PER HOUR

MINUTES PER HOUR

INSTANT. KILOWATT HOURS

INSTANT. KILOWATT H0UR5

INSTANT. KILOWATT HOURS

INSTANT. KILOWAT

HOuttS

INSTANT. KILOWATT HOURS

INSTANT. KILOWATT HOURS

INSTANT. KILOWATT HOURS

INSTANT. KILOWATT HOURS

INSTANT. KILOWATT HOURS

INSTANT. KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

59
LOG

I 0 67

1 0 73

I 0 74

! 0 75

1 076

I 0 77

! 078

I 0 79

1 080

1 081

I 082

! 08 7

1 088

i 089

1 090

1 091

1 092

I 093

I 100

1 101

1 102

1 103

1 104

I 105

1 106

I 107

I 108

I 109

I 110

1111

I 118

I 113

I 1 14

1 1 15

I 116

ill?

1 118

l I 19

1 120

1 121

I 122

i 123

1 124

I 125

1 126

I 121

l 128

1 129

I 130

I 131

I 132

1 133

TITLE UNITS

TOTAL NET POWER USED

TOTAL POWER USED BY PEI

TOTAL POWER USED BY PE2

TOTAL POWER USED BY ESS BUSS

TOTAL POWER USED BY PN 1 TOTAL POWER USED BY PN 2

TOTAL POWER USED BY PN3

TOTAL POWER USED BY PN4

TOTAL POWER USED BY PN

5

TOTAL POWER USED BY NORM. BUSS

POWER USED BY NOR & ESS BUSS

HEAT ADDED BY CHI TO COND H20

HEAT ADDED BY CHS TO COND H20

TOTAL HEAT ADDED TO COND H20

COND H20 HEAT REMOVED BY TOWERS

COND H20 HEAT REMOVED BY MAKEUP

COND H20 HEAT REMOVED BY RAW

HEAT REMOVED FROM COND H20

PHW HEAT ADDED BY EG! MUF CD

PHW HEAT ADDED BY EG 1 MUF C2>

PHW HEAT ADDED BY E61 MUF C3)

PHW HEAT ADDED BY EG2 MUF C I ) PHW HEAT ADDED BY EG2 MUF C2)

PHW HEAT ADDED BY EG2 MUF C3>

PHW HEAT ADDED BY EG 1 JAC CD

PHW HEAT ADDED BY EG 1 PHW HEAT ADDED BY EG1

PHW HEAT ADDED BY EG2 JAC

PHW HEAT ADDED BY EG2 JAC

PHW HEAT ADDED BY EG2

HEAT ADDED BY EG! TO

HEAT ADDED BY EG1 TO

HEAT ADDED BY EG1 TO

HEAT ADDED BY EG2 TO

HEAT ADDED BY EG2 TO

HEAT ADDED BY EG2 TO

HEAT ADDED BY EG3-5 TO PHW Cl)

HEAT ADDED BY EG3-5 TO PHW C2>

HEAT ADDED BY EG3-5 TO PHW C3>

HEAT ADDED BY ALL EG TO PHW

HEAT ADDED BY Bi TO PHW Cl)

HEAT ADDED BY Bl TO

HEAT ADDED BY Bl TO

HEAT ADDED BY Bl TO

HEAT ADDED BY B2 TO

PHW HEAT ADDED BY BOILERS Cl)

PHW HEAT ADDED BY BOILERS <2)

PHW HEAT ADDED BY BOILERS C3)

HEAT REMOVED BY CHI TO PHW

HEAT REMOVED BY CHS TO PHW

HEAT REMOVED BY CHILLERS TO PHW

HEAT REMOVED BY PR!/ SEC HX C 1 )

JAC

JAC

JAC

PHW

PHW

PHW

PHW

PHW

PHW

C 2 )

C 3 )

C 1 )

C 2 )

C 3 )

C 1 ) C 2 ) C 3 )

C 1 ) C 2 ) C 3 )

PHW C 2 ) PHW < 3 ) PHW C4>

PHW

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILOWATT HOURS

KILO B® T ® U® PER

KILO B® T ® u® PER

KILO B® T® u. PER

KILO B* I® u. PER

KILO 8® I ® u. PER

KILO B® T, u® PER

KILO B® 1® u ® PER

KILO 8® I® u® PER

KILO B® T* u® PER

KILO B. T. u® PER

KILO B® T® u® PER

KILO B. T® u® PER

KILO B® T® u® PER

KILO B® T • u. PER

KILO B® I® u® PER

KILO B® T ® u. PER

KILO B® I • u. PER

KILO B* T. u* PER

KILO B® I * u® PER

KILO B® T® u. PER

KILO B® T® u. PER

KILO B® T ® u® PER

KILO B® T® u® PER

KILO B® T. u® PER

KILO B® I. u® PER

KILO B® T u® PER

KILO B® T • u. PER

KILO B® T® u. PER

KILO B® T® u® PER

KILO B® T® u® PER

KILO B® T® u. PER

KILO B® T • u. PER

KILO B® I ® u. PER

KILO B® I • u® PER

KILO B® T

u® PER

KILO B® T • u. PER

KILO B® T • u® PER

KILO B® T ® u® PER

KILO B® I ® u. PER

KILO B® T ® u« PER

KILO B® T® u® PER

HC1UK

HLUR

HOUR

HOUR

HLUR

HLUR

HOUR

HOUR

HOUR

HKUR

HOUR

HOUR

HOUR

HOUR

HOUR

HOUR

HOUR

HKUR

HOUR

HOUR

HfTUR

HOUR

HOUR

HOUR

HKUR

HLUR

HLUR

HOUR

HOUR

HOUR

HLUR

HLUR

HOUR

HC1UR

HKUR

HOUR

HOUR

HOUR

HOUR

HOUR

HOUR

60
LOG TITLE UNITS

1 1 34 HEAT REMOVED BY PRI/SEC HX (2) KILO B T • u. PER HOUR

1 135 HEAT REMOVED BY PRI/SEC HX (3) KILO b T .u. PER HOUR

I 136 HEAT REMOVED BY DRY COOL (1) KILO B r ® u • PER HOUR

1 1 37 HEAT REMOVED BY DRY COOL (2) KILO B r • u. PER HOUR

1 1 38 HEAT REMOVED BY DRY COOL (3) KILO B T . u. PER HOUR

l 1 39 HEAT REMOVED BY EMER HX KILO B T .u. PER HOUR

1 140 HEAT ADDED BY PHWP KILO B T • u. PER HOUR

1 141 TOTAL HEAT ADDED TO PHW (1) KILO B T • u. PER HOUR

1 142 TOTAL HEAT ADDED TO PHW (2) KILO B T • u. PER HOUR

1 143 TOTAL HEAT ADDED TO PHW (3) KILO B T • u. PER HOUR

1 144 HEAT REMOVED FROM PHW <1) KILO B T .u. PER HOUR

1 145 HEAT REMOVED FROM PHW (2) KILO B T .u. PER HOUR

1 146 HEAT REMOVED FROM PHW (3) KILO B T • u. PER HOUR

1 147 HEAT LOSSES TO PHW ( 1

KILO B T • u. PER HOUR

1 148 HEAT LOSSES TO PHW (2) KILO B T • u* PER HOUR

1 149 HEAT LOSSES TO PHW <35 KILO B r • u. PER HOUR

1 155 HEAT REMOVED BY SEC HX KILO 3 T • u. PER HOUR

1 1 56 HEAT REMOVED BY CC 1 IN SHW KILO B T • u. PER HOUR

1 157 HEAT REMOVED BY FC IN SHW KILO B T ®u. PER HOUR

1 158 HEAT REMOVED BY WEST ZONE SHW KILO B T .u® PER HOUn

1 159 HEAT REMOVED BY SITE E SHW KILO B r . u. PER HOUR

1 1 60 HEAT REMOVED BY EAST ZONE SHW KILO B r • u. PER HLUR

1 161 HEAT LOSSES THRU PRI/SEC HX Cl) KILO B T « u

PER HOUR

1 1 82 HEAT LOSSES THRU PRI/SEC HX C2) KILO B r • u • PER HOUn

1 1 63 HEAT LOSSES THRU PRI/SEC HX <3) KILO b T « u ® PER HOUR

1 1 70 sew HEAT REMOVED BY CHI KILO B T c U ® PEr HOUR

1 1 71 sew HEAT REMOVED BY CH2 KILO B f ® u® PER HOUR

1 1 72 sew HEAT REMOVED BY CHILLERS KILO B r . u. PER HOUR

1 1 73 HEAT REMOVED BY CC 1 IN SCW KILO B T . u. PER HOUR

1 1 74 HEAT REMOVED BY FC IN SCW KILO B T ®u. PER HOUR

1 1 75 sew HEAT REMOVED BY W ZONE (1) KILO B T ®u. PER HOUR

1 1 76 sew HEAT REMOVED BY W ZONE (2) KILO B r • u. PEr HOUR

i l 11 sew HEAT REMOVED BY W ZONE C3> KILO B T • u. PER HOUR

i 1 78 sew HEAT REMOVED BY SITE E KILO B T . u. PER H< UR

i 1 79 sew HEAT REMOVED BY EAST ZONE KILO B T • u. PER HOUR

i 180 HEAT REMOVED FROM SCW (1) KILO B T • u. PER HOUR

i 181 HEAT REMOVED FROM SCW C2> KILO B T • u. PER HOUR

i 182 HEAT REMOVED FROM SCW (3) KILO B T *u. PER HOUR

1 183 sew HEAT LOSSES < 1 ) KILO B T • u. PER HOUR

l 184 sew HEAT LOSSES C2> KILO B f • u. PER HOUR

i 185 sew HEAT LOSSES (3) KILO B r ®u. PER HOUR

i 191 RAW H20 HEAT ADDED BY EG1 Cl> KILO B T • u. PER HOUR

i 1 92 RAW H20 HEAT ADDED BY EG1 C2> KILO B r • u. PER HOUR

i 193 RAW H20 HEAT ADDED BY EG1 C3> KILO B T • u. PER HOUR

l l 94 HEAT ADDED BY EG2 TO RAW H20 KILO B r ®u. PER HOUR

i 1 95 HEAT ADDED BY EG3-5 TO RAW H20 KILO B T • u. PER HOUR

1 1 96 HEAT ADDED BY ALL EG RAW C 1

KILO B T • u. PER HOUR

! 1 97 HEAT ADDED BY ALL EG RAW (2) KILO B T • u. PER HOUR

1 1 98 HEAT ADDED BY ALL EG RAW (3) KILO B T .u. PER HOUR

i 1 99 HEAT ADDED BY ALL EG RAW (4) KILO B T • u. PER HOUR

1 200 HEAT ADDED BY HX 3 TO RAW H20 KILO B T • u. PER HOUR

1 201 HEAT ADDED BY HX 4 TO RAW H20 KILO B T • u. PER HOUR

61
LOC

1 202

1 203

1 204

1 205

1 206

l 207

l 208

1 209

1210

1 211

1 212

I 213

I 214

1 215

1216

1217

I 218

1 219

1 225

1 226

1 221

l 22

8

1 229

1 230

1 231

I 232

1 233

1 234

1 235

!. 236

1 23 7

1 238

1 241

l 242

1 243

1 244

1 245

l 246

I 24 7

1 248

l 249

l 250

1 251

1 252

! 253

1 254

I 255

1 256

l 25?

1 258

! 259

1 280

TITLE UNITS

HEAT ADDED BY HWP TO RAW H20 KILO B. T u. PER HOUR

HEAT ADDED BY COILS TO RAW H20 KILO B. T u. PER HOUR

HEAT ADDED BY DCRW TO RAW H20 KILO B. T u. PER HOUR

TOTAL HEAT ADDED TO RAW H20 C 1 ) KILO B. T u. PER HL UR

TOTAL HEAT ADDED TO RAW H20 (2) KILO B. T Ue PER HOUR

TOTAL HEAT ADDED TO RAW H20 C 3 ) KILO B. T Ue PER HOUR

TOTAL HEAT ADDED TO RAW H20 (4 ) KILO B. T u. PER HOUR

TOTAL HEAT ADDED TO RAW H20 C 5 ) KILO B. T u. PER HOUR

TOTAL HEAT ADDED TO RAW K20 C 6 ) KILO B* T u. PER HOUR

TOTAL HEAT ADDED TO RAW H20 KILO B* T U* PER HOUR

HEAT REMOVED FROM RAW H20 KILO B. T u. PER HOUR

HEAT LOSSES TO RAW H20 Cl) KILO B. T u. PER HOUR

HEAT LOSSES TO RAW H20 (2) KILO B. T Ue PER HOUR

HEAT LOSSES TO RAW H20 <3> KILO B. ! u. PER HOUR

HEAT LOSSES TO RAW H20 C4) KILO B. T u. PER HLUR

HEAT LOSSES TO RAW H20 C5? KILO B. T u. PER HOUR

HEAT LOSSES TO RAW H20 (6) KILO B. I u. PER HOUR

HEAT LOSSES TO RAW H20 (7# KILO B. T U* PER HOUR

HEAT ADDED BY BOILERS TO FUEL KILO B* T U* PER HOUR

HEAT ADDED BY ALL EG TO FUEL KILO B. T Ue PER HOUR

TOTAL HEAT ADDED TO FUEL KILO B. T Ue PER HOUR

FUEL HEAT USED BY EG 1 KILO B. T Ue PER HOUR

FUEL HEAT USED BY EG2 KILO B® T U* PER HOUR

FUEL HEAT USED BY EG3 KILO B. T u. PER HOUR

FUEL HEAT USED BY EG4 KILO B. I u* PER HOUR

FUEL HEAT USED BY EG5 KILO B. T Ue PER HOUR

SHELLEY A DOM H20 HEAT KILO B. T u. PER HOUR

SHELLEY A SPACE HEAT KILO B. T Ue PER HOUR

HEAT USED BY SHELLEY A KILO B. T u. PER HOUR

SHELLEY B DOM H20 HEAT KILO B. T u. PER HOUR

SHELLEY B SPACE HEAT KILO B* T u. PER HOUR

HEAT USED BY SHELLEY B KILO B* T u. PER HOUR

HEAT USED BY POOL KILO B. T u. PER HOUR

SCHOOL DOM H20 HEAT KILO B* T u. PER HI 1UR

SCHOOL SPACE HEAT KILO 8. T u. PER HOUR

HEAT USED BY SCHOOL KILO Be T Ue PER HOUR

HEAT REMOVED BY SITE E KILO B* T u. PER HOUR

HEAT REMOVED BY EAST ZONE KILO B. T Ue PER HOUR

EAST ZONE HEAT LOSSES KILO Be T u. PER HOUR

DESCON DOM H20 HEAT KILO B* T u. PER HOUR

DESCON SPACE HEAT KILO B* T u. PER HOUR

HEAT USED BY DESCON KILO Be T u. PER HOUR

CAMCI DOM H20 HEAT KILO Be T u. PER HOUR

CAMCI SPACE HEAT KILO Be T u* PER HOUR

HEAT USED BY CAMCI KILO Be' T u. PER HOUR

COM. BLDG DOM H20 HEAT KILO Be T u. PER HOUR

COM. BLDG SPACE HEAT KILO Be T u. PER HOUR

HEAT USED BY COM* BLDG KILO B* T Ue PER HOUR

HEAT USED BY WEST ZONE KILO Be T U. PER HOUR

WEST ZONE HEAT LOSSES KILO Be T Ue PER HOUR

HEAT REMOVED BY SITE KILO Be r Ue PER HOUR

SITE HEAT LOSSES KILO Be T u. PER HOUR

62
LOC

1 261

1 262

1 263

1 2 64

I 265

1 266

1 267

1 268

1 269

1 2 70

1 271

I 2 72

1 273

1 274

1 275

1 276

1 277

1 278

1 2 79

1 285

1 286

1 287

1 288

1 289

1 290

1 291

1 £92

l 294

I 295

l 296

1 098

! 299

l 300

I 301

1 302

l 303

1 304

I 305

1 30 7

1 308

1 309

1310

1311

1 312

1 313

1315

1 316

1 317

1 318

1 319

1 320

TITLE UNITS

FUEL HEAT USED BY ALL EG

FUEL HEAT USED BY Bl

FUEL HEAT USED BY B2

FUEL HEAT USED BY BOILERS

FUEL HEAT USED BY PLANT

COOLING USED BY SHELLEY A

COOLING USED BY SHELLEY B

COOLING USED BY POOL

COOLING USED BY SCHOOL

COOLING USED BY SITE E

COOLING USED BY EAST ZONE

EAST ZONE COOLING HEAT LOSSES

COOLING USED BY DESCON

COOLING USED BY CAMCI

COOLING USED BY COM. BLDG

COOLING USED BY WEST ZONE

WEST ZONE COOLING HEAT LOSSES

COOLING USED BY SITE

SITE COOLING HEAT LOSSES

FUEL HEAT USED BY EG 1 -TB

FUEL HEAT USED BY EG2 -TB

FUEL HEAT USED BY EG3“5 -TB

FUEL HEAT USED BY ALL EG -TB

FUEL HEAT USED BY Bl -TB

FUEL HEAT USED BY B2 -TB

FUEL HEAT USED BY BOILERS -TB

FUEL HEAT USED BY PLANT -TB

FUEL USED BY Bl

FUEL USED BY B2

FUEL USED BY BOILERS

FUEL USED BY EG 1 -TB

FUEL USED BY EG2 -TB

FUEL USED BY EG3-5 -TB

FUEL USED BY ALL EG -TB

FUEL USED BY Bl -TB

FUEL USED BY B2 -TB

FUEL USED BY BOILERS -TB

FUEL USED BY PLANT -TB

FUEL USED BY EG1

FUEL USED BY EG2

FUEL USED BY EG3

FUEL USED BY EG4

FUEL USED BY EG5

FUEL USED BY ALL EG

FUEL USED BY PLANT

TOTAL POWER USED BY SHWP

CH 0N= 1 » 0 FF=2

% LP1 TO ELECT

EFF HX 4

DEG API

ANALYZED HEAT CONTENT OF FUEL

KILO B T .U. PER HOUR

KILO B T . u. PER HOUR

KILO B T • u. PER HOUR

KILO B T • u. PER HO Jr

KILO B T .u. PER HOUR

KILO B T • u. PER HOUR

KILO B T • u. PER HOUR

KILO B r • u. PER HOUR

KILO B T • u. PER HOUR

KILO B T .u. PER HOUR

KILO B T • u. PER HLUR

KILO B T • u. PER HOUR

KILO B T .u. PER HOUR

KILO & T .u. PER HOUR

KILO B T .u. PER HOUR

KILO B f .u. PER HOUR

KILO B « u * PER HOUR

KILO B T • u. PER HOUR

KILO B

•r* • u. PER HOUR

KILO B r • u. PER HOUR

KILO B T • u. PER HOUR

KILO B T • u. PER HOUR

KILO B T . u. PER HOUR

KILO B T * u

PEn HOUR

KILO B T PER HOUR

KILO B T • u. PER HOUR

KILO B T .u. PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HLUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALL ON S PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

GALLONS PER HOUR

KILOWATTS

SEASON

FRACTION

FRAC T I ON

DEGREES A« P • I

B.T.J. PER GALLON

63
IV. TYPICAL TEREVIEW OUTPUT OF A CONVERTED SCAN

N BS 0# LOG 1 i 3 • 00

NONE 3 000 M. V. FLAG — 0

N BS 0# LOG 2 1 1 . 000 NONE 1 000 M. v. FLAG = 1 N BS 0# LOG 3: 5 . 000 NONE 5 000 M. V. FLAG = l N BS 0# LOG 4* . 000 NONE 000 M. V. FLAG -

l N BS 0# LOG 5 s 40192.000 NONE 40192 000 M. V. FLAG = 1 N BS 0# LOG 6 8 578000.000 NONE 578000 000 M. V. FLAG = 1 N BS 0# LOG 78 47.000 NONE 47 000 M® Ve FLAG 1 N BS 0# LOG 8 1 1 . 000 NONE 1 000 M. V. FLAG = 1 N BS 0# LOG 9 8 1

. 000 NONE 15 000 M. v. FLAG s 1 N BS 202* LOG 10 8 58.575 PSI 6686 000 M. v. FLAG -= 0

N BS 220* LOG 1 1

.887 PSI 2071 000 M. V. FLAG = 0

M BS 221# LOG 128 57. 787 PSI 6623 000 M. v. FLAG s 0

N BS 230# LOG 138 -.018 PSI 1869 000 M. v. FLAG = 0

N BS 231# LOG 148 .238 PSI 3758 000 M. v. FLAG - 0

N BS 301# LOG 158 1 1323.916 LB/M IN 6041 000 M. v. FLAG s 0

N BS 302# LOG 16: 2440*695 LB/M IN 5592 000 Me v. FLAG - 0

N BS 303# LOG 178 2310.435 LB/MIN 5212 000 M* V. FLAG = 0

N BS 304# LOG 18s . 000 LB/M IN 2030 000 M. V # FLAG as 0

N BS 305# LOC 19: 6299.441 LB/MIN 4132 000 M. Ve FLAG - 0

M BS 306# LOG 20 8 6448.356 LB/MIN 7148 000 Me v. FLAG 0

M BS 30 7# LOC 21 8 • 000 LB/MIN 2046 000 M« v. FLAG = 0

N BS 306# LOC 22: .000 LB/MIN 2048 000 M. v. FLAG = 0

N BS 309# LOC 23s . 000 LB/MIN 1971 000 M. v. FLAG = 0

N BS 310# LOC 24: .000 LB/MIN 2041 000 M* Ve FLAG SS 0

N BS 311# LOC 258 1285.854 LB/MIN 2070 000 M. v. FLAG = 0

N BS 316# LOC 26: 2836.554 LB/MIN 6420 000 Me v. FLAG = 0

M BS 313# LOC 27 8 . 000 LB/MIN 1978 000 M. v. FLAG = 0

N BS 314# LOC 28 8 . 000 LB/MIN 1984 000 M. V. FLAG = 0

N BS 31.5# LOC 29 8 . 000 LB/MIN 2036 000 M. V. FLAG = 0

M BS 312# LOC 30: • 000 GPM CAV) 5112 000 M. V. FLAG = 0

N BS 317# LOC 31 8 .000 GPM (AV) 000 M. V. FLAG = 0

N bs 318# LOC 32: .000 GPM CAV) 3 000 M. V. FLAG = 0

M BS 319# LOC 33: .000 GPM CAV) 2442 000 M* V. FLAG = 0

M BS 320# LOC 34 : .000 GPM CAV) 5045 000 M. V. FLAG = 0

M BS 321# LOC 358 . 000 GPM CAV) 29 000 M. V. FLAG = 0

N BS 322# LOC 368 .000 GPM CAV) 5068 000 M. V. FLAG = 0

N BS 323# LOC 378 .000 GPM CAV) 3206 000 M. v. FLAG = 0

M 3S 324# LOC 38: .000 GPM CAV) 1254 000 M. v. FLAG = 0

N BS 325# LOC 398 *000 GPM CAV) 16 00 0 M* V. FLAG - 0

N BS 326# LOC 40: .000 GPM CAV) 241 000 M. V. FLAG = 0

N 05 550# LOC 4 1 8 748 • 800 KW CINS) 936 000 M. v. FLAG = 0

N BS 551# LOC 42: .000 KW CINS) “15 000 M. V. FLAG = 0

N BS 552# LOC 43 8 262.200 KW CINS) 1748 000 M. V. FLAG 0

N BS 553# LOC 44 8 • 111 KW CINS) 2 000 M. v. FLAG = 0

M 3S 554# LOC 45 8 13.767 KW CINS) 2484 000 M. v. FLAG = 0

N 3S 555# LOC 468 97.934 KW CINS) ! 178 000 M* V. FLAG = 0

N BS 558# LOC 478 3 1.813 KW CINS) 5 74 000 M. V. FLAG = 0

N BS 557# LOC 48: • ODD KW CINS) “159 000 M. v; FLAG - 0

N BS 558# LOC 49 8 • 000 KW CINS) »29 000 Me V. FLAG - 0

N BS 600# LOC 50 8 181.184 DEG F 3 489 M. v. FLAG 0

N BS 603# LOC 5 1 i 1 82 o 296 DEG F 3 517 M. V. FLAG = 0

N 3S 604# LOC 528 187. 408 DEG F 3 646 M. V. FLAG = 0

N BS 616# LOC 53? 181.859 DEG F 3 506 M« v. FLAG - 0

N BS 617# LOC 548 190*. 486 DEG F 3 724 M® v. FLAG = 0

64
N BS 621» LOC 55* 193 4 78 DEG

F 3 • 800 M. V. FLAG = 0 N BS 629* LOC 56* 195 127 DEG F 3 • 842 M. V. FLAG = 0 N BS 630* LOC 57* 183 090 DEG F 3 • 537 M. V. FLAG = 0 N BS 633* LOC 58* 187 289 DEG F 3 • 643 M. V. FLAG = 0 N BS 636* LOC 59* 181 899 DEG F 3 • 507 M. v. FLAG s 0 N BS 640* LOC 60* 180 627 DEG F 3 • 475 M. v. FLAG = 0 N BS 66 1 * LOC 61 8 81 512 DEG F 1 • 100 M. V. FLAG = 0 M BS 662* LOC 62 * 81 205 DEG F 1 .093 M. V. FLAG = 0 N BS 663* LOC 63* 1 17 737 DEG F 1 • 941 M. v. FLAG 0 N BS 665* LOC 64* 84 141 DEG F 1 . 160 M. v. FLAG = 0 N BS 671* LOC 65* 67 903 DEG F .792 M. v. FLAG = 0 N BS 6 72* LOC 66* 82 258 DEG F 1 . 117 M. v. FLAG = 0 N BS 673* LOC 67* 80 722 DEG F 1 .082 M. V. FLAG 0 M BS 690* LOC 68* 79 008 DEG F 1 .043 M. V. FLAG = 0 N BS 691* LOC 69* 79 052 DEG F 1 .044 M. V® FLAG = 0 N BS 693* LOC 70* 84 165 DEG F 1 .161 M. V. FLAG 0 N BS 696* LOC 71 * 79 492 DEG F 1 • 054 M. v. FLAG = 0 N BS 700* LOC 72* 36 516 DEG F .098 M. V.' FLAG 3 0 N BS 701* LOC 73* 183 249 DEG F 3 • 541 M* V. FLAG 0 n bs 711* LOC 74* 80 766 DEG F 1 • 083 M. V. FLAG - 0 N BS 713* LOC 75* 79 887 DEG F i .063 M* V. FLAG = 0 N BS 730* LOC 76* 83 835 DEG F 1 .153 M. V. FLAG = 0 N BS 731* LOC 77* 86 021 DEG F 1 .203 M. V. FLAG = 0 N BS 732* LOC 78* 75 615 DEG F .966 M. V. FLAG 3 0 N BS 733* LOC 79* 76 321 DEG F .982 M. V. FLAG ~- 0 N BS 612* LOC 80S 303 351 DEG F 8 .048 M* v. FLAG 3 0 N BS 613* LOC 81 1 170 239 DEG F 4 • 014 M. V. FLAG 3 0 N BS 750* LOC 82* 1 12 830 DEG F 2 .319 M. v. FLAG 3 0 N BS 751* LOC 83 i 559 041 DEG F 15 .927 M. V. FLAG 3 0 N BS 752* LOC 84* 130 060 DEG F 2 • 824 M* V. FLAG = 0 M BS 753* LOC 85 t 412 905 DEG F 1 1 • 422 M® V. FLAG 3 0 N BS 601* LOC 86* 008 DL DEG F • 003 M. v. FLAG - 0 N BS 602* LOC 87* 5 385 DL DEG F 2 • 037 M. V. FLAG = 0 N BS 694* LOC 88* 3 548 DL DEG F 1 • 214 M. V.' FLAG = 0 N BS 605* LOC 89* 5 116 DL DEG F 1 .'935 M® v. FLAG 3 0 M B3 614* LOC 90* - 143 DL DEG F - .036 M* v. FLAG = 0 M BS 615* LOC 91 * 7 267 DL DEG F 1 .'834 M. v.' FLAG = 0 N BS 628* LOC 92* 123 DL DEG F .047 M. V. FLAG 3 0 N BS 631* LOC 93* 893 DL DEG F • 225 M. V. FLAG 3 0 N BS 632* LOC 94* I 1 880 DL DEG F 3 • 010 M. V. FLAG = 0 N BS 634* LOC 95* 53 751 DL DEG F 20 • 000 M. V. FLAG = 0 n as 635* LOC 96* -3 473 DL DEG F - • 872 M* v. FLAG = 0 N BS 637* LOC 97* 6 739 DL DEG F 2 • 565 M. V. FLAG = 0 N BS 641* LOC 98* 9 454 DL DEG F 2 • 366 M. V. FLAG S 0 M BS 642* LOC 99* 12 396 DL DEG F 3 .098 M. V. FLAG 3 0 N BS 647* LOC 100* 1 347 DL DEG F • 478 M. V. FLAG = 0 N BS 659* LOC 101 * 4 863 DL DEG F 1 .729 M. v. FLAG = 0 N BS 660* LOC 102* - 931 DL DEG F - • 330 M. \J. FLAG — 0 M BS 664* LOC 103* -33 426 DL DEG F -11 .657 M. v. FLAG 3 0 N BS 674* LOC 104* -3 661 DL DEG F -1 .253 M. V. FLAG 3 0 N BS 675* LOC 105* -5 922 DL DEG F -2 .032 M. V. FLAG 3 0 N 3S 692* LOC 106* - 079 DL DEG F - .027 M. v. FLAG = 0 N 83 695* LOC 107* 5 500 DL DEG F 1 . 880 M. V. FLAG = 0 N BS 702* LOC 108* 026 DL DEG F .009 M. V. FLAG = 0

65
N BS 703/ LOG 109* -.023 BL DEG F -.008 M. V® FLAG 0

N BS 501/ LOG 110* 805.546 KW (AVG) 734.000 M. V. FLAG = 0

N BS 502/ LOG Ills . 000 KW (AVG) 4677.000 M • V . FLAG s 0

N BS 503/ LOG 1 12* 258.560 KW (AVG) 3406.000 M. V. FLAG SS 0

N BS 509/ LOG 1 13* . 000 KW (AVG) 2.000 M • V . FLAG s 0

M BS 510/ LOG 1 14* 14.472 KW (AVG) 4943.000 M« V® FLAG = 0

N BS 511/ LOG 1 15* 102* 158 KW (AVG) 3198.000 M. V. FLAG 0

N BS 512/ LOG 1 16* 30.269 KW (AVG) 1755.000 M* V® FLAG - 0

N BS 513/ LOG 1 17* .000 KW C AVG

)

8*000 M. V. FLAG s 0

M BS 514/ LOG 1 18* • 000 KW C AVG) 1354.000 M • V • FLAG s 0

N BS 0/ LOG 1 19* 1331.000 NONE 1331.000 M ® V • FLAG = 1 N BS 80 6/ LOG 120* 1332.000 ON/OFF 1332.000 M. V. FLAG 0

N BS 315/ LOG 121 * 1331.000 ON/OFF 1331.000 M. V. FLAG = 0

N BS 821/ LOG 122* 1331.000 ON/OFF 1331.000 M* V. FLAG = 0

N BS 830/ LOG 123* 1331.000 ON/OFF 1331.000 M* V. FLAG s 0

N BS 836/ LOG 124* 1330.000 ON/OFF 1330.000 M® V

#

FLAG - 0

M BS 845/ LOG 125 * 1330.000 ON/OFF 1 330® 000 M. V. FLAG = 0

N BS 851/ LOG 126* 1330.000 ON/OFF 1330.000 M. V. FLAG s 0

N BS 800/ LOG 127* 1329.000 ON/OFF 1329*000 M* V. FLAG - 0

N BS 860/ LOG 128* 1329.000 ON/OFF 1329*000 M* V . FLAG = 0

N BS 866/ LOG 129 * 1328.000 ON/OFF 1328*000 M® V

FLAG 3 0

N BS 0 / LOG 130* 1328.000 NONE 1328.000 M ® V ® FLAG = 1 N BS 0 / LOG 131 S 1327.000 NONE 1327.000 M ® V

FLAG = 1 N BS 0/ LOG 132* 1327.000 NONE 1327.000 M* V

FLAG = 1 N BS 0/ LOG 133* 1327.000 NONE 1327.000 M • V ® FLAG S= 1 N BS 0/ LOG 134* 1326*000 NONE 1326.000 M • V « FLAG 3 1 N BS 0 / LOG 135* 1326.000 NONE 1326.000 M* V

FLAG = 1 N BS 0/ LOC 1 368 1326.000 NONE 1326.000 M. V. FLAG = 1 M BS 0 » LOG 137* 1325.000 NONE 1325.000 M * V . FLAG = I N BS 0 z LOC 138 s 1325.000 NONE 1325.000 M. V. FLAG = 1 N BS 0/ LOC 139* 1324.000 NONE 1324.000 M. V. FLAG 3 1 N BS 360/ LOC 140* .002 GPM (AV) 8428.000 M. V. FLAG = 0

N BS 361/ LOC 141 * .428 GPM (AV) 9754.000 M® V. FLAG = 0

N BS 362/ LOC 142* .356 GPM (AV) 5451.000 M- V® FLAG = 0

MBS 363/ LOC 143* .335 GPM (AV) 5899*000 M® V® FLAG 3 0

U BS 3 64/ LOC 144* .000 GPM (AV) 1456.000 M® V. FLAG = 0

N BS 3 65/ LOC 145* .843 GPM (AV) 3207.00

0

M. V® FLAG 3 0

N BS 3 66/ LOC 1461 .000 GPM (AV) 6456.000 M* V® FLAG = 0

N BS 0/ LOC 147* 6364.000 NONE 6364.000 M® V. FLAG = 1 N BS 0/ LOC 148? 6356.000 NONE 6356.000 M. V * FLAG = 1 N BS 0 / LOC 149* 6355.000 NONE 6355.000 M ® V* FLAG 3 1 N BS 0 z LOC 1 50* 6355.000 NONE 6355.000 M. V® FLAG = 1 N BS 0 / LOC 151 * 6354.000 NONE 6354.000 M * V o FLAG = 1 M BS 0/ LOC 152* 6353.000 NONE 6353.000 M * V ® FLAG = 1 N BS 0 z LOC i 53* 6352.000 NONE 6352.000 M® V® FLAG 3 1 N BS 0 / LOC 154* 6351.000 NONE 6351.000 M® V. FLAG = 1 N BS 0/ LOC 155 8 6350.000 NONE 6350.000 M« V® FLAG 3 1 N BS 0 / LOC 156* 6350.000 NONE 6350.000 M e V « FLAG 3 1 N BS 0/ LOC 157* 6349.000 NONE 6349.000 M® V® FLAG = 1 N BS 0/ LOC 158* 6348.000 NONE 6348.000 M • V . FLAG = 1 N BS 0/ LOC 1 59* 6347.000 NONE 6347.000 M * V ® FLAG = 1 N BS 400/ LOC 1 60s 496.000 VOLTS 4960.000 M® V. FLAG = 0

M BS 0 / LOC 1 61 * 70.000 NONE 70.000 M ® V® FLAG = 1 N BS 0 / LOC 1 62* 30*000 NONE 30 * 000 M. V. FLAG = 1

66
N BS 410# LOG 1 63: 465 000 VOLTS 4 650 . 000 M. V. FLAG = 0

N BS 0# LOC 1 64: 20 000 NONE 20 . 000 M. v. FLAG = 1 N BS 0# LOC 1 65: 10 000 NONE 10 .000 M.'V. FLAG = 1 N BS 0# LOC 1 66: 20 000 NONE 20 .000 M. V. FLAG = 1 N BS 0# LOC 1 67: 20 000 NONE 20 • 000 M. V. FLAG = 1 N BS 0# LOC 1 68: 20 000 NONE 20 • 000 M. V. FLAG = l N BS 0# LOC 1 69: 20 000 NONE 20 .000 M. V. FLAG i N BS 0# LOC 1 70: - 030 NONE - . 030 M. V. FLAG = 1 N BS 0# LOC 1 71

«» 030 NONE - .030 M. V. FLAG = 1 N BS 102# LOC 1 72: 5 120 MINUTES 3669 . 000 M» V* FLAG = 0

N BS 1 10# LOC 1 73: 000 MINUTES 4583 • 000 M. V. FLAG = 0

N BS 1 1 1# LOC 1 74: 427 MINUTES 2085 • 000 M* V * FLAG = 0

N BS 0# LOC 1 75: 1834 000 NONE 1834 .000 M. V. FLAG = 1 N BS 0# LOC 1 76: 1670 000 NONE 1670 .000 M. V. FLAG s 1 N BS 130# LOC 1 77: 695 PWR FACT 3054 .000 M. V. FLAG = 0

N BS 141# LOC 1 78: 60 031 HERTZ 2578 • 000 M. V. FLAG s 0

N BS 772# LOC 1 79: 4 049 DL DEG F 1 187 .000 M. V. FLAG -= 0

N BS 332# LOC 180: 708 432 LB/M IN 4396 .000 M.'V.' FLAG = 0

N BS 0# LOC 181

2531 000 NONE 2617 .000 M.'V.' FLAG = 1 N BS 0# LOC 182: 2935 000 NONE 3021 • 000 M. V * FLAG s= 1 N BS 522# LOC 183: 10 404 KW (AVG) 4185 .000 M. V. FLAG = 0

N BS 0# LOC 184: 424 000 NONE 510 • 000 M.'V. FLAG = 1 N BS 0# LOC 185: 4499 000 NONE 4585 • 000 M® V * FLAG 1 N BS 0# LOC 186: 4372 000 NONE 4458 • 000 M • V o FLAG -

l N BS 760# LOC 187: 271 661 DEG F 5946 . 000 M. V. FLAG 0

N BS 0# LOC 188: 6487 000 NONE 6573 .000 M. V. FLAG = 1 N BS 0# LOC 189: 1886 000 NONE 1972 .000 M ® V « FLAG = I N BS 0# LOC 190: 3176 000 NONE 3262 .000 M. V. FLAG 1 N BS 0# LOC 191

296 000 NONE 382 . 000 M. V. FLAG = 1 N BS 0# LOC 192: 000 NONE 86 • 000 M.'V.' FLAG = 1 N BS 771# LOC 193: 19 219 DL DEG F 4726 • 000 M.'V.' FLAG = 0

M BS 330# LOC 194: 000 LB/MIN -17 • 000 M. V. FLAG s 0

N BS 651# LOC 195: 4 730 DL DEG F 1 144 .000 M. V. FLAG = 0

N BS 339# LOC 196: 000 LB/MIN -15 .000 M. V. FLAG — 0

N BS 791# LOC 197: 526 DL DEG F 116 • 000 M.'V. FLAG = 0

N BS 348# LOC 198: 000 GPM (AV) 9244 • 000 M. V. FLAG = 0

N BS 524# LOC 199: 8 847 KW C AVG

)

4175 .000 M. V. FLAG = 0

N BS 523# LOC 200

3 053 KW (AVG

)

3477 • 000 M* V » FLAG = 0

N BS 424# LOC 201306 400 VOLTS 3049 .000 M. V. FLAG = 0

N BS 624# LOC 202: 151 588 DEG F 2740 .000 M. V. FLAG S3 0

N BS 761# LOC 203: 170 394 DEG F 3204 . 000 M. V. FLAG s 0

N BS 781# LOC 204: 171 438 DEG F 3230 • 000 M. V. FLAG = 0

N BS 0# LOC 205: 000 NONE -15 • 000 M. V. FLAG = 1 N BS 0# LOC 206: 000 NONE -15 • 000 M. V. FLAG = 1 N BS 775# LOC 20 7: 613 DL DEG F 2573 .000 M. V. FLAG = 0

N BS 331# LOC 208: 000 LB/MIN 2287 • 000 M. V. FLAG = 0

N BS 655# LOC 209 : - 620 DL DEG F 2161 • 000 M. V. FLAG 35 0

N BS 340# LOC 210: 000 LB/MIN 1924 . 000 M.'V. FLAG = 0

N BS 795# LOC 211 : -1 941 DL DEG F 1728 • 000 M.'V. FLAG = 0

N BS 349# LOC 212: 13 728 GPM (AV) 2763 .000 M. V. FLAG = 0

N BS 532# LOC 213: 181 371 KW (AVG) 2918 • 000 M.'V. FLAG 3= 0

N BS 531# LOC 214 : 173 KW (AVG) 2977 .000 M. V. FLAG = 0

N 3S 432# LOC 215: 28 367 VOLTS 2982 • 000 M. V. FLAG = 0

n as 0# LOC 216: 586 000 NONE 2954 • 000 M.'V. FLAG =1 1

67
MBS 625# LOG 2178 59 680 DEG F 2976.000 M. V. FLAG = 0

N BS 762

LOG 218 8 60 891 DEG F 3003.000 M. V. FLAG - 0

MBS 782* LOG 219 8 45 576 DEG F 2664.000 M* V. FLAG = 0

N BS 0# LOG 220 1 000 NOME 2368.000 M. V. FLAG s 1 N BS 148* LOG 221 8 000 WEA.STA. 2588.000 M® V

FLAG = 0

N BS 149* LOC 222 8 000 WEA.STA. 2547.000 M • V e FLAG - 0

M BS 0 # LOC 2238 - 145 000 NOME 2494.000 M • V • FLAG = I N BS 0 » LOC 2248 -220 000 NONE 2419.000 M * V ® FLAG = 1 N BS 200# LOC 225 8 27 000 WEA.STA. 2325.000 M. V. FLAG = 0

N BS 710# LOC 2268 -2 540 WEA.STA. 2385.000 M • V ® FLAG =5 0

N BS 712# LOC 2278 000 WEA.STA. 2457.000 M. V. FLAG 0

M BS 714* LOC 2288 -1 130 WEA.STA® 2526.000 M. V s FLAG 0

N BS 0# LOC 2298 -50 000 NONE 2589.000 M. V. FLAG = i N BS 0# LOC 2308 000 NONE 2639.000 M. V. FLAG - l N BS 0# LOC 231 8 000 NONE 2683.000 M. V. FLAG = 1 M BS 0# LOC 2328 000 NONE 2726.000 M.Ve FLAG S= 1 M BS 0# LOC 233 8 000 NONE 2717.000 M. V. FLAG - 1 N BS 0# LOC 2348 000 NONE 2668 ® 000 M » V ® FLAG s 1 N BS 770# LOC 2358 10 100 DL DEG F 38 14. 000 M. V. FLAG = 0

M BS 328LOC 2368 966 035 LB/MIN 2705.000 M. V. FLAG s 0

N BS 650# LOC 2371 -3 5 73 DL DEG F -1192*000 M. V. FLAG = 0

N BS 337# LOC 2388 000 LB/MXN 2056.000 M. V. FLAG = 0

N BS 790# LOC 2398 5 916 DL DEG F 2253.000 M » V . FLAG ss 0

N BS 346# LOC 240* 441 024 LB/ MIN 5194.000 M. V. FLAG = 0

M BS 520# LOC 241 i 70 451 KW CAVG) 3914.000 M * V * FLAG = 0

N BS 519# LOC 2428 8 602 KW CAVG) 3174.000 M * V

FLAG = 0

MBS 420* LOC 2438 1 1 7 920 VOLTS 5928.000 M. V® FLAG 0

M BS 643# LOC 2448 85 2 78 DEG F 1218.000 M. V. FLAG = 0

M BS 763# LOC 245* 178 277 DEG F 3448.000 M® V. FLAG = 0

M BS 783# LOC 246! 1 78 835 DEG F 3462.000 M. V* FLAG s 0

MBS 0 # LOC 247 t 000 NONE 32.000 M. V. FLAG = 1 MBS 0 # LOC 248* 000 NONE 32.000 M. V. FLAG = 1 N BS 768# LOC 249* 7 667 DL DEG F 2869.000 M • V e FLAG = 0

W BS 32 7# LOC 2 501 4493 028 LB/MXN 3324.000 M. V. FLAG = 0

M BS 648# LOC 25 1 8 -4 495 DL DEG F - 1578.000 M* V

FLAG = 0

N BS 336# LOC 2521 000 LB/MIN 2048.000 M • V « FLAG = 0

N BS 788# LOC 253* 7 596 DL DEG F 2842.000 M. V. FLAG = 0

M BS 345# LOC 2541 851 297 LB/MIN 5839.000 M. V. FLAG --- 0

MBS 516# LOC 255* 124 859 KW CAVG) 4285.000 M# V. FLAG - 0

N BS 515# LOC 2568 13 243 KW CAVG) 201.000 M. V. FLAG s 0

N BS 416# LOC 2578 533 040 VOLTS 6667.000 M. V. FLAG = 0

M BS 0# LOC 2588 1 000 NONE 5.000 M. V. FLAG -- 1 M BS 644# LOC 2598 1 12 394 DEG F 1819.000 M • V • FLAG = 0

N BS 764* LOC 2 60 8 174 883 DEG F 3335.000 M. V. FLAG = 0

N BS 784# LOC 261 8 1 74 643 DEG F 3329.000 M. V. FLAG = 0

N BS 0 # LOC 2628 000 NONE 4.000 M. V. FLAG I DJ BS 114* LOC 2638 22 819 DL DEG F 8495.000 M. V. FLAG 0

N BS 334# LOC 2648 1210 428 LB/MIN 3078.000 M* V

FLAG = 0

N BS 654# LOC 265* 1 1 646 DL DEG F 4119.000 M« V . FLAG 5= 0

N BS 343# LOC 266* 1363 0 75 LB/MIN 2347.000 M » V » FLAG -- 0

N BS 794# LOC 267S 10 893 DL DEG F 4090.000 M» V ® FLAG = 0

M BS 353# LOC 2 681 145 149 LB/MIN 2157.000 Me V « FLAG = 0

N BS 530# LOC 2698 79 • 456 KW CAVG) 3818.000 M » V « FLAG 0

M BS 529# LOC 2 70 8 30 • 742 KW CAVG) 3687.000 M. V. FLAG as 0

68
N BS 1 50* LOG 271 * 346.000 WEA.STA. 3472 • 000 M. V. FLAG = 0

MBS isi* LOG 2 72* 7.000 WEA.STA. 719 .000 M. v. FLAG - 0

N BS 645* LOC 273* 106*294 DEG F 1684 . 000 M. v. FLAG = 0

N BS 765* LOC 2 74* 177.041 DEG F 3397 • 000 M. V. FLAG = 0

N BS 785* LOC 275* 1 78.397 DEG F 3431 .000 M. V. FLAG = 0

N BS 0* LOC 276* • 000 NONE 12 • 000 M. V. FLAG = 1 N BS 626* LOC 277* 14.032 DL DEG F 4842 • 000 M. v. FLAG =• 0

MBS 333* LOC 278* 1847.929 LB/MIN 2427 • 000 M. v. FLAG 0

NBS 793* LOC 2 79* 8*162 DL DEG F 3076• 000 M. V. FLAG = 0

MBS 351* LOC 280* 3238.291 LB/MIN 4341 .000 M. V. FLAG - 0

N BS 526* LOC 281 * 47.295 KW (AVG) 51 .000 M. V. FLAG - 0

N BS 527* LOC 282* 26.485 KW (AVG) 5077 • 000 M. V. FLAG = 0

N BS 528* LOC 283* 27.034 KW (AVG) 4464 .000 M. V. FLAG 0

N BS 426* LOC 284* 489.520 VOLTS 6138 . 000 M. V © FLAG = 0

N BS 428* LOC 285* 132. 740 VOLTS 6656.000 M. V. FLAG = 0

N BS 646* LOC 286* 93.851 DEG F 1402 .000 M. V © FLAG = 0

N BS 786* LOC 287* 1 7 7 . 5 60 DEG F 3417 • 000 M. V. FLAG - 0

N BS 147* LOC 288* . 000 SUM/ WIN T 19 . 000 M. V. FLAG = 0

N BS 147* LOC 289 * . 000 SUM/WINT 19 .000 M. V. flAO = 0

N BS 0* LOC 290* • 000 NONE 19 .000 M. V. FLAG = 1

69
V. TYPICAL NUMERICAL SUMMARY LISTING

1. HOURLY

HOURLY SUMMARY FOR SEPTEMBER 20# 19761 1100“ 1200 PAGE 1 TOTAL DATA TIME? 60 MINUTES# ACTUAL TIME? 264 111 0

N BS

LOC VALUE UNITS TIME DER * VALUE UN I TS TIME

10 55 591 PSI 60 1010 “.014 MINUTES 60

i i 56 675 PSI 60 1011 58.849 MINUTES 60

1 2 000 PSI 60 1012 .000 MINUTES 60

13 346 PSI 60 1013 1169.733 KWHC INS) 60

14 001 PSI 60 1014 362.537 KWHC INS) 60

15 11410 902 LB/M IN 60 1015 *000 KWHC Li'S) 60

16 24 16 938 LB/M IN 60 1016 807 « 195 KWHC INS) 60

1 7 2262 988 LB/M IN 60 1018 .000 KWHC INS) 60

18 6935 794 LB/MIN 60 1019 15.812 KWHC INS) 60

19 6546 213 LB/M IN 60 1020 109.670 KWHC INS) 60

20 5511 771 LB/MIN 60 1021 107.906 KWHC INS) 60

21 17064 230 LB/MIN 60 1022 153.561 KWHC INS) 60

22 18374 711 LB/MIN 60 1023 • 000 KWHC INS) 60

23 782 666 LB/MIN 60 1025 1196.941 KWHC AVG ) 60

24 1 7924 504 LB/MIN 60 1026 370.346 KWHC AVG

)

60

25 10 148 21 1 LB/MIN 60 1027 .000 KWHC AVG

)

60

26 2856 137 LB/MIN 60 1028 826.595 KWHC AVG) 60

27 843 221 LB/MIN 60 1030 • 000 KWH (AVG) 60

28 8441 324 LB/MIN 60 1031 16.' 120 KWHC AVG

)

60

29 9974 648 LB/MIN 60 1032 116.464 KWHC AUG) 60

30 000 GPM CAV) 60 1033 109.882 KWHC AVG) 60

31 5 414 GPM CAV) 60 1034 164.035 KWHC AVG > 60

32 5 334 GPM CAV) 60 1035 7.646 KWHC AVG

)

60

33 5 067 GPM CAV) 60 1036 20.573 KWHC AVG

)

60

34 3 975 GPM CAV) 60 1037 146.063 KWHC AVG

)

60

35 24 201 GPM CAV) 60 1038 166.636 KWH C AVG > 60

36 22 442 GPM CAV) 60 1039 • 000 KWHC AVG

)

0

37 4 468 GPM CAV) 60 1040 • 000 KWHC AVG

)

0

38 5 480 GPM CAV) 60 1041 • 000 KWHC AVG) 0

39 2 84 7 GPM CAV) 60 1042 • 000 KWHC AVG > 60

40 2 892 GPM CAV) 60 1043 4.417 KWHC AVG

)

60

41 1 1 69 733 KW C INS) 60 1044 33.915 KWHC AVG > 55

42 362 537 KW CINS) 60 1045 38.331 KWHC AVG

)

55

43 000 KW CINS) 60 1046 55*966 KWHC AVG) 60

44 ODD KW CINS) 60 1047 33.580 KWHC AVG

)

60

45 1 5 812 KW CINS) 60 1048 89.545 KWH C AVG

)

60

46 109 670 KW C INS) 60 1049 26*880 KWHC AVG

)

60

47 107 906 KW CINS) 60 1050 1 16.425 KWHC AVG

)

60

48 153 561 KW CINS) 60 1051 34. 289 KWHC AVG

)

60

49 000 KW CINS) 60 1052 87.732 KWHC AVG) 60

50 201 758 DEG® F. 60 1053 122.021 KWHC AVG

)

60

51 20 7 875 DEG® F. 60 1054 2 .'940 KWHC AVG

)

60

52 201 176 DEG® F. 60 1055 98*304 KWHC AVG) 60

S3 215 121 DEG® F® 60 1056 101.244 KWHC AVG

)

60

54 197 319 DEG. F. 60 1059 414. 147 KWHC AVG

)

60

55 218 524 DEG® F. 60 1 0 60 46*000 KWHC AVG) 60

56 204 319 DEG® F. 60 10 61 . 000 KWHC AVG) 0

57 202 07 7 DEG® F« 60 10 62 *000 KWHC AVG

)

0

58 20 7 500 DEG. F. 60 10 63 . 000 KWHC AVG

)

0

*DER DENOTES THE DERIVED VARIABLE CODE (SEE APPENDIX III).

70
NBS

LOC

59

60

61

62

63

64

65

66

67

68

69

70

71

72

73

74

75

76

77

78

79

80

81

82

83

84

85

86

87

88

89

90

91

92

93

94

95

96

97

96

99

1 00

101

102

103

104

105

106

107

108

HOURLY SUMMARY FOR SEPTEMBER 20* 1976; 1100-1200 PAUL 2

VALUE UNITS r IME DER VALUE UN 11 b i IME

201.697 DEG.F. 60 1064 .000 KwHC AvG) 0

2 01.970 DEG.F. 60 1065 7.646 KWHCAVG) 60

58. 176 DEG.F. 60 1066 782. 793 KwHC AVG ) 60

61.966 DEG.F. 60 1067 .000 KWHCAVG) 0

59.688 DEG.F. 60 1073 70.608 KwHC AvG

)

60

61.914 DEG.F. 60 10 74 .000 KwHC AVG

)

0

70.225 DEG.F. 60 10 75 .000 KwHCAvG

)

0

73.855 DEG.F. 60 1076 166.036 KwHCAvG) 60

73.939 DEG.F. 60 10 77 62.846 KwHCAVG

)

60

80. 166 DEG.F. 60 10 78 33.915 KwHC AvG

)

55

82.619 DEG.F. 60 10 79 • 000 KwHC AvG

)

0

87.567 DEG.F. 60 1080 146.063 KwHC AVG

)

60

82.671 DEG.F. 60 1081 .000 KwHC AVG

)

0

217.886 DEG.F. 5 1082 .000 KwHC AVG

)

U

1 19.293 DEG. F. 60 1087 8698660.000 B * i » J * 60

90.542 DEG.F. 60 1066 4627687.000 B * 1 • U • 60

90.292 DEG.F. 60 1069 13326746.000 B * 1 • U * 60

98. 146 DEG.F. 60 1090 12653686.000 B • i • U “ 60

99.543 DEG.F. 60 109 1 170443.375 B « i » 0 • 60

90. 133 DEG.F. 60 1092 502614.000 B • i * U . 60

90.770 DEG.F. 60 1093 1 3999602.000 B * i • u » 60

306.095 DEG.F. 60 1 100 .000 B ® i * U * 0

95.595 DEG.F. 60 i id 284408.500 B * i * U * 60

665.878 DEG.F. 60 1 102 284408.500 B • 1 * J * 60

141.056 DEG.F. 60 1 103 .000 B • 1 • J * 0

483*674 DEG.F. 60 1 104 -182693.375 B • 1 * U • 60

138.418 DEG.F. 60 1 105 -182693.375 B * T * U • 60

6.078 DL DEG.F 60 1 106 867020.875 B * 1 * u • 60

-.611 DL DEG.F 60 1 107 881472.625 B • i » U • 60

-.230 DL DEG.F 60 1 108 881472.625 B * 1 » 0 • 60

5.737 DL DEG.F 60 1 109 -79002.922 B * 1 • U • 60

8*040 DL DEG.F 60 1110 -82934.203 B* 1 • U * 60

-1.956 DL DEG.F 60 1 1 1 1 -82934.203 B * i * U * 60

.000 DL DEG.F 0 1 112 .000 B * i * U • 0

.358 DL DEG.F 60 1113 1165881.000 B • 1 • U • 60

2.061 DL DEG.F 60 1 1 14 1165881.000 B * 1 * U * 60

16.0 70 DL DEG.F 60 1 115 .000 B • 1 • U • 0

-3.589 DL DEG.F 60 1116 -265627.562 B • 1 * U • 60

1 1.059 DL DEG.F 60 1117 -265627.562 B • f • U • 60

1.285 DL DEG.F 60 1116 .000 B * 1 • J * 0

3.081 DL DEG.F 60 1119 3027623.500 B * 1 * J * 60

3.988 DL DEG.F 60 1 120 3027623.500 B » 1 • <J • 60

1.006 DL DEG.F 60 1 121 3927877.00

0

B * i * U * 60

2. 103 DL DEG.F 60 1 122 .000 B • 1 * U • 0

5.513 DL DEG.F 60 1 123 .000 B * i * U * 0

8.496 DL DEG.F 60 1 124 • 000 B • 1 • U • 0

4. 198 DL DEG.F 60 1 125 .000 B * 1 • U * 0

-.214 DL DEG.F 60 1 126 • 000 B * f * J * 0

2.309 DL DEG.F 60 1 127 7547513.000 B • i * U * 60

2.160 DL DEG.

F

60 1 128 7571375.000 B * I • U * 60

71
NBS

LOG

109

1 10

1 1 l

1 12

1 13

1 14

1 15

1 16

1 1 7

1 18

120

121

122

1 23

124

1 25

126

1 27

128

129

1 60

1 63

1 72

1 73

1 74

1 7 7

1 7S

l 79

180

183

187

1 93

1 94

1 95

1 96

197

1 98

l 99

200

201

202

203

204

20 7

208

209

210

21 1 212

213

HOURLY SUMMARY FOR SEP fEMBER 20* 1976; 1100-1200 PAGE 3

VALUE UNITS T IME DER VALUE ON I T S A IME

2.466 DL DEG.

60 1 129 7571375.000 b. a » u ® 60

1 1 96. 941 KW (AVG) 60 1 130 6687524.000 b. i • J • 60

370. 346 KW (AVG) 60 1 131 3037476.000 b. 1 * U e 60

. 000 KW (AVG) 60 1 132 9725000*000 b. T e J • 60

. 000 KW (AVG) 60 1 133 1535373.50

0

b. A • U« 60

1 6. 120 KW (AVG) 60 1 134 1411287.500 bA ® U ® 60

1 16.464 KW (AVG) 60 1 135 1411287.500 b. i • U » 60

109.882 KW (AVG) 60 1 136 260380. 844 b. 1 . o. 60

1 64.035 KW (AVG) 60 1 137 244813.062 b. 1 » u © 60

7. 646 KW (AVG) 60 1 138 244813.062 b. T . U ® 60

. 000 ON/OFF 0 1 139 “42164.062 b * T ® U * 60

. 000 ON/OFF 0 1 140 -3217.673 b ® I * U « 60

• 000 ON/OFF 0 1 141 1 1472172.000 b. 1 • (J« 60

.000 ON/OFF 0 I 142 1 14 96034 ® 000 b. 1 . u * 60

. 000 ON/ OFF 0 1 143 i 14 96034.000 b. I • U © 60

. 000 ON/OFF 0 1 144 1 1478588.000 b. A . U ® 60

. 000 ON/OFF 0 1 145 1 1338934.000 b. 1 * U* 60

. 000 ON/OFF 0 1 146 11338934.000 b. A • U • 60

. 000 ON/ OFF 0 1 147 -6416.000 b* I • U • 60

. 000 ON/OFF 0 1 148 157 100.000 b® A » U « 60

49.292 VOLTS 60 1 149 157100.000 b. 1*0® 60

46.825 VOLTS 60 1 155 1523791.250 b» 1 * u ® 60

4 . 987 MINUTES 60 1156 • 000 b. f . u ® 60

4 . 904 MINUTES 60 1 157 .000 b* A. U. 60

. 000 MINUTES 60 1 158 1019067.875 b. A • U

60

. 693 PWR.FACT 60 1 159 504723.375 b. A. U. 60

59. 986 HERTZ 60 1 160 504723.375 b. A .0. 60

. 000 DL DEG. F 0 1 161 11582.250 b. T.U. 60

. 000 LB/ MIN 0 1 162 -1 12503.750 b. I • U • 60

.000 KW (AVG) 60 1 163 -112503.750 b. 1 . u

60

. 000 DEG. F • 0 1 170 2276295.000 b. 1 .u. 60

. 000 DL DEG* F 60 1 171 -24369.730 b. 1 . u

60

.000 LB/ MIN 60 1 1 72 2251925.000 b. T.U. 60

.445 DL DEG.

60 1 173 278938. 125 b. A • U • 60

1000.939 LB/ MIN 60 1 174 28710.973 b« 1 * U » 60

3.354 DL DEG.F 60 1175 • 000 b. i . u • 0

. 000 GPM (AV) 60 1 176 1258578*500 b. T.U. 60

33.915 KW (AVG) 55 1 177 1256578.500 b. T.U. 60

4.417 KW (AVG) 60 1 1 78 172074.250 b® T.U. 60

5 6.0 68 VOLTS 60 1 179 479723*375 b. T.U. 60

6

. 600 DEG.F. 60 1180 .000 b. A » U ® 0

i 93*965 DEG.F. 60 1 181 1738301 .750 b. A » U » 60

1 99* 328 DEG.F. 60 1 182 1738301.750 b. 1 e U • 60

6.581 DL DEG.F 60 1 183 .000 b. i « u

0

733.844 LB/ MIN 60 1 184 513623.250 b. A » J « 60

2.355 DL DEG.F 60 1 185 513623.250 b* A » U * 60

2909. 195 LB/ MIN 60 1191 420510.500 b. A ® U . 60

6.599 DL DEG.F 60 1 192 422554.062 b* A ® U * 60

2.190 GPM (AV) 60 1 193 422554.062 b. A ® U • 60

98.304 KW (AVG) 60 1 194 8759.816 B. T.U. 60

72
NBS

LOC

214

215

217

218

219

221

222

223

224

225

226

227

228

235

236

237

238

239

240

241

242

243

244

245

246

249

250

251

252

253

254

255

256

257

259

2 60

261

263

264

265

266

267

268

269

2 70

271

273

2 74

275

277

HOURLY SUMMARY FOR SEPTEMBER 20* 1976; 1100-1200 r AGE 4

VALUE UNITS TIME DER VALUE UN I A ^ A I ME

2 . 940 KW (AVG) 60 1 195 839059 .875 b« T » J * 60

81.187 VOLTS 60 1 196 1268330 .250 b • T . u. 60

65.846 DEG. F. 55 1 197 1268330 • 000 b * T . u * 60

1 90.430 DEG. F

60 1 198 1270373 .500 b • i . u. 60

1 82.915 DEG. F. 60 1 199 1270373 . 500 b » T . u. 60

.884 C/CM2/MN 60 1200 370088 • 750 b * T .u. 60

.223 C/CM2/MN 60 1201 502614 .000 b * T . u . 60

. 000 DEGREES 60 1202 -36736 .539 b

A • u60

102.917 MILES/HR 60 1203 -2739 .078 b * i . J. 60

30. 426 IN.HG. 60 1204 435101 .437 b * A . u • 60

73. 799 DEG* F. 60 1205 1231593 . 500 b. I .u. 60

43. 500 PER-CENT 60 120 6 1231593 .250 b • T s J e 60

. 000 DEG* F • 0 120 7 1233636 .750 B* T . u * 60

5.164 DL DEG* F 60 1208 1233636 * 750 b * A • u » 60

. 000 LB/ MIN 60 1209 1231593 ® 500 b e T . u» 60

.841 DL DEG. F 60 1210 1233637 • 000 b. 1' . u60

1 988.088 LB/ MIN 60 121 1 1233637 .000 b * T « u . 60

5*448 DL DEG. F 60 1212 1305065 .000 b. I • U » 60

275. 341 LB/MIN 60 1213 -73471 . 500 b » I • u. 60

. 000 KW (AVG) 0 1214 -7347

1

.750 b « T » u • 60

. 000 KW (AVG) 0 1215 -71428 .250 B • i .u. 60

1 1 7. 748 VOLTS 60 1216 -71428 .250 b * A • u. 60

61.287 DEG. F

60 1217 -73471 . 500 B. A . u « 60

1 96. 643 DEG. F. 60 1218 -71428 .000 b • T . u* 60

1 98.229 DEG. F. 60 1219 -71428 .000 b * A • u. 60

5.871 DL DEG. F 60 1225 42604 .5 70 B • A' • u. 60

1 149. 771 LB/MIN 60 1226 60421 .836 b» T .0. 60

1 . 604 DL DEG* F 60 1227 103026 .406 b * f . u. 60

6950.810 LB/MIN 60 1233 356788 . 750 b * A .u. 60

6. 333 DL DEG. F 60 1234 48240 . 187 b • A ® J . 60

938.934 LB/MIN 60 1235 405028 .937 b • A . u. 60

1 46.063 KW (AVG) 60 1236 90010 .453 b * A . u. 60

20.573 KW (AVG) 60 1237 -4697 . 328 b * A . u. 60

1 19.087 VOLTS 60 1 238 85313 . 125 b * i . J. u. 61. 995 DEG. F. 55 124 1 .000 b • A . J . 0

201. 554 DEG* F. 60 1 242 • 000 b • A' . u. 60

200. 330 DEG.F. 60 1243 . 000 b. A .u. 60

6. 624 DL DEG.F 50 1244 .000 b * A . u. 60

438. 645 LB/MIN 60 1245 490342 • 062 b. T • u. 60

1.161 DL DEG.F 60 1246 490342 • 062 b. A • u • 60

2573.372 LB/MIN 60 1247 14381 .312 b » I . u. 60

8.591 DL DEG.F 60 1248 .000 b. A . u. 60

238. 678 LB/MIN 60 1249 • 000 b. A . u. 60

87. 732 KW (AVG) 60 1250 .000 b * T . u. 60

34.289 KW (AVG) 60 1251 123027 • 062 b *

'1' . u. 60

1 30.228 VOLTS 60 1252 51310 • 031 b. A . u. 50

61. 152 DEG.F. 55 1253 174337 .094 B * T .u. 50

1 98.956 DEG.F. 60 1254 866 .949 B. A • u. 60

1 97. 949 DEG.F. 60 1255 288882 .250 B* A' . J. 60

-.595 DL DEG.F 60 1256 289749 .250 B • 1 . u. 60

73
MBS

LOG

278

2 79

280

281

282

283

284

285

286

287

288

289

315

316

317

318

319

320

HOURLY SUMMARY FOR SEPTEMBER 20* 1976; 1100-1200 PAGE 5

VALUE UNITS TIME DER VALUE UN I TS TIME

4686.000 LB/ MIN 60 1257 464086.312 b . r . u ® 50

1.428 DL DEG.F 60 1258 554981.500 b . r . u

.

50

.000 LB/M IN 60 1259 954428*375 b » r . u . 50

55.966 KW (AVG) 60 1260 569362*750 b« r

.

u « 50

33.580 KW (AVG) 60 1266 669002.000 B • T . U • 60

26.880 KW (AVG) 60 1267 100338. 656 B * f . U . 60

1 18. 143 VOLTS 60 1268 .000 B • T * U • 60

1 1 1.867 VOLTS 60 1269 26731 . 184 b * r e U ® 60

61.705 DEG.F. 60 1270 796071. 750 b * T ® U » 60

201.254 DEG.F. 60 1271 1103720.500 B® 1 e u . 60

.000 SUM/WINT 0 1272 -623997. 125 b. T. u. 60

.000 SUM/WINT 0 1273 167273.687 b . f » U

.

60

46.000 KW (AVG) 60 1274 179297.812 b * T 9 u • 60

1.000 SUM/WINT 60 1275 411035.875 b . r e u • 60

.500 PER-CENT 60 1276 757607. 375 B * T » U 9 60

1.000 EFF. 60 1277 500971 . 125 b * T ® U 9 60

33.900 DEG. API 60 1278 1861327.750 b * i • u • 60

39200.000 BTU/GAL 60 1279 -123026.000 b * r 9 u • 60

1285 • 000 b 9 r • u • 0

1286 • 000 b * I « U • 0

1287 . 000 b » f e U « 0

1288 14562678.000 b • l ® u * 60

1289 669730.000 b * 1 e U » 60

1290 9005438.000 b • i 9 U • 60

1291 9675168.000 b • f 9 J 9 60

1292 .000 b •

1' 9 U • 0

1298 .000 GALLON S 0

1299 • 000 GALLONS 0

1300 • 000 GALLONS 0

1301 104.617 GALLONS 60

1302 4.811 GALLONS 60

1303 64. 694 GALLONS 60

1304 69.506 GALLONS 60

1305 . 000 GALLONS 0

1315 46.000 KW (AVG) 60

1316 1.000 SUM/W in r 60

1317 . 500 PER-CENT 60

1318 1 . 000 EFF. 60

1319 33.900 DEG* API 60

1320 139200.000 bTU* GAL 60

74
2 . DAILY

DAILY SUMMARY FOR SEPTEMBER 20* 1976

TOTAL DATA TIME! 1440 MIN UTES* ACTUAL TIME: 264 0: 0

N BS

LOC VALUE UNITS TIME DER VALUE UN I TS

10 55 638 PSI 1440 1010 -. 192 MINUTES

1 1 56 931 PSI 1440 1011 1414.947 MINUTES

12 1 207 PSI 1440 1012 1 16.431 MINUTES

13 335 PSI 1440 1013 27803.605 KWHC INS

14 005 PSI 1440 1014 8560.643 KWHC INS

15 1 1 773 168 LB/MIN 1440 1015 1 11.950 KWHC INS

1 6 2485 01 1 LB/M IN 1440 1016 19131.012 KWHC INS

1 7 2336 201 LB/MIN 1440 1018 • 000 KWHC INS

18 6887 752 LB/MIN 1440 1019 367.203 KWHC INS

19 6543 331 LB/MIN 1440 1020 2642.867 KWHC IKS

20 5512 026 LB/MIN 1440 1021 2388.825 KWHC INS

21 16965 340 LB/MIN 1440 1022 3680.268 KWHC INS

22 18247 160 LB/MIN 1440 1023 » 000 KWHC INS

23 786 361 LB/MIN 1440 1025 28223.805 KWHC AVG

24 17826 770 LB/MIN 1440 1026 8653*604 KWHC AVG

25 10268 971 LB/MIN 1440 1027 137.223 KWHC AVG

26 2858 187 LB/MIN 1440 1028 19432.973 KWHC AVG

27 846 58 7 LB/MIN 1,440 1030 • 000 KWHC AVG

28 8417 047 LB/MIN 1440 1031 375. 123 KWHC AVG

29 9862 311 LB/MIN 1440 1032 2800.131 KWHC AVG

30 000 GPM (AV) 1435 1033 2428. 678 KWHC AVG

31 5 410 GPM (AV) 1435 1034 3932.602 KWHC AVG

32 5 332 GPM < AV) 1435 1035 118.808 KWHC AVG

33 5 059 GPM (AV) 1435 1036 476. 1 10 KWHC AVG

34 3 968 GPM (AV) 1435 1037 3664.533 KWHC AVG

35 24 151 GPM (AV) 1435 1038 4150.239 KWHC AVG

36 22 440 GPM (AV) 1435 1039 .000 KWHC AVG

37 4 476 GPM (AV) 1435 1040 • 000 KWHC AVG

38 5 501 GPM (AV) 1435 1041 .000 KWHC AVG

39 3 021 GPM (AV) 1435 1042 • 000 KWHC AVG

40 3 060 GPM (AV) 1435 1043 60.185 KWHC AVG

41 1 158 484 KW (INS) 1440 1044 405.278 KWHC AVG

42 3 5 6 693 KW (INS) 1440 1045 465.61

KWHC AVG

43 4 665 KV ( INS) 1440 1046 1470.938 KWHC AVG

44 000 KW ( INS) 1440 1047 796.771 KWH (AVG

45 1 5 300 KW ( INS) 1440 1048 2267.710 KWHC AVG

46 1 10 119 KW ( INS) 1440 1049 796.878 KWHC AVG

47 99 534 KW ( INS) 1440 1050 3064.588 KWHC AVG

48 153 344 KW ( INS) 1440 1051 822.934 KWHC AVG

49 000 KW ( INS) 1440 1052 2128*970 KWHC AVG

50 202 162 DEG. F. 1440 1053 2970. 1 1 1 KWHC AVG

51 20 7 88 1 DEG. F. 1440 1054 72.374 KWHC AVG

52 20 1 665 DEG. F. 1440 1055 1818.965 KWHC AVG

53 2 14 434 DEG. F. 1440 1056 1891.345 KWHC AVG

54 197 88 1 DEG.F. 1440 1059 9655.338 KWHC AVG

55 218 502 DEG. F. 1440 1060 1 104.000 KWHCAVG

56 204 669 DEG. F. 1440 1061 979.056 KWHC AVG

57 20 2 523 DEG. F. 1440 10 62 6426.405 KWHCAVG

58 20 7 596 DEG* F. 1440 1063 2854. 1 10 KWHCAVG

PAGE 1

TIME

1440

1435

1435

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1435

1435

1435

1435

1435

1435

1435

1435

1435

1435

1410

1435

14 10

0

0

0

1435

1435

1405

1405

1435

1435

1435

1435

1435

1370

1435

1370

1435

1430

1430

1435

1440

180

180

180

75
NBS

LOG

59

60

6!

62

63

64

65

66

67

68

69

70

71

72

73

74

75

76

77

78

79

80

81

82

83

84

85

86

87

88

89

90

91

92

93

94

95

96

97

98

99

1 00

101

102

103

104

105

106

107

108

DAILY SUMMARY FOR SEPTEMBER 20* 1976 PAGE 2

VALUE UNITS TIME DER VALUE UNITS 1' I ME

202.079 DEG . F. 1440 1064 7405 .459 KWHC AVG) 180

202.434 DEG • F* 1440 1065 118 . 808 KWH(AVG) 1435

57* 686 DEG • F. 1440 1066 18568 .465 KWH(AVG) 1435

60® 601 DEG . F. 1440 1067 30398 «887 KWHC AVG) 180

58.847 DEG • F. 1440 1073 1692 ® 068 KWHCAVG) 1370

61.079 DEG . F. 1440 1074 • 000 KWHC AVG) 0

70. 156 DEG • F. 1440 10 75 • 000 KWHC AVG

)

0

74. 779 DEG .F. 1440 107 6 3948 .286 KWHC AVG) 1430

74.875 DEG .F. 1440 1077 2267 .816 KWHC AVG

)

1435

78.941 DEG • F. 1440 10 78 405 .278 KWHC AVG) 1405

8 1.360 DEG • F. 1440 1079 • 000 KWHC AVG) 0

86.354 DEG • F. 1440 1080 3664 *533 KWHC AVG) 1435

8 1.413 DEG • F. 1440 1081 e 000 KWHC AVG

)

0

2 1 7.886 DEG • F. 5 1082 « 000 KWHC AVG

)

0

1 26.553 DEG • F« 1440 1087 202281824 .000 B« f ® U ® 1440

90*821 DEG • F. 1440 1088 1 1 6057664 . 000 b » r ® u

.

1440

90. 751 DEG • F. 1440 1089 318339456 . 000 B* i * U * 1440

99*009 DEG .F. 1440 1090 304828608 • 000 B ® T • U • 1440

1 00.328 DEG • F. 1440 1051 5181246 .000 B * 1 • U * 1440

90-981 DEG • F. 1440 1092 8329605 .000 B * £ « U « 1440

91.583 DEG • F. 1440 1093 331850240 .000 B . T ® U ® 1440

307.627 DEG • F. 1440 1 100 .000 b® r a u

0

95.641 DEG a F. 1440 1 101 6401640 .000 B * T » U o 1440

654.854 DEG .F. 1440 1 102 640 1 640 .000 B® T» U. 1440

1 61.072 DEG • F. 1440 1 103 . 000 B • T » U • 0

4 76. 668 DEG .F. 1440 1 104 -4441271 .000 b * r » u ® 1440

1 57.515 DEG • F. 1440 1 105 -4441271 .000 B« f * U1440

5. 715 DL DEG. F 1440 1 106 20493504 . 000 B • T • U • 1440

- ® 492 DL DEG* F 1440 1 107 20480412 . 000 B * 1 • U • 1440

- . 205 DL DEG* F 1440 1 108 20480412 . 000 B» 1 ® U

1440

5.450 DL DEG* F 1440 1 109 -1656385 . 500 b • r • u • 1440

7.495 DL DEG. F 1440 1110 - 1 640 1 1 6 .750 b • r » u • 1440

- 1.815 DL DEG. F 1440 1111 - 1 640 1 1 6 • 750 B ® T • U ® 1440

. 000 DL DEG. F 50 1112 .000 B • T • U • 0

. 436 DL DEG* F 1440 1113 26882044 . 000 B * I » U

1440

1.953 DL DEG. F 1440 1 1 14 26882044 .000 B • r • u • 1440

15.626 DL DEG. F 1440 1115 .000 B • f ® U • 0

“4. 035 DL DEG* F 1440 1116 -6081389 .000 B • T • U • 1440

10*897 DL DEG* F 1440 1117 -6081389 .000 b • r * u • 1440

1 . 3 70 DL DEG. F 1440 1 1 18 .000 B * T • U • 0

2.920 DL DEG. F 1440 1119 71747504 . 000 B • a ® U • 1440

4® 386 DL DEG« F 1440 1 120 71747504 .000 B • i ® U ® 1440

1®026 DL DEG* F 1440 1 121 92548160 .000 B ® i’ * U » 1440

2.215 DL DEG» F 1440 1 122 189214048 .000 b® T « U • 50

4.469 DL DEG. F 1440 1123 189983232 .000 B ® f ® U * 50

8 . 276 DL DEG.F 1440 1 124 189214048 • 00 0 B« T « U * 50

4.427 DL DEG.F 1440 1 125 189214048 .000 B « T • U 9 50

- • 198 DL DEG. F 1440 1 126 . 000 b * r ® U 9 50

3 443 DL DEG. F 1440 1 127 184665792 *000 B® T « U 9 1440

1 • 946 DL DEG* F 1440 1 128 184521888 *000 B . I ® U • 1440

76
MBS

LOG

109

1 10

1 1 1

1 12

1 13

1 14

115

1 16

1 17

1 18

120

121

122

123

124

125

126

127

128

129

1 60

163

1 72

1 73

1 74

1 77

1 78

1 79

180

183

187

193

194

195

196

197

198

199

200

201

202

203

204

20 7

208

209

210

211

212

213

DAILY SUMMARY FOR SEPTEMBER 20* 1976 PAGE 3

VALUE UMITS TIME DER VALUE UNITS f IME

2 452 DL DEG* F 1440 1 129 184521688 000 B. T. u. 1440

1 1 75 992 KW (AVG) 1435 1 130 155057760 000 B. T. u. 1440

3 60 567 KW (AVG) 1435 1 131 79307520 000 B. T. u. 1440

5 718 KW (AVG) 1435 1 132 234365312 000 B. T. u. 1440

000 KW (AVG) 1435 1133 36403128 000 B* f. u. 1440

15 630 KW (AVG) 1435 1 134 33142132 000 B. T. u. 1440

1 16 672 KW (AVG) 1435 1 135 33142132 000 B* f. u. 1440

101 195 KW (AVG) 1435 1136 7568791 000 b» T. u. 1440

1 63 858 KW (AVG) 1435 1137 7436494 000 B. T. u. 1440

4 950 KW (AVG) 1435 1 138 7436494 000 B. T. u. 1440

000 ON/OFF 0 1 139 -1390951 000 B. T. u. 1440

000 ON/OFF 0 1 140 267393 187 B. T. u. 1440

000 ON/OFF 0 1 141 277481216 000 B. T. u. 1440

000 ON/OFF 0 1 142 277337408 000 B. T. u. 1440

000 ON/OFF 0 1 143 277337408 000 B- T. u. 1440

000 ON/OFF 0 1 144 276946240 000 B. T. u. 1440

000 ON/OFF 0 1 145 273552960 000 B. T. u. 1440

000 ON/OFF 0 1 146 273552960 000 B. T. u. 1440

000 ON/OFF 0 1 147 535044 000 B. T. U e 1440

000 ON/OFF 0 l 148 3784467 000 B- T. u. 1440

49 289 VOLTS 1440 1149 3784467 000 B® T. U e 1440

46 705 VOLTS 1440 1 155 36083904 000 B ® T. u. 1440

4 998 MINUTES 1435 1 156 000 B ® I. J. 1440

4 913 MINUTES 1435 1 157 000 B« T. u. 1440

404 MINUTES 1435 1 158 23176068 000 B« T. u. 1440

696 PWR* FACT 1440 1 159 12907832 000 B. T. u. 1440

59 992 HERTZ 1440 1 160 12907832 000 B. T. m*'. 1440

000 DL DEG* F 0 1161 319230 875 B. T. u. 1440

000 LB/MIN 0 1162 -2941773 500 B* T. u. 1440

000 KW (AVG) 1435 1163 -2941773 500 B. T. u. 1440

000 DEG.F* 0 l 170 50169384 000 B. T. u. 1440

000 DL DEG.F 1440 1 171 5150729 000 B® T. u. 1440

000 LB/MIN 1440 1 172 55320096 000 B. r. u. 1440

1 393 DL DEG.F 1440 1173 5443969 000 B. T. u. 1440

769 723 LB/MIN 1440 1 174 757840 250 B. T. u. 1440

2 4 76 DL DEG.F 1440 1175 000 B. T. u. 0

584 GPM (AV) 1435 1 176 31446700 000 B ® T. u. 1440

16 887 KW (AVG) 1405 1 177 31446700 000 B. T. u. 1440

2 508 KW (AVG) 1435 1178 5555217 000 B. T. u. 1440

56 002 VOLTS 1440 1 179 1 1757030 000 B. T. u. 1440

62 639 DEG.F. 1440 1 180 000 B* r. u. 0

1 94 832 DEG.F. 1440 1 181 43203720 000 B. T. u. 1440

199 450 DEG.F. 1440 1 162 4320372

0

000 B* T. u * 1440

6 638 DL DEG.F 1440 1 183 000 B. T. u. 0

739 900 LB/MIN 1440 1 184 12116384 000 B. T. u. 1440

2 414 DL DEG.F 1440 1 185 12116384 000 B* T. u. 1440

2822 189 LB/MIN 1440 1191 9954438 000 B. r. u.' 1440

6 607 DL DEG.F 1440 1 192 10089188 000 B. T. u. 1440

2 338 GPM (AV) 1435 1193 10089188 000 B* T. u. 1440

75 790 KW (AVG) 1430 1 194 217613 187 B. r. J. 1440

77
MBS

LOG

214

215

2! 7

218

219

221

222

223

224

225

226

227

228

235

236

237

238

239

240

241

242

243

244

245

246

249

250

251

252

253

254

25 5

256

257

259

2 60

261

263

264

265

266

267

268

2 69

2 70

271

2 73

2 74

2 75

277

E 4

TIME

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1440

1435

1435

1435

1440

1440

1440

1440

1440

1440

0

1435

1440

1435

1435

1435

1435

1440

1440

1440

1435

1115

1 1 15

1435

1435

1440

DAILY SUMMARY FOR SEPTEMBER 20* 1976

VALUE UNITS TIME DER VALUE UN I TS

3 016 KW (AVG) 1435 1 195 20335988 000 B. T. u.

8 1 194 VOLTS 1440 1 196 30508036 000 B. T* U e 65 449 DE6.F. 1330 1 197 30508036 • oo o B. T. Ue

1 90 461 DEG® F. 1440 1 198 30642784 000 B.T. u« 183 213 DE6.F. 1440 1199 30642784 000 B* T. u « 245 C/CM2/MM 1440 1200 8003005 000 Bo T. U a 093 C/CM2/MN 1440 1201 8329605 000 B® T

U ® 8 740 DEGREES 1440 1202 -813024 000 B. T. U . 103 028 MILES/HR 1440 1203 -30048 586 B. T. u • 30 343 XN.HG® 1440 1204 15018464 000 B * T • u. 72 940 DEG* F

1440 1205 29695003 000 B ® T » Uo

45 896 PER-CENT 1440 120 6 29695000 000 B* T» u. 000 DEG» F. 0 120 7 29829768 000 B.T. u.

6 142 DL DEG* F 1440 1208 29829768 000 B. T. u. 000 LB/MIN 1440 1209 29695000 000 B.T. u.

1 0 77 DL DEG.

1440 1210 29829768 000 B. T® u

19 90 060 LB/MIN 1440 1211 29829768 000 B. T. u.

6 396 DL DEG* F 1440 1212 31321024 000 B* T

U « 2 78 025 LB/MIN 1440 1213 -1626012 000 B.T. u. 000 KW (AVG) 0 1214 - 1826014 500 B.T. u®

000 KW (AVG) 0 1215 - 1491261 750 B • T * u.

1 18 030 VOLTS 1440 1216 -1491261 750 B.T. u. 60 607 DEG. F. 1440 1217 -1626013 500 B * T . u« 197 139 DEG.F. 1440 1218 - 1491260 250 B.T® u. 198 634 DEG* F. 1440 1219 - 1491260 250 B* T. u.

5 959 DL DEG.F 1440 1225 1033525 625 B.T. u. 10 76 856 LB/MIN 1440 1226 1435525 000 B. T. u.

1 416 DL DEG.F 1440 1227 2469050 500 B.T. u.

6 9 64 394 LB/MIN 1440 1233 8581212 000 B. T. U e 6 339 DL DEG.F 1440 1234 722917 250 B.T. u.

9 40 105 LB/MIN 1440 1235 9304128 000 B. T. u •

1 52 689 KW (AVG) 1435 1236 2559199 000 B.T. u. 19 838 KW (AVG) 1410 1237 -101735 016 B.T. u.

1 19 172 VOLTS 1440 1238 2457463 500 B- I. u. 61 031 DEG.F. 1335 1241 000 B.T. u. 201 786 DEG.F. 1440 1242 2462 760 b • r * u ® 200 720 DEG.F. 1440 1243 000 B* 1 ® u.

6 322 DL DEG.F 1115 1244 2462 7 60 B. To u.

5 00 308 LB/MIN 1440 1245 1 1766738 000 B.T* u.

1 216 DL DEG.F 1440 1246 1 1766738 000 B.T.' u. 2619 511 LB/MIN 1440 1247 1134996 000 B.T. U «

1 1 « 366 DL DEG.F 1435 1248 000 B.T® u • 2 19 • 169 LB/MIN 1440 1249 000 B.T® u. 88 * 707 KW (AVG) 1435 1250 000 B. T. u. 34 .289 KW (AVG) 13 70 1251 4052565 500 B*T® u.

1 30 .453 VOLTS 1440 1252 -307916 » 250 B- T

u * 60 .819 DEG.F. 1350 1253 4606460 ® 000 B« T • U O

! 98 • 806 DEG® F. 1440 1254 22257 « 375 B * T * u ®

1 98 *312 DEG. F. 1440 1255 7050363 .000 B ® T . u.

- . 625 DL DEG.F 1410 1256 7072822 . 000 B* T * u.

78
N BS

LOC

2 78

2 79

2 80

281

282

283

2 84

285

286

287

2 88

289

3 15

3 16

3 17

3 18

3 19

3 20

DAILY SUMMARY FOR SEPTEMBER 20* 1976 PAGE 5

V/4.UE UNITS TIME DER VALUE UN I TS TIME

A 68 6. 000 LB/M IN 1440 1257 11657700.000 fa • 1 • U • 1115

1 .245 DL DEG* F 1440 1258 12734876.000 fa . T . U . 1 1 15

• 000 LB/M IN 1440 1259 24029080.000 fa.T.'U. 1115

61.289 KW (AVG) 1435 1260 13457276.000 B . f • U • 1 115

33. 199 KW ( AVG) 1435 1266 14200098.000 fa . T • U . 1440

3 3.203 KW (AVG) 1435 1267 3084700.500 B • T * U * 1440

1 18.869 VOLTS 1440 1268 .000 B.T.U. 1440

1 10.876 VOLTS 1440 12 69 1536270.500 fa. T. U. 1440

60. 793 DEG. F. 1440 1270 18821072.000 B.T.U. 1440

201. 606 DEG. F. 1440 1271 25022868.000 fa.T.U. 1440

• 000 SUM/VINT 0 1272 -13265850.000 fa. T. U. 1440

. 000 SUM/WINT 0 1273 4215489.000 B.T.U. 1410

4 6.000 KW (AVG) 1440 1274 4593305 .000 B.T.U. 1440

1 • 000 SUM/WINT 1440 1275 9809110.000 B ® T * U . 1440

• 500 PER-CENT 1440 1276 18612800.000 B.T.U* 1410

1 • 000 EFF. 1440 1277 12850484.000 B.T.U. 1410

33.900 DEG. API 1440 1278 43703352.000 B.'T.U.' 1410

39200.000 BTU/ GAL 1440 1279 -442126*312 B * T » U » 14 10

1285 • 000 fa ® T . U ® 0

1286 2181524.000 B • f • U . 160

1287 .000 B.T.U.' 0

1288 339729984 .000 fa * t ® U ® 1435

1289 15707948.000 B.T.U. 1435

1290 215837312.000 B.T.U* 1435

1291 231545376.000 B.T.U. 1435

1292 • 000 B.T.U. 0

1298 • 000 GALLONS 0

1299 15.672 GALLONS 180

1300 • 000 GALLONS 0

1301 2440.588 GALLONS 1435

1302 1 12.'845 GALLONS 1435

1303 1550.555 GALL0L5 1435

1304 1663.401 GALLONS 1435

1305 • 000 GALLONS 0

1315 1104.000 KW (AVG) 1440

1316 1.000 SUM/WINT 1440

1317 • 500 PER-CENT 1440

1318 1.000 EFF* 1440

1319 33.900 DEG. API 1440

1320 139200.000 BTU/GAL 1440

79
3 . MONTHLY

MONTHLY SUMMARY FOR SEPTEMBER 1976 PAGE 1 T OTAL

N BS

DATA TIMES 41020 MINUTES# ACTUAL TIMES 245 OS 0

LOG VALUE UNITS TIME DER VALUE UNITS TIME

10 5 1. 398 PSI 41000 1010 -2. 104 MINUTES 41020

1 1 48® 1 77 PSI 4 1020 1011 35681.656 MINUTES 40135

12 8.929 PSI 4 1020 1012 9408.479 MINUTES 40135

13 . 275 PSI 4 1020 1013 799000.625 KWHC 1LS) 41020

14 • 045 PSI 4 1020 1014 209559.219 KWHC INS) 41020

15 1 1579® 326 LB/MIN 41015 1015 38338.719 KWH(KIS) 41020

1 6 2398* 346 LB/MIN 41010 1016 551 102® 750 KWHC INS) 41020

1 7 2293*812 LB/MIN 40225 1018 ® 000 KWHC INS) 41020

18 7041 . 582 LB/MIN 4 1010 1019 9602*703 KWHC KjS) 41020

19 6586® 456 LB/MIN 41005 1020 79032.328 KWHC INS) 41020

20 5561. 771 LB/MIN 41020 1021 65791.687 KWHC I.iS) 41015

21 1 6582. 301 LB/MIN 41020 1022 98060.562 KWHC INS) 4 1020

22 13672. 738 LB/MIN 4 1000 1023 • 000 KWHC INS) 41020

23 790® 819 LB/MIN 4 1020 1025 809468.750 KWHC AVG

)

40135

24 1 6966.988 LB/MIN 2 7105 1026 211870.625 KWHCAVG) 40125

25 9838. 746 LB/MIN 39430 1027 385 13® 672 KWHC AVG

)

40025

26 2859. 493 LB/MIN 41020 1028 559083.375 KWHCAVG) 40015

27 832. 853 LB/MIN 30895 1030 • 000 KWHCAVG) 40135

28 8 1 53. 1 19 LB/MIN 27715 1031 9782.033 KWHCAVG) 40135

29 7831.028 LB/MIN 40990 1032 83309.922 KWHCAVG) 40130

30 . 000 GPM CAV) 40135 1033 66207.031 KWHCAVG) 40130

31 5.515 GPM (AV) 400 75 1034 102638.156 KWHCAVG) 40135

32 5.435 GPM < AV

)

40135 1035 3110.234 KWHCAVG) 40100

33 4.939 GPM (AV) 40135 1036 14217.898 KWHCAVG) 40040

34 4.228 GPM (AV) 40135 1037 105028.016 KWHCAVG) 40135

35 24® 105 GPM (AV) 40125 1038 1 19256.047 KWHCAVG) 40040

36 22. 469 GPM (AV) 40135 1039 .000 KWHCAVG) 0

37 4.09 1 GPM (AV) 40125 1040 • 000 KWHCAVG) 0

38 5.077 GPM (AV) 40130 1041 • 000 KWHCAVG) 0

39 3.477 GPM (AV) 33230 1042 1.766 KWHCAVG) 40185

40 3.459 GPM (AV) 33250 1043 1313.621 KWHCAVG) 40135

41 1 10 7® 273 KW (INS) 41020 1044 9951.068 KWHCAVG) 400 65

42 287.995 KW ( INS) 4 1020 1045 1 12 64.805 KWHCAVG) 40065

43 5 2.490 KW ( INS) 41020 1046 43444.977 KWHCAVG) 40 135

44 • 000 KW (INS) 41020 1047 21762.734 KWHCAVG) 40090

45 13.302 KW C INS) 41020 1048 65212.289 KWHCAVG) 40090

46 109. 861 KW ( INS) 41020 1049 23785.141 KWHCAVG) 40135

4 7 9 0. 828 KW < INS) 41015 1050 89000.125 KWHCAVG) 40090

48 135.482 KW (INS) 41020 1051 25471.598 KWHCAVG) 39990

49 * 000 KW C INS) 41020 10 52 66487.500 KWHCAVG) 40130

50 199® 157 DEG. F. 41020 10 53 91981.531 KWHCAVG) 39985

5 1 203.514 DEG. F. 40520 1054 2207.447 KWHCAVG) 40135

52 1 99® 450 DEG. F. 41020 10 55 51131.383 KWHCAVG) 40130

53 208. 169 DEG* F. 4 1020 10 56 53338.844 KWHCAVG) 40130

54 1 9 6» 22 1 DEG® F* 41020 1059 265096. 125 KWHCAVG) 40090

5 5 21 1.618 DEG. F® 41020 10 60 33120.000 KWHCAVG) 43200

56 202® 052 DEG. F® 41020 1061 30607.930 KWHCAVG) 6190

57 1 99® 604 DEG® F« 41020 1062 196093.594 KWHCAVG) 6190

58 204.42? DEG. F® 41020 1063 83761.828 KWHCAVG) 6190

80
MONTHLY SUMMARY FOR SEPTEMBER 1976 PAliE 2

N BS

LOC VALUE UNITS TIME DER VALUE UNITS TIME

58 204 42 7 DEG. F. 41020 10 63 83761*828 KWHCAVG) 6190

59 199 060 DEG. F. 41020 10 64 226701*500 KWHCAVG) 6190

60 199 482 DEG . F. 41020 10 65 3110*234 KWHCAVG) 40100

61 48 542 DEG * F. 4 1020 10 66 544359*000 KWHCAVG) 40090

62 49 675 DEG* F. 41020 10 67 826882*500 KWH(AVG) 6170

63 48 504 DEG. F. 41020 1073 49443* 312 KWHCAVG) 39970

64 5 0 923 DEG• F. 41020 10 74 *000 KW'H(AVG) 0

65 69 732 DEG. F. 41020 10 75 *000 KWH(AVG) 0

66 75 362 DEG. F. 41020 10 76 1 1 7619*234 KWH(AVG) 40125

67 73 780 DEG . F. 41020 1077 67230* 109 KWHCAVG) 40135

68 7 7 995 DEG• F. 41020 1078 9952*836 KWHCAVG) 40065

69 79 906 DEG. F. 41020 10 79 *000 KWHCAVG) 0

70 84 931 DEG• F. 41020 1080 105028*016 KWHCAVG) 40135

71 79 994 DEG. F. 41020 1081 *000 KWHCAVG) 0

72 1 76 803 DEG . F. 7410 1082 * 000 KWHCAVG) 0

73 130 545 DEG. F. 41020 108 7 4540280832*000 B.T.U* 40615

74 84 866 DEG. F. 41020 1088 2659220480*000 B* T » U • 32810

75 84 702 DEG• F. 41020 1089 7262274560*000 B.T.U* 32405

76 94 746 DEG. F. 41020 1090 7 107586048*000 B •

T

• U • 26400

77 95 974 DEG. F. 4 1020 1091 124074000*000 B • T • U • 41020

78 8 7 721 DEG. F. 41020 1092 229037920*000 B • T * U * 3484 5

79 88 213 DEG. F. 41020 1093 7906913280*000 B « 1 •

U

• 26400

80 268 856 DEG. F. 41020 1 100 *000 B • T • U • 0

81 9 0 903 DEG. F* 41020 1 101 1 11341488.000 B.T.U. 40235

82 558 469 DEG. F. 40385 1 102 1 11341488*000 B •

T

• U • 40235

83 212 213 DEG*F* 41020 1103 *000 B * T • U • 0

64 4 13 362 DEG• F. 41020 1 104 -9331 1600*000 B.T.'U* 40215

85 190 627 DEG*F* 41020 1 105 -93311600*000 B.T.U* 40215

86 4 738 DL DEG* F 40240 1 106 486566272*000 B.T.U* 40510

87 295 DL DEG* F 41020 1 107 486308736*000 B.T.U* 40235

88 - 234 DL DEG* F 41020 1108 487077568*000 B.T.U* 40510

89 5 23 3 DL DEG* F 41000 1 109 34343544*000 B.T.U* 40225

90 5 751 DL DEG. F 41020 1 1 10 34451864*000 B.T.U* 40225

91 - 670 DL DEG* F 41010 1 1 1 1 34451864*000 B.T.U* 40225

92 1 930 DL DEG* F 3910 1 1 12 *000 B * T * U * 0

93 519 DL DEG* F 40990 1 1 13 602923520*000 B.T.U. 41010

94 2 265 DL DEG* F 40855 1 1 14 602923520*000 B.T.U. 41010

95 1 1 892 DL DEG* F 40955 1 115 *000 B * 1 * U * 0

96 -4 470 DL DEG. F 40825 1116 -58839560*000 B.T.U. 402 1 'd 97 7 190 DL DEG* F 41020 1117 -58839560*000 B.T.U. 40215

98 1 528 DL DEG* F 40695 1 1 18 *000 B * T * U * 0

99 3 282 DL DEG* F 40940 1 1 19 2063543296*000 B.T.U. 40200

1 00 5 776 DL DEG* F 41020 1120 2063543296*000 B.T.U. 40200

1 01 847 DL DEG* F 40 670 1121 2613410816*000 B.T.U. 41000

1 02 2 514 DL DEG* F 41015 1122 3160504832*000 B.T.U. 3910

1 03 7 243 DL DEG* F 41020 1123 3160312320*000 B* T • U * 3910

l 04 6 133 DL DEG* F 40615 1124 3160505344*000 B.T.U. 3910

1 05 3 930 DL DEG* F 328 10 1125 3160505344*000 B.T.U. 3910

1 0 6

- 229 DL DEG* F 41020 1 126 693677440*000 B.T.U. 3910

1 0 7 4 229 DL DEG* F 40955 1127 3575449088*000 B.T.U. 41015

81
N BS

LOC

I 0 7

1 08

1 09

1 10

I 1 i

1 12

1 13

1 14

I 15

1 16

1 1 7

1 18

1 20

1 21

1 22

1 23

I 24

1 25

1 26

1 27

1 28

1 29

1 60

1 63

1 72

1 73

1 74

1 77

I 78

1 79

1 BO

1 83

I 87

1 93

l 94

i 95

1 96

I 9 7

1 98

I 99

2 00

2 01

2 02

2 03

2 04

2 07

2 08

2 09

2 10

2 1 1

MONTHLY SUMMARY FOR SEPTEMBER 1976 PAGE 3

VALUE UNITS TIME DER

4 229 DL DEG.F 40955 1 127

1 048 DL DEG.F 349 10 1128

1 930 DL DEG.F 4 1020 1 129

1 120 576 KW CAVG) 40135 1130

289 888 KW CAVG) 40 1 25 1131

52 694 KW CAVG) 40025 1132

000 KW CAVG) 40135 1133

1 3 544 KW CAVG) 40135 1134

1 1 5 92 6 KW CAVG) 40130 1 135

9 1 201 KW CAVG) 40130 1136

141 672 KW CAVG) 40135 1137

4 310 KW CAVG) 40100 1 138

000 ON/OFF 0 1 139

000 ON/OFF 0 1140

000 ON/OFF 0 1 141

000 ON/OFF 0 1 142

000 ON/OFF 0 1 143

000 ON/OFF 0 1 144

000 ON/OFF 0 1145

000 ON/OFF 0 1 146

000 ON/OFF 0 1 147

000 ON/OFF 0 1148

49 358 VOLTS 4 1020 1149

46 573 VOLTS 41020 1155

5 000 MINUTES 40135 1156

4 073 MINUTES 40135 1157

1 068 MINUTES 40135 1 158

700 P WR. FACT 41020 1159

59 999 HERTZ 41020 1 1 60

000 DL DEG.F 0 1161

344 030 LB/MIN 20 1162

003 KW CAVG) 40135 1163

000 DEG. F. 0 1170

000 DL DEG* F 41020 1171

000 LB/MIN 41020 1172

2 315 DL DEG.F 40985 1173

559 649 LB/MIN 41020 1174

2 385 DL DEG.F 34115 1175

064 GPM CAV) 40135 1176

i 4 050 KW CAVG) 40065 1177

1 84 7 KW CAVG) 40135 1 178

55 338 VOLTS 41020 1 1 79

52 699 DEG. F. 4 1020 1180

192 340 DEG. F. 41020 1181

1 95 064 DEG. F. 40615 1182

8 456 DL DEG® F 41005 1183

7 70 135 LB/MIN 41020 1184

3 110 DL DEG. F 41015 1185

25 40 772 LB/MIN 41020 1191

6 590 DL DEG. F 4 1015 1192

VALUE UNITS TIME

3575449088 000 B. T u. 41015

3575043072 000 b. T u® 41015

3575043072 000 B« T u. 41015

3620448768 000 b. T u. 40 945

1 142693632 000 B. T u. 40945

4762614784 000 B. T u. 41015

12221 18656 000 B- T u. 41015

1 1 30434560 000 b. T 'U* 40850

1124976896 000 Be r U® 41015

271216576 000 B. T u • 41015

258856672 000 B. T U® 40985

261953312 000 B* T u. 410 15

-48675744 000 B® T u . 41015

-17916852 000 Be T u. 4 1000

6171609088 000 B. r u. 4 1000

61 711 57504 000 B* T u. 41000

6171157504 000 B© T u. 4 1000

6207275008 000 Be T u. 41015

6 102960 128 000 B* T u. 40840

6100869120 000 B* T u. 410 15

-35826744 000 B® T u. 4 1000

69533152 000 Be T U® 40840

70165008 000 B® T u. 41000

1217056512 000 B* T u. 40 690

000 B. T u. 43200

000 B. T u. 43200

783505024 000 B. T u. 40940

432854912 000 B* T u.‘ 40 690

432854912 000 B. T u. 40 690

9423112 000 B. T u. 40 68 5

-85451936 000 B. T u. 40 68 0

-88236528 000 B. T u. 40 685

1085969920 000 B. T u. 39430

589488640 000 B* T uv 26855

1606886400 000 B® T u. 26855

224175296 000 B. T u. 30895

29978172 000 B® T u. 41020

000 B. T u. 0

838152576 000 B* T u. 40990

838152576 000 B. T u. 40990

28105752 000 B. T u. 27095

303152640 000 B. T u. 27095

000 B® T u. 0

1175510016 000 B® T u. 27095

1175510016 000 B. r u. 27095

000 B. T u. 0

436560256 '000 B. T u. 26845

436560256 ‘000 B® T u. 26845

238367936 000 B. T u. 41020

240827328 000 B. T u. 41020

82
N BS

LOC

2 1 1 2 12

2 13

2 14

2 15

2 1 7

2 18

2 19

221

2 22

2 23

2 24

2 25

2 26

2 27

228

2 35

236

2 37

238

2 39

2 40

241

242

2 43

244

245

246

2 49

250

2 5 1 2 52

253

2 54

2 55

256

2 57

259

2 60

2 61

2 63

2 64

2 65

2 66

2 67

2 68

2 69

2 70

2 71

2 73

MONTHLY SUMMARY FOR SEPTEMBER 1976 PAGE 4

VALUE UNITS TIME DER

6 590 DL DEG.

41015 1192

2 143 GPM (AV) 40135 1193

7 0 829 KW (AVG) 40130 1194

3 071 KW (AVG) 40135 1195

83 577 VOLTS 41020 1196

58 444 DEG. F. 40800 1197

184 827 DEG. F. 41020 1 198

177 040 DEG* F. 408 55 1199

226 C/CM2/MN 41020 1200

079 C/CM2/MN 41020 1201

1 008 DEGREES 41020 1202

103 062 MILES/ HR 41020 1203

30 591 IN.HG. 41020 1204

67 405 DEG« F* 41020 1205

52 38 7 PER-CENT 41020 1206

000 DEG* F. 0 120 7

5 942 DL DEG* F 409 65 1208

000 LB/MIN 41020 1209

735 DL DEG* F 40685 1210

1994 234 LB/MIN 41020 12 U

6 808 DL DEG® F 41015 1212

277 066 LB/MIN 41020 1213

000 KW (AVG) 0 1214

000 KW (AVG) 0 1215

1 18 182 VOLTS 41020 1216

50 633 DEG* F« 409 65 1217

193 876 DEG. F. 40 750 1218

195 678 DEG* F. 40730 1219

6 038 DL DEG* F 40805 1225

1032 203 LB/MIN 41020 1226

1 110 DL DEG* F 40915 1227

7053 854 LB/MIN 41020 1233

6 379 DL DEG.40795 1234

9 30 040 LB/MIN 41020 1235

145 142 KW (AVG) 40135 1236

19 740 KW (AVG) 40040 1237

1 18 929 VOLTS 41020 1238

5 1 319 DEG. F. 40800 1241

198 804 DEG. F. 40940 1242

197 760 DEG. F. 41020 1243

6 610 DL DEG* F 32730 1244

48 1 293 LB/MIN 41020 1245

1 053 DL DEG.

40960 1246

2469 101 LB/MIN 41020 1247

1 1 200 DL DEG.

40695 1248

258 41

LB/MIN 4 1020 1249

92 464 KW (AVG) 40 1 30 1250

35 394 KW (AVG) 39990 1251

130 893 VOLTS 4 1020 1252

5 0 084 DEG. F. 40890 1253

VALUE UNITS TIME

240827328 • 00% B. T .u. 41020

240827328 .000 B. T • u. 41020

10999480 • 000 B. T • u. 41020

608739840 • 000 B. T .u. 41020

858106880 • 000 B. T . u. 41020

858106880 .000 B. T . u. 41020

860566528 . 000 B. T • u.' 41020

860566528 .000 B* T . u . 4 1020

123135472 .000 B® T • u. 34910

229037920 .000 B* T . u. 34845

-28229428 .000 B. r .u. 41020

-613580 ® 875 B* T • u. 41020

546454784 .000 B. X . u. 40955

829877760 ®000 B. T • u. 41020

629877376• 000 B* T . u. 41020

832337024 .000 B. T « u . 41020

832337024 .000 B. r • u# 41020

830086528 . 000 B* T • u.' 39755

832537600 .000 B® T • u.' 39755

832537600 .000 B. T e U • 39755

893619200 .000 B* T t J. 33470

-56805024 .000 B* T • u. 33470

-56805104 .000 B. f . u. 33470

-54317208 .000 B. T • u. 33470

-54317208 .000 B* T .u. 33470

-56805072 .000 B* T ®U. 33470

-54317168 . 000 B. T • u.' 33470

-54317168 • 000 B. T • u. 33470

20216884 .000 B« T • u. 4007 5

39415632 • 000 B. T • u. 40125

59633608 .000 B. T • u. 400 65

256957056 .000 B. T • u. 40795

14057096 .000 B. T . u. 407 95

270956544 • 000 B. T . u. 40805

80467776 .000 B. T .u. 410 15

-10687476 .000 B. T .u. 40960

69844960 • 000 B. T • u.' 40965

• 000 Be T • u. 0

7310 .021 B. T • u; 33310

• 000 B. T • u. 41020

7310 .021 B. T .u. 33310

345187200 • 000 B. T • u. 32595

345187200 • 000 B. T • u. 32595

92331840 • 000 B. T .u. 32490

• 000 B. T • u. 37385

• 000 B. T .u. 43200

.000 B. T .u. 37385

138922496 • 000 B. T • u. 40 695

-30569224 .000 B. T . u. 32725

136463296 • 000 B. T .u. 32730

83
N BS

LOG

2 73

2 74

2 75

2 77

2 78

2 79

2 80

2 8 1 2 82

2 83

2 84

2 85

2 86

2 87

2 88

2 89

3 I 5

3 1 6

3 1 7

3 18

3 19

3 20

MONTHLY SUMMARY FOR SEPTEMBER 1976 PAGE 5

VALUE UNITS TIME DER VALUE UN I TS r i me

50*084 DEG. F. 40890 1253 136463296 000 B ® 1 * U • 32730

19 6.057 DEG. F. 41020 1254 609192 250 B • T • U • 40135

195.509 DEG. F. 41020 1255 282970752 000 B » T » U • 40 120

- 1.568 DL DEG.

38670 1256 283464128 000 B.T.U. 41005

3845*256 LB/MIN 43140 1257 420417088 000 B* T • U

29950

1 . 342 DL DEG® F 37385 1258 414484480 000 b« r ® u

29895

• 000 LB/MIN 41020 1259 772402816 000 B • 1 o U e 25125

60.230 KW (AVG) 40135 12 60 512038528 000 b » r ® u25065

30.063 KW (AVG) 40090 1266 341837888 000 B*T*U. 40915

32. 950 KW (AVG) 40135 1267 64780856 000 B.T*U. 40 68 5

1 19. 139 VOLTS 4 1020 1268 000 B.T.U* 43200

118.851 VOLTS 4 1015 12 69 50358672 000 B. T. U* 40 98 5

5 7.693 DEG. F. 3 6095 12 70 454385280 000 B • T * U • 39 180

192. 973 DEG. F. 39920 1271 735054976 000 B • T e U . 29425

. 000 SUM/WINT 0 1272 -487735744 000 B.T.U. 25870

. 000 SUM/WINT 0 1273 129484336 QUO B.T.U. 38 670

4 6.000 KW (AVG) 4 3200 12 74 1 15748016 000 B.T.U. 409 60

1 • 000 SUM/WINT 43200 1275 339673536 000 b • i « U • 4 10 15

. 500 PER-CENT 43200 1276 584567040 000 B.T.U. 38645

1 . 000 EFF. 43200 1277 266362496 000 B ® T ® U * 38645

33.900 DEG. API 4 3200 12 78 1322289664 000 b « r . u27730

38966. 656 BTU/ GAL 43200 1279 -191434464 00 0 B » T * U ® 24445

1285 000 b * r . u • 0

1286 1225264128 000 B * T • U * 6940

1287 000 B * 1 « U • 0

1288 9768740864 000 B » i' • U « 40 125

1289 479334400 000 B • f * U « 4007 5

1290 4258932224 000 B.T.U f 40135

1291 4738601984 000 B.T.U. 4007 5

1292 000 B * T » U • 0

1298 000 galloms 0

1299 8823 734 GALLONS 6940

1300 000 GALLON IS 0

1301 70288 500 GALLOMS 40125

1302 3449 461 GALLO IS 4007 5

1303 30623 777 GALLONS 40135

1304 34075 641 GALLONS 4007 5

1305 000 GALLON S 0

1315 33120 000 KW (AVG) 43200

1316 1 000 SUM/WINT 43200

13 17 500 PER-CENT 43200

1318 1 000 EFF® 43200

13 19 33 900 DEG. API 43200

1320 138966 656 BTU/GAL 43200

84
KILOWATTS

VI. TYPICAL GRAPHICAL DISPLAYS

1. DAILY

6- 6-77 976 110

TOTAL POWER OUTPUT ALL ENGINES

85
KILOWATTS

2 . MONTHLY

6 - 6-77 976 110

TOTAL POWER OUTPUT ALL ENGINES

DAY OF MONTH

86
KILOWATTS

3 . YEARLY

1 300 . 0T

1 200 0»

1100 0«*

1 000 0. .

ft'

800 0.

700 0-

600 0.

500 0-

4U0 0.

300 0

* 6- 6-7? 975 110

TOTAL POWER OUTPUT ALL ENGINES

NBS CODE 501

4 1 1 1- I

1 4 1 1 J 1 1 1 1 | 1 1 1 SEP NOU JhN MAR MAY JUL SEP NOU JAN MhR

OCT DEC FEB APR JUN AUG OCT DEC FEB APR

1975 1976 1977

87
VII. TYPICAL MODEM SCAN OUTPUT

1. CHARACTERS RECEIVED

1 541415019771581032

7 6475 00 600 V+0 1 7475

14715 00301 V+0 2 138

2 4 625 0080 1 V+0 20 24

0 9385 00502V-000025

12435 00203V+0 18755

2 1375 00 703 V+0 20 38

2 5 125 00404V+0 12735

5 9745 009 04V+0 39045

07035 00 60 5 V+0 8 104

2 290 5 0030 6V+00 1535

3 9845 00806V+046 195

4 7725 00 50 7 V+0 0000

6 1 745 00 20 8 V+0 55205

5 9615 0 07 08V+0 61335

0 4915 00409V+0 15975

0 0145 00909 V+004405

5 0085 00 6

3 7295 00 3

3 9825 008

3 6095 00 5

0 0345 00 2

0 0035 00 7

2 0 635 012

5 8615 017

1 9935 022

6 5585 02 7

4 525 5 03 2

4 5515 03 7

1 1915 04 2

12115 04 7

3 9692 052

4 04 72 05 7

0 3 782 0 62

1 2042 067

1 0902 0 72

1 3442 07?

6 5902 082

0 1552 08 7

0 1492 092

0 6732 09 7

0 1502 102

0 0912 10 7

0 0515 112

4 9195 1 1 7

2 3015 122

2 2945 1.2 7

2 2865 132

2 2845 137

7 5095 142

1 8 245 147

l 7465 152

i 7515 157

0 0026 162

0 0006 167

0 0043 1 72

1 5 135 177

1 0V+038825

1 1 V+0 28 29

1 1 V+0 39065

12V- 150035

13 V+0 01 03

1 3V-000045

V+0 2 1 I 75

V+0 54025

V +067685

V+0 24 635

V+0 2 125

V+028745

V-000175

V +008 665

M+039672

M +039882

M+003022

M +01 2542

M+0Q4652

M+013872

M+029092

M -00 1562

M+ 1 43532

M+Q07172

M+0 12382

M +0235 12

V+0 18835

V +006525

V+022995

V +0229 3

V +022885

V+0 22835

V+098475

V+0 16445

V+0 1 7475

V+0 I 7525

V -00001

V -00000

V +02 1285

V+0 29 5 65

00200V- 120835

00 700V +04008

00401 V+035035

00901 V +084 53

00 60 2 V+0 10345

00303 V+0 3 5 58

00803 V+0 3442

00 504 V+0 30 145

00205 V+0 3 7 28

00 705 V+0 53295

00406 V +049 33

00 906V +001 1 75

00 60 7 V+0 49 24

00 308 V+0 2 744

00808 V+0 58 765

00 5 09 V+0 00 00 5

00210 V+0 12165

007 10 V+0 12925

0041 1 V+037625

00911 V +000 34

006 12V-000035

003 1 3 V-000 1 55

00813 V-000255

013 V+0 19515

018 V +033265

023 V+026145

028 V +029655

033 V+0 10 185

038 V+0 30 265

043 V-000235

048 V +0042 1

053 M +039272

058 M +0409 1

063 M+003102

068 M+0 10892

073 M +02 1922

078 M+0 12352

083 M +029362

088 M+002622

093 M+001352

098 M+003652

103 M +029692

108 M +000 072

113 V +00000

118 V+026145

123 V +022985

128 V +022925

133 V +022865

138 V +022825

143 V+0 52395

148 V+0 16805

153 V+0 17495

i 58 V+0 17535

163 V +004 72

168 V -00000 6

173 V +022965

1 7800 V+0 25 185

00 300 V+ 156295

00800V +04 6935

0050 1 V+043825

00 20 2 V+0 72 64

00702V-005895

00403 V+0 4 9 50

00 903V +0228 15

00 604 V+0 19095

00305 V+006075

00805V+029615

00 50 6 V+0 64715

0020 7 V+003 765

00 70 7V+025725

00 40 8 V+0 41 125

00 90 8 V+0 7 7 705

00609V+009765

00310 V+0280 15

008 10 V+0 034 95

’©051 1 V- 1 50055

0021 2 V +0044 1

00712V +039665

0041 3 V+0 00 08

00 913V +000335

014 V+0 19005.

019 V +©47885

024 V +029565

029 V+023075

034 V+005525

039 V+0 11555

044 V-000365

049 V-000295

054 M+039112

059 M+039742

064 M+003632

069 M+0 10892

074 M+0 11 702

079 M+0 12452

084 M+G29882

089 M+0 16692

094 M+0G5312

099 M+006462

104 M+004812

109 M+000062

114 V+044545

119 V+0 23045

124 V +022965

129 V +0229 1

134 V+022865

139 V+0228 i

144 V+092785

149 V+0 1 7425

154 V+0 17505

159 V+0 1 7535

164 V+000006

169 V "000 00

174 V+0 l 6645

1541415019771

00 400V +023395 00500 V+0

00900 V -00 1205 0020 1 V-0

00601 V+02 1425 00701 V+0

00302V+001085 0040 2 V+0

00802V+001745 00 90 2 V+0

00503V-000015 00 603 V+0

00204 V+0 2 22 8

00304 V+0

00704 V+0 397 65 00804 V+0

00405 V+0 41 105 00505 V+

00905 V+02 1285 0020 6 V+0

00606V+05 1965 0070 6 V+0

00307 V+044585 00407 V+0

00807 V +04 7 645 00907 V+Q

00 50 8 V+0 00 00

00608 V+0

00 20 9 V+0 7 4 98 5 00309 V-0

00709V-000045 0080 9 V-0

004 10 V+005 135 00510V-1

009 10V+040 195 0021 1 V+0

0061 1V+039175 007

l V+0

003 1 2 V-000 1 55 004 12 V+0

008 12V +038805 009 12 V+0

005 1 3 V" 1 50025 00 6 1 3 V-Q

010 V+0727S5 on V+0

015 V+064155 016 V+0

020 V+069655 021 V+0

025 V+0 207 65 026 V+0

030 V+0354.1

031 V+0

035 V+0 3 1 295 036 v +0

040 V+029525 041 V+0

045 V+0 2 7 505 04 6 v +0

050 M+039702 051 M+0

055 M+041342 05 6 M+0

060 M+039652 061 M+0

065 M+006952 066 M+0

070 M+0 12392 07 1 M+0

075 M+0 1 1602 07 6 M+0

080 M+029372 081 M+0

085 M+030252 086 M+0

090 M-002812 09 1 M-0

095 M+0002 1

096 M-0

100 M-0220 1

101 M-0

105 M+0 13252 106 M-0

110 V+042595 1 1 1 V+0

115 V+0330 I

116 V+0

120 V+023025 12! V+0

125 V +022955 126 V+0

130 V+G22895 13! V+0

135 V+022845 136 v+0

140 V+035555 14! v +0

145 V+051 125 146 v +0

150 V+0 17445 151 V+0

155 V+0 1 75 1

156 V+0

160 V+004956 161 V+0

165 V-0000 1

166 V-0

170 V-000043 171 v -0

175 V+0 158 15 176 v +0

581034 00200 V+0221 95

88
2. CONVERTED OUTPUT

LABEL: 1 541 41 501 977> 1IME: 159 8:37

LOG MBS VO Li' AGE VALUE FLAG

10 202 7268 000 M v. 65.850 PS I 0

1 1 220 20 71 000 M V. • 887 PS I 0 L - jse :

1 2 221 67A2 000 M V. 59.275 PS I 0

13 230 1 98A 000 M V. -.002 PSI 0 L - JSE

1 A 231 3686 000 M 9. .228 PS I 0

1 5 301 6 A 72 000 M V. 1 1 756.033 LB/M IN 0

1 6 302 5 908 000 M V. 2521. 2AA LB/M IN 0

1 7 303 5563 000 M V. 2 AO 7. 683 LB /KIM 0

18 30 A 3 330 000 M V. A8A0. 798 LB /MIN 0 H2 -MO CALC

19 305 A 8 30 000 M V. 70 77. 92

LB/M IM 0

20 30 6 5 5A9 000 K V. 5257. 695 LB/M IN 0

21 30 7 2002 000 M V. . 000 LB/M IN 0 LI -U^E

22 308 6 732 000 M v. 19685. 25A LB/M IM 0

23 309 2 62A 000 M 9. 528. 7A2 LB/M IN 0

2 A 310 2982 000 M 9. 8820.963 LB/M IN 0 H2 -NO CALC

25 31 1 20 6

000 M V. • 000 LB/M IN 0 LI -USE

26 316 6575 000 M V. 2890.877 LB/M IN 0

27 3 13 2 A AO 000 M V. A72. 625 LB /MIN 0 H2 -MO CALC

28 3 1 A 2952 000 M v. A 189. 204 LB /MIN 0 H2 -NO CALC

29 3 15 2288 000 M V. 4536.300 LB /MIN 0

30 3 12 3539 000 M V. .000 GPM CAW) 0

31 3 1 7 3298 000 M v. A. 853 GPM CAV) 0

32 318 1823 000 M v. 4*853 GPM (AV> 0

33 319 1017 000 M V. . 000 GPM <AV) 0 L -NO CALC

3 A 320 551 000 M V. *000 GPM CAV) 0 L -MO CALC

35 321 3127 000 M 9. • 000 GPM CAV) 0 L -NO CALC

36 322 A 5 A 7 000 M v. . 000 GPM CAV) 0 L “MO CALC

37 323 2872 000 M v. .000 GPM CAV) 0 L -NO CALC

38 32A 302A 000 M V. .000 GPM CAV) 0 L -NO CALC

39 325 1 1 5 A 000 M v. .000 GPM CAV) 0 L -NO CALC

AO 326 2950 000 M v. .000 GPM CAV) 0 L -NO CALC

A 1 550 1 197 000 M v. 95 7. 600 K V CIMS) 0

A2 551 - 1 7 000 M V. .000 KW CINS) 0

A3 552 2128 000 M V. 319.200 KW CIMS) 0

AA 553 -35 000 M V. • 000 Kw CIMS) 0

A 5 5 5 A 2666 000 M v. 14.776 KW CINS) 0

A 6 555 1 30 5 000 M v. 108.492 KW CIMS) 0

A 7 556 8 70 000 M v. 48.219 KW CINS) 0

A8 557 A 30 000 M v. 23.832 KW CINS) 0

A9 558 -30 000 M v. .000 KW CINS) 0

50 600 3 966 M v. 199.982 DEG ¥ 0

5 1 603 3 967 M v. 200.022 DEG F 0

52 60 A A 121 M v. 206.021 DEG F 0

53 616 3 933 M V. 198*692 DEG F 0

5 A 617 A 215 M V. 209.668 DEG F 0

55 627 A 127 M v. 206* 255 DEG F 0

56 629 A 051 M 9. 203.298 DEG F 0

57 6 30 3 986 M V. 200.764 DEG F 0

58 633 A 092 M v. 204.894 DEG F 0

59 636 3 971 M v. 200. 1 78 DEG F 0

60 6A0 3 980 M 9. 200.529 DEG F 0

61 661 356 M V. 48.304 DEG F 0

62 662 288 M V. 45*21

DEG F 0

63 6 63 295 M v. 45.530 DEG F 0

6A 665 3A3 M v. 47.714 DEG F 0

65 67 1 686 M 9. 63*264 DEG F 0

66 6 72 1 09 7 M v. 81.381 DEG F 0

EAbc 1

. 000

• 0 0 0

. 000

.000

89
LABEL# 1 54141 501977* TIME: 159 8:37

LOG MBS VOLTAGE VALUE FLAG

67 673 1 ® 245 M V. 8 7® 854 DEG F 0

68 690 « 973 M v. 75 « 924 DEG F 0

69 691 *973 M v. 75*924 DEG F 0

70 693 I . 124 M V. 82.565 DEG F 0

71 696 .980 M v. 76*232 DEG F 0

72 700 -.630 M V. 32.000 DEG F 0 L -NO CALC

73 701 3.565 M v. 184.20

DEG F 0

74 711 1. 137 M v. 83. 134 DEG F 0

75 713 1 . 130 M V® 82.828 DEG F 0

76 730 1 .342 M v. 92.073 DEG F 0

77 731 1.388 M V. 94.068 DEG F 0

78 732 1.233 M V. 87.331 DEG F 0

79 733 1.243 M V. 87. 767 DEG F 0

80 612 2.834 M V© 130.400 DEG F 0

81 613 5 . 804 M v. 229. 772 DEG F 0

82 750 2.910 M v. 132.983 DEG F 0

83 751 16. 737 M V. 585-396 DEG F 0

84 752 3.039 M v. 137.361 DEG F 0

85 753 10.594 M v. 386.074 DEG F 0

86 601 139 M V. -.362 DL DEG F 0

87 602 2© 194 M V. 5. 700 DL DEG F 0

88 694 .262 M V. . 766 DL DEG F 0

69 605 1 • 735 M V. 4.510 DL DEG F 0

90 614 ».255 M v. -.997 DL DEG F 0

91 615 1 « 956 M v. 7*615 DEG F 0

92 628- 14.438 M v. 38.053 DL DEG F 0 H -NO CALC

93 631 . 127 M V. .496 DL DEG F 0

94 632 © 596 M v. 2.324 DL DEG F 0

95 634 .021 M v. .054 DL DEG F 0

96 635 -.628 M V. -2.456 DL DEG F 0

9 7 637 .5 78 M V. 1.496 DL DEG F 0

98 641 .278 M V. 1.086 DL DEG F 0

99 642 .897 M V. 3.508 DL DEG F 0

too 647 -2.233 M V. -6.804 DL DEG F 0

101 659 -. 133 M V. -.404 DL DEG F 0 L -NO CALC

102 660 1 • 099 M v. 3.331 DL DEG F 0

1 03 664 2. 329 M v. 7.045 DL DEG F 0

1 04 6 74 -.991 M V. -2.876 DL DEG F 0 J 12 0 CALC

105 6 75 1 . 196 M v. 3.505 DL DEG F 0

1 06 692 -.090 M V. -.263 DL DEG F 0

107 695 2 ©443 M V. 7. 165 DL DEG F 0

108 702 .000 M v. • 000 DL DEG F 0

1 09 703 .013 M V. .038 DL DEG F 0

1 10 501 3 74.000 M V® 996.693 KW ( AVG > 0

1 1 I 502 5 1 . 000 M V. .000 KW (AVG) 0

1 12 503 1622.000 M V® 330.240 KW (AVG) 0

i 13 509 © 000 n V© • 00 0 KW (AVG) 0

1 14 510 I 736.000 M V. 15*040 KW (AVG) 0

1 IS 51 1 2512.000 M V. 110.671 KW (AVG) 0

1 1 6 5 12 2637.000 M V. 48.241 KW (AVG) 0

\

i 7 513 651* 000 M v. .000 KW (AVG) 0

I 18 514 4468*000 M v. • 000 KW (AVG) 0

120 306 3913*000 M V® 3913.000 ON /OFF 0

121 SIS 3909.000 M v. 3909.000 ON /OFF 0

1 22 821 3905® 000 M V. 3905.000 ON /OFF 0

1 23 830 3902.000 M V® 3902*000 ON /OFF 0

1 24 836 3899.000 M V. 3899.000 ON/OFF 0

PAGE 2

90
LABEL! 1 54141 501977* TIME! 159 8!37 PAGE 3

LOC MBS VOLTAGE VALUE FLAG

125 845 3897 000 M. V® 3897.000 ON /OFF 0

126 851 3895 000 M. V® 3895.000 ON /OFF 0

127 800 3893 000 M. V® 3893.000 ON/OFF 0

128 8 60 3891 000 M. V. 3891.000 ON /OFF 0

129 866 3888 000 M. V® 3888.000 ON/OFF 0

140 360 8116 000 M. V® • 018 GPM (A V) 0 LI -USE! .000

141 361 40 000 M. V® .489 GPM (AV) 0

142 362 4288 000 M* V® ® 000 GPM (AV) 0 LI -USE! • 000

I 43 363 3961 000 M. V® • 433 GPM (AV) 0

144 364 530 7 000 M. V® .493 GPM (AV) 0

145 365 59 000 M. V® • 045 GPM (AV) 0 Li -USE! . 000

146 366 3435 000 M. V® • 03 1 GPM (AV) 0 LI -USE! • 000

1 60 400 4950 000 M. V® 495.000 VOLTS 0

i 63 410 4680 000 M* V. 468.000 VOLTS 0

1 72 102 1927 300 M* V® 4.90 7 MINUTES 0

1 73 1 10 2295 000 M. V® • 000 MINUTES 0

1 74 1 1 1 1524 000 M. V® .498 MINUTES 0

1 77 130 2942 000 M. V® * 706 PWR FACT 0

1 78 141 2986 000 M. V. 60.194 HERTZ 0

200 772 - 12074 000 M. V® -43.976 DL DEG F 0 L -NO CALC

201 332 - 1441 000 M® V® .000 LB/MIN 0

204 522 2320 000 M. V® 10.404 KW ( AVG 5 0

208 760 5894 000 M. V® 269.566 DEG F 0 H -NO CALC

213 0 91 000 M. V® .000 M® V® 1 300 771 15 620 000 M® V® 65 .616 DL DEG F 0 OK-USE 8 .000

301 330 2156 000 M® V® 38. 160 LB/M IN 0 OK-USE! * 000

302 651 85 000 M. V® • 466 DL DEG F 0

303 339 3611 000 M® V® 355*212 LB/MIN 0

304 791 4927 000 M. V® 20.247 DL DEG F 0

305 348 1537 000 M® v. i * 002 GPM (AV) 0

306 524 4597 000 M® V® 31. 703 KW (AVG) 0

307 523 4 796 Sob M® V® 3.088 KW (AVG) 0

308 424 2 760 000 M® V. 277.400 VOLTS 0

309 624 -410 000 M® V® 32.000 DEG F 0 L -NO CALC

3 10 761 2903 000 M® V® 158.193 DEG F 0

311 781 2942 000 M® V® 159.777 DEG F 0

3 13 0 -14 000 M® V. .000 M* V

1 400 775 1932 000 M® V. 5.055 DL DEG F 0

40! 331 3615 000 M® V® 923.758 LB/MIN 0

402 655 811 000 M® V® 2.413 DL DEG F 0

403 340 4823 000 M. V. 2061 .633 LB/MIN 0

404 795 1408 000 M® V® 3.693 DL DEG F 0

405 349 4119 000 M® V® .05 6 GPM (AV) 0

406 532 2889 000 M® V® 83.313 KW (AVG) 0

407 531 4955 000 M® V® 3.091 KW (AVG) 0

408 432 4126 000 M® V® 190.205 VOLTS 0

4 10 625 474 000 M® V® 53.241 DEG F 0

41 1 762 3784 000 M® V® 192.494 DEG F 0

412 782 3656 000 M. V® 187.447 DEG F 0

413 0 9 000 M® V® .000 M. V* 1 500 148 4605 000 M® V® 2.605 C/CM2/MN 0 H -NO CALC

501 149 3779 000 M. V. 2.345 C/CM2/MN 0 H -NO CALC

502 150 -3 000 M. V® • 000 DIR. DEGS 0

503 151 -2 000 M. V® 150.000 MILES /HR 0 H i2 O CALC

504 200 3016 * ooo M* V. 3i .000 INCH HG* 0

505 710 10214* 000 M. v. 199*990 DEG* F. 0 H -NO CALC

506 712 4522 * 000 V* 100*000 DEG * F

0

91
LABEL! 154 141 50 1977* TIME! 159 8137 PAGE 4

LOC MBS VOLTAGE VALUE FLAG

507 714 - 1 . 000 M® v. 149.830 DEG. F. 0 H -NO CALC

5 13 0 - 14984.000 M. V. • 000 M. V. 1 6 00 770 1 709.000 M. V. 4.478 DL DEG F 0

601 328 2137.000 M. v. 440.670 LB /MIN 0 OK-USEi

602 650 -866. 00

M. Vo -2. 540 DL DEG F 0 L -NO CALC

603 337 2146.000 M. v. 40 6. 702 LB/MIN 0

604 790 1887.000 M. v. 4.940 DL DEG F 0

605 346 8126® 000 M. v. 631.225 LB/MIN 0

606 520 4457*000 M. v. 53.248 KW CAVG) 0

60 7 519 2341*000 M. v. 9.830 KW CAVG) 0

608 420 5965.000 M. V. 119.340 VOLTS 0

609 643 1021. 000 M. v. 78. 128 DEG F 0

610 763 3885.000 M. v. 196.892 DEG F 0

6! 1 783 3914.000 M* Ve 198.027 DEG F 0

613 0 -2.000 M« v. • 000 M. V. 1 700 768 3714.000 M. V. 9. 721 DL DEG F 0

701 327 I 793.000 M. v. .000 LB/MIN 0

702 648 -704.000 M® v. -2.035 DL DEG F 0 L -NO CALC

703 336 2007.000 M. V. • 000 LB/MIN 0

704 788 3696.000 M. V. 9.679 DL DEG F 0

705 345 5378.000 M. v. 574.788 LB/MIN 0

706 516 1 194.000 M. V. 59.592 KW CAVG) 0

70 7 515 4108.000 M. V. 18.445 KW CAVG) 0

708 416 6142.000 M. v. 491 • 680 VOLTS 0

710 644 1256*000 M. V. 88.508 DEG F 0

711 764 3980*000 M. v. 200.685 DEG F 0

712 784 3965.000 M. v. 200* 100 DEG F 0

713 0 -4.000 M. v. • 000 M. V. 1 800 774 7909. 000 M. v. 20.881 DL DEG F 0

801 334 2035.000 M. v. • 000 LB/MIN 0

802 654 1 15.000 M. v. .430 DL DEG F 0

803 343 3407.000 M. v. 2774.391 LB/MIN 0

804 794 8086.000 M. V. 21.373 DL DEG F 0

805 353 3249® 000 M* v. 451.934 LB/MIN 0

806 530 3246.000 M. v. 96*482 KW CAVG) 0

80? 529 5 1 . 000 M. v. 33.580 KW CAVG) 0

808 430 5881.000 M. v. 472.640 VOLTS 0

810 645 329.000 M. v. 48.304 DEG F 0

811 765 3926.000 M. V. 199.474 DEG F 0

6 12 785 3898.000 M. v. 198.379 DEG F 0

813 0 -27.000 M. V. • 000 Me V. 1 900 626 -79.000 M. v. -.342 DL DEG F 0

901 333 8492.000 M. V. 4448.622 LB/MIN 0

902 793 2084.000 M. v. 5.349 DL DEG F 0

903 351 2286.000 Me v. 598.682 LB/MIN 0

904 526 3399.000 M. V. 55.808 KW CAVG) 0

905 527 1247.000 M. v. 34.998 KW CAVG) 0

906 528 3920.000 M. V. 24.576 KW CAVG) 0

90 7 426 6200.000 Me Ve 493.280 VOLTS 0

908 428 7473.000 Me Ve 148.780 VOLFS 0 X iSi o CALC

909 646 422® 000 M® v. 49. 756 DEG F 0

9 ! o 786 4020® 000 Me Ve 200® 764 DEG F 0

91 1 147 34.000 Me V. • 000 SUM/WINT 0 OK-USEI

9 12 147 34.000 M® v. . 000 SUM/WINT 0 OK-USE

913 0 34® 000 M* V. .000 M® V. 1

35 ERRORS

.000

.000

• 000
VIII. RAW DATA FORMAT

1. Character Location Description

The first 9 characters of a scan consist of digits (0 through 9) which

have been manually set (on thumbwheel switches) on the DAS as part of

the label information. These 9 characters are used in the definition of

the time and date when the current magnetic tape was placed on-line.

Characters 10, 11, and 12 contain the letters "NBS" and are used as a trigger point for the rest of the scan.

Characters 13 through 19 are generated by the DAS clock and represent

the day of the year (13, 14, 15), hour of day (16, 17), and minute of

hour (18, 19).

Characters 20 through 1475 and characters 1476 through 3672 consist of

112 groups of 13 characters representing data from remote locations and

169 groups of 13 characters representing data from CEB locations, respectively. Each group of 13 characters is further subdivided as follows.

Characters 1, 2, & 3

Characters 4 & 5

Character 6

Character 7

Charaters 9 thru 12

Character 13

contain either the remote location number

or the CEB channel number.

contai either the remote channel number

(if a remote channel), two zeros or two

blanks (spaces) if a CEB channel is being

recorded on magentic tape, or two blanks

if a CEB channel is being transmitted over

the modem link.

is either an M (millivolt) or a V (volts)

and represent the programmed function (or

sensitivity) of the Digital Voltmeter (DVM)

is either a + or - and represents the polarity of the analog signal level and also is

the most significant digit of the analog

input voltage for the channel,

represent the second most significant digit

through the least significant digit of the

signal level.

represents the range of the DVM and contains

a digit indicating how far to the right

(from just after character 7) to place the

decimal point in order to obtain a reading

in millivolts.

The following figures schematically describe the layout of a typical signal scan and depict the breakdown of the individual character groupings

making up a scan. An alphanumeric printout of a complete typical scan

is contained in Appendix I.

93
3672

CHARACTERS

COMPLETE

SCAN

r- j.;IIIII IIIIIIIIII|iiiiiiiili

onu

<u

O 4*) (J

eg

—» u

eg

C/3 CL3O

<<W CJ <n 4-s —I =3 cn cd

-O CJ —< O W

c/3 a.3 « O 4J u u Q m o

-i s

CN 4) —- u-t SC —i O w

cnu

01 uo

CS 35u

CO

CJ

M3

-u o O

=: o q 3 Characters

Day of

Year

cou 1 <u 1 4-» ! o 1 * C~l 35u l CO CO 1 J= sa ! z i <y ! f-L 03 jC U 33 4J >4 = —i s o —< CO 03 31 CO eg u 4j u 3 CO «

33

C

O sO

eg L* • —

! y 1

a: aa 11 u i u 1 a; 4-* I CO 30 C

loo 4J Z ‘ r* 1-1 CO 35 o ) a s i

CO

ri 3- i i 3D i U O ;CN O

l—i JZ o 1 4J 33 1 o g

-3 1 CO < 1 i“4 Z 1 cn a; o 1 J_| U 00

h-4 1“-^— o c

CO r-4 O0 CO •tl -S. U C Q H CO L- < eg • Q > . CO CO O

iTML

O

a

30 ! —

U 03 . 1-1 4! •-» e u 4> CO CJ CO —

U O u C> • 11 U 33 CO

l-i eg

g

x

O'. •1 JO 3 • coo 40 Cl) u • 1 <J-J -1 o

co K-i

y c \ 00 1 ;i 1 1 —— r <0 i U i o 1 33

03 1 1 1 O >. ! CO 1 U C- 4->

4-J + O 1 W -1 1

CO 1 33 r I _4 i 0) 4-» 1 CO U 4) x i u o M o V S e i <y W' 4-) >° 11

uG ! p—4 CO <u a: u 1 4i 03 u GO' CJ O 0 1 G JO

CO

u

a _z eg ;= 1 a. u a) O 3 JG 3 ; cn o m G2 03 O Z 1 * 11 Lj 11 11in 11 5 ! 4) -a 44 S CO 3 'J z o

CN

f—

43

O

u £ — V C

/-* f CO - 2 O 3

-1

U ^ 2 1ii I1 u I V S3 I

4-1

r -*? f*4 l CJ •J) 4 o o 1 co £ —> — 11 U CO 3 GOG 05 ! — L-4 JZ £ r= w 1-4 ^

94

Individual

data

signal

groups
2. Magnetic Tape Bit Configuration

Character BITS

0

12

3

4

5

6

78

9

+

B

11

11

11

11

11

11

11

11

lioooo

110001 \

110010

110011 I 110100 /

110101 /

110110 \

- 110111 \

11110000

11111001

01001110

01100000

11000010

EBCDIC

M

N

sV

BLANK

11010100

11010101

11100010 j

11100101 /

01000000 J

3. MODEM BIT Configuration

Character BITS

0

12

3

4

5

6

78

9

+

B

M

N

S

V

BLANK

OOllOOOO'i

10110001

10110010

00110011

10110100

00110101

00110110

10110111 \

10111000 \

00111001 \

00101101 1 01000010

01001101

01001110

01010011

01010110

10100000

ASCII with an

additional parity

bit added.

9b
IX. LISTING OF SUBROUTINES

1.

Input and Output

DATTAP - used to set up and write a single record on the output

magnetic tape.

DSKRTS - used to read, write, update, and perform all necessary

checks on a single disk file (scan) location.

ERRPRT - used to sort and display all errors which require operator assistance and a few that do not.

FRENPT - reads an input string of ASCII characters and returns a variable number of real numbers.

GETCOM - gets, converts, and checks a single input command along

with its associated arguments.

HEXDMP - displays an entire buffer to the operator in a hexadecimal

format.

PINPUT - displays the input buffer (to the operator) in several

display modes as requested.

RDITMT - reads a single record from the output magnetic tape.

RDTAPE - causes a single data scan of data to be read from the raw data input magnetic tape, checks the format, and corrects

it if logically correctable and necessary. A single data

scan of data could consist of one or more magnetic tape

records

WRITEF - writes three ends-of-file on a requested tape drive.

2.

Bookkeeping

DEHASH

GETNBS

INHASH

UTABLE

- deletes an alphanumerically defined variable from a reference table such that it can no longer be referenced.

This routine will also delete a command such that it can

no longer be used.

- sets up all cross references between NBS data codes, DAS

channel and subchannel, data location reference index number, measurement type, and measurement reference within a type.

- defines an integer number to be used in place of an alphanumerically defined variable. This subroutine is also

used to define the parameters associated with a command.

- sets up and continuously updates a reference table which

defines the file location for the data scans located on

the scratch disk. This subroutine also returns the contents of the reference table as requested.

3.

Conversion

COMINT - converts a variable number of specially coded characters

into a binary (integer) number.

CONATE - converts a complete buffer from ASCII format to EBCDIC

format.

96
CONETA

CONGRP

DEGDLF

DEGRSF

DENSTY

EVENTS

INTEGR

PRESS1

PWRFCT

SPECLl

TIMER1

VENTRI

VISCOS

VOLTSI

WEASTA

Control

CKDISK

CONALL

DRIVER

INIT

TEREVIEW

TRNRAW

WIPOUT

Support

ADRESS

BACKSP

converts a complete buffer from EBCDIC format to ASCII

format

converts a 13-character EBCDIC grouping of a single

channel measurement into five integer code numbers,

converts millivolt data to delta degrees Fahrenheit,

converts millivolt data to degrees Fahrenheit,

calculates the density of water in pounds per cubic foot

as a function of temperature.

converts millivolt data to a single number which represents the on or off status of six signals,

converts millivolt data to

(a) gallons per minute (turbines)

(b) kilowatts, or (c) minutes.

converts millivolt data to pressure in pounds per square

inch.

converts millivolt data to total energy plant power

factor.

converts millivolt data to instantaneous kilowatts,

calculates the time difference between two successive

scans

converts millivolt data to flow rate in pounds per minute,

calculates the viscosity of water in centipoises as a function of temperature,

converts millivolt data to total energy plant voltages,

converts all weather station millivolt data to the engineering units it represents.

checks and controls the writing of data on the scratch

disk. This subroutine will inhibit any write operation

on a particular disk which has not been specifically

assigned to TEREVIEW.

controls the sequence of all character and engineering

unit conversion operations.

controls the sequence of all operations required in order

to create an output magnetic tape,

controls all initialization sequencing.

the main program which controls the overall sequencing of

all initialization and command operations.

controls the automatic sequencing for the transfer of raw

input data through its various conversions prior to and

including the writing on the scratch disk.

controls the sequence of operations necessary in order to

wipe out a scratch data disk and set it up such that it

is ready to begin a new disk scan file.

returns the memory address of a reference variable,

backspaces a requested magnetic tape a requested number

of records.

97
CC1TEBCD

CEDE CD

CLASS

CODIT

DECDIT

DECTOBIN

EBCDTCC1

FCS

HASH

HEXTCC

INDAN1

LAND

LEOR

LOCTED

LOR

LSHIFT

NBSLOC

OUTHEX

OUTINT

OUTTXT

READIN

READMT

RSHIFT

RWNDIT

SEEKEF

SKBYTM

SKIP

converts an ASCII character to EBCDIC format.

returns a reference index location number as a function

of DAS channel and subchannel.

defines and references the character strings in an operator input command containing arguments,

converts an operator input string of alphanumeric into a specially coded numerical string.

converts a specially coded numerical string into a string

of ASCII characters.

converts six ASCII characters into a single binary

integer.

converts one EBCDIC format character to an ASCII format,

a set of subroutines which support all disk data file

operations

the subroutine that does the actual command decoding and

makes integer assignments to variables.

takes one binary word and converts it to four ASCII characters representing the hexadecimal equivalent for the

word.

contains the location reference required for differential

temperature calculations. Also contains the ASCII representation of all units codes. This is basically a block

data program.

returns the logical AND of two integers as an integer,

returns the logical exclusive OR of two integers as an

integer.

returns a data index location number as a function of NBS

data code.

returns the logical OR of two integers as an integer,

shifts a variable number of characters in a string to the

left.

returns the NBS data code as a function of the data index

location number.

outputs as hexadecimal text the contents of specified

memory locations.

outputs as decimal text contents of specified memory

locations

outputs a specified number of ASCII characters as text,

reads up to 72 ASCII characters into memory,

reads a single record of the raw data input tape,

shifts a variable number of characters in a string to the

right.

rewinds a specified magnetic tape unit.

seeks a specified number of ends-of-file on a requested

magnetic tape unit.

returns a relative scan number (contained on the scratch

data disk) as a function of the time for which the scan occurred.

skips a specified number of records on a requested magnetic tape unit.

98
SPLITA

TEDITX

UNSPLT

WRITMT

- splits one integer word logically into two words representing the left and right half of the original word.

- serves as a support routine to TEREVIEW in the decoding

and initialization of several special functions.

- combines two integer words logically into the left and

right half of one integer word.

- writes one magnetic tape record on the output tape drive.

99
X. TEREVIEW COMMAND LISTING

1. Definitions and Abbreviations

ABBREVIATION DEFINITIONS

AN Variable name (1 alpha and optional 1 number)

DD Delta day

DH Delta hour

DM Delta minute

FC First character

FD First day

FL First location number

FN First NBS number

FS First scan number

FT First time (hour and minute of Is day)

ICODE Integer code for initialization

I DAY Day of the year (1 through 366)

IHR Hour of the day

IMIN Minute of the hour

INT An integer number

LC Last character

LD Last cay

LL Last location

LN Last NBS number

LOC Location number

LS Last scan number

LT Last time (hour and minute of last day)

LUN Logical unit number

NBS NBS number

NP Number of position

NR Number of remotes

NV Number of variables

NUM Number of records

Commands and Functions

BK, NUM, LUN

Backspace NUM records on magnetic tape drive LUN

CA

Convert the contents of the input buffer from EBCDIC to millivolts and

then to engineering units. Place the millivolt values and engineering

units into the millivolt and the engineering units output buffers

respective!}’’. Convert all labels and flags and place the results in

the appropriate output buffer locations. This is a one step conversion

which combines the Cl and CE instructions explained below.

100
CE

Convert the contents of the millivolt buffer from millivolts to engineering units and place them into the appropriate output buffer. Flag

values are also calculated.

Cl

Convert the contents of the input buffer from EBCDIC to millivolt values

and place them into the millivolt buffer. Label information is also

included.

CO, FS, LS (or CO, FD, FT, LD, LT)

Create an output magnetic tape from the scratch data disk beginning at

FS and ending with LS (or FD, FT through LD, LT). If only the beginning

scan (or day and time) is given, i.e. , CO, FS (or CO, FD, FT, 0), this

command will create the output tape from FS (or FD, FT) through the

end of the data that are currently on the scratch disk. If no arguments

are given (CO), this command will create an output magnetic tape consisting of all data currently on the scratch disk.

Produce a scratch disk summary consisting of the day and time of the

first scan on the disk, the day and time of the last scan on the disk,

and the total number of scans contained on the disk.

DV, AN

Delete variable AN from the variable name parameter table. This assumes

that AN has been previously set by the SV instruction.

EU, FL, LL, 0 (or EU, FN, LN,

Display the engineering units of the output buffer beginning at FL and

ending with LL (or FN through LN). If only one argument is given, that

argument is interpreted as an NBS code number and only the one output

will be printed.

EX

Exit from the program after setting up the scratch disk with the necessary parameters for reentry and continuation.

C-S, INT (or GS, IDAY, IHR, IMIN)

Place scan number INT (or the scan for IDAY, IHR, IMIN) which is cur- rently on the scratch disk into the output buffer. Note that the arguments (IHR, IMIN) can also be written as one number [(IHR x 100)+IMIN]

101
HP, FC, LC

Display the input buffer in hexadecimal from FC through LC.

IN, ICODE

Initialize

ICODE = 0,

1 ,

2 , 3 ,

4 ,

the disk according to ICODE as follows,

no operation if set by operator.

start processing where last stopped. This assumes that

EX (exit) was previously called and that the scratch

disk has not been disturbed.

initialize the scratch disk to contain no data,

start over with scan 1 on the scratch disk. This allows

for program continuation, without exit, after the creation

of an output magnetic tape (using the CO instruction).

Equivalent to the EX (exit) instruction.

LO, FL, LL, 0 (or LO, FN, LN)

Locate the corresponding NBS codes starting with FL and ending with LL

(or the corresponding location starting with FN and ending with LN).

One argument is interpreted as an NBS code and the appropriate location

number will be returned.

LS, FC, LC, NP

Shift the input buffer characters beginning with FC and ending with LC

to the left NP character positions.

NR, INT

Set the number of remotes to INT. This command was used during the

early phases of the program when not all of the remote buildings were

yet on line. This command is currently used only for very special

reasons.

NV, INT

Set the number of variables to INT. This command was used during the

early phases of the program when not all of the planned measurements

were on line. This command is currently used only for very special

reasons

PF, FL, LL, 0 (or PF, FN, LN)

Print the value of the data flag beginning with location FL and ending

with LL (or NBS code FN through LN). If only one argument is input,

it will be interpreted as an NBS code and the one corresponding flag

value will be displayed.

102
PI (or PI, FC, LC or PI, FC)

Print the characters currently contained in the raw data input buffer as follows

PI - print the first 19 (label) characters only.

PI, FC - print all characters contained in the raw data input

buffer beginning with character number FC.

PI, FC , LC - print the characters contained in the raw data

input buffer beginning with character number FC

and ending with LC.

PL

Display the label and time of the scan contained in the millivolt buffer

PM, FL, LL, 0 (or PM, FN, LN)

Display the millivolt values contained in the millivolt buffer beginning

with FL and ending with LL (or FN through LN). One argument is interpreted as an NBS code and only the one corresponding millivolt value

will be displayed.

PT, FL, LL, 0 (or PT, FN, LN)

Display the thumbwheel constants (see section 6.5.4) currently assigned

to locations FL through LL (or assigned to NBS codes FN through LN).

One argument is interpreted to mean only one thumbwheel constant corresponding to the NBS number is desired.

RO

Read one record from the output magnetic tape and place it into the output buffer. If a particular record is required, the command RO, IDAY,

IHR, IMIN will cause a search of the output tape for that record. Note

that IHR and IMIN can be combined (as in the GS command) if desired.

RS, FC, LC, NP

Shift the input buffer characters beginning with FC and ending with LC

to the right NP character positions.

RT

Read one record from the input raw data tape and place it into the input

buffer. If a particular record is required, the command RT, IDAY, IHR,

IMIN will cause a search similar to the RO command.

RW, LUN

Rewind the LUN magnetic tape.

103
SD, LOG, 0 (or SD, NBS

)

Set the engineering units for a particular LOC (or NBS) channel to a new value. After the command is entered, there will be a slight delay

followed by the request to enter the value. This command will also

cause the appropriate flag value to be set to indicate that the operator

has modified the data.

SE, I NT, LUN

Seek INT number of ends-of-file on magnetic tape LUN.

SF, LOC, 1NT, 0 (or NBS, INT)

Set the flag value for LOC (or NBS) to the value INT.

SI, NP

Set the input character contained in the innut character buffer position

NP to a new EBCDIC value. A slight delay will occur followed by the

request to enter the character (in ASCII).

SK, NUM, LUN

Skip NUM records on magnetic tape LUN.

SM, LOC, 0 (or SM, NBS)

Set the millivolt value contained in the millivolt array location LOC to

a new value. This command is similar to the SD command.

SR, FC, LC, NP

A special read command to read the next record on the input raw data

tape beginning with character FC (must be odd) and ending with character

number LC (must be even). The data will be placed in the input buffer

beginning with character position NP (must be odd).

SS

Change the delta time to the current time and set the delta time flag to

reflect a normal status. This command allows for continued processing

after an error in scan time has been detected.

ST, LOC , INT (or ST, NBS)

Set the thumbwheel calculation constant (see section 6.5.4) for location

LOC (or NBS) to the value INT.

S V, AN, INT

Assign the two letter code AN to the value INT.

104
TM, DP, DH, DM

Modify all following label times up or down by a delta time factor corresponding to DD, DH, DM, with up being (+) and down being (-). This command is used to bring the raw data tape time to the actual data time

when for any reason, the DAS clock was not in synchronization with the

actual time.

TR, NUM, INT

Transfer NUM records from the raw data input tape to the scratch disk

after converting the EBCDIC characters to millivolts and then to engineering units and calculating all label, flag, and data values. This

command will cause NUM sequential executions of the RT, CA, and WS commands. The label information contained in the current scan will be

displayed every INT records.

WE, LUN

Write three ends-of-file on magnetic tape number LUN.

WS

Write a scan from the output buffei to the next available scratch disk

file location.

105
XI. TEREVIEW ERROR MESSAGES

The following error messages are listed in order of Type ().

NAME TYPE

MAIN 1

INIT 12

GETCOM 3

4

HASH 5

6

INHASH 7

7

DEHASH 8

RDTAPE 9

ABODE

0 0 0 0 0

I J 0 0 0

I J 0 0 0

1 0 0 0 0

0 0 0 0 0

1 0 0 0 0

1 0 0 0 0

1 J K L M

2 J K L M

I J K L 0

I J K 0 0

MEANING

Undefined operator input detected in main

program.

Disk initialization error. Disk exit error. 1=0, not occurring with disk read; 1,

occurring with disk read.

J = 1, disk assigned to data ; 2 , disk assigned to TEREVIEW;

3 , disk unassigned; and

X, disk assignment unknown.

Illegal command or argument.

I = number of arguments converted before

e r or detection.

Illegal argument type.

Incorrect command key value.

Request for variable which is undefined.

I = the command or a variable random

access key value, and has little

meaning except for software

debugging.

Requested variable not equal to

decoded variable.

Requested variable is already defined.

J = requested variable key,

K = requested variable value,

L = decoded variable key, and

M = decoded variable value.

Requested command or variable is

improper.

1=0, command or variable is in table;

1, command or variable not in table.

J = requested key.

K = decoded key.

L = decoded value.

Raw input tape read error or unexpected

condition.

106
CONALL

DRIVER

10 IOOOO

11 I 1 K 0 M

11 I 2 K 0 M

11 I 3 K 0 M

11 I 4 0 0 M

11 I 5 1 0 M

11 I 5 2 0 M

12 I J K L M

13 I 1 0 0 0

1=0, end-of-file detected;

X, number of characters read (if negative, all characters were not read)

in last record.

J = -32767, record was unreadable;

= -1, longitudinal parity or rate error;

=0, no mechanical magnetic tape errors;

land = 'X, number of lateral parity errors

detected.

K = number of characters placed in input

buffer before error detection.

Illegal EBCDIC character detected in

first 19 label characters.

I = the number of illegal characters

detected.

Conversion error characters 1-4.

Conversion error characters 5-8.

Conversion error characters 9-12.

I = 99, converted number too large;

= X, number of the offending character

K = number of 1st character in conversion

group of 13.

M = converted value.

Day of year conversion error (characters

13, 14 and 15).

Hour of day conversion error (characters

16 and 17).

Minute of hour conversion error (characters 18 and 19).

I = 99, converted number too large;

= X, number of offending character.

M = converted value.

Data group conversion error. 1=1, minor error not affecting data

value;

2, major error which affects data

value.

J = character number of 1st character in

13-character group.

K = converted channel number.

L = converted sub-channel number.

M = the offending characters within the

13-character group as indicated by

the bit positions which are set to

a logical 1.

Disk scan request error. * 1=1, first scan in table; 2, requested

scan not in table.

107
14 I J K L M

(NOTE: see additional information

on type 14 errors

be 1 ow . )

DSKRTS 14 I J K 0 0

(NOTE: See additional information

on type 14 errors

below.)

UTABLE 15 I J K L 0

16 I J K L M

17 I J K L 0

DATTAP 18 I J K L 0

Disk scan or operation error.

I = 1, first scan in table; 2, requested

scan not in table.

J = 1, disk busy;

2, disk location error. K = scan number requested.

L = converted scan number.

M = scan number passed to the file control system.

Disk file control.

I = file control system error

number (see documentation on Raytheon file control system

error codes - Reference 6).

J = 1, read mode;

2, write mode;

3, update mode.

K = scan number requested.

The time between successive scans

has changed.

I = old delta-time.

” aeT : rie 1 1a- 1 i me

K = J-l.

L = -I, next time table update wj.11 be

based on next delta time,

0, next time table update will occur

only if delta time does not change

1, next time table update will occur

even if delta time changes.

Time table request error.

I = last day of current block of data.

J = last time in current block of data.

K = requested day.

L = requested time.

M = delta time between each scan in current block.

Time table is full.

I = old delta time.

J = new delta time.

K = number of entries requested

L = size of time table.

Error on creation of output data tape.

1=0, not a magnetic tape error;

= minus, magnetic tape error.

J = scan number.

K = day of year (data).

L = time of day (data).

108
Type 14 errors:

These errors will generally be preceded by "FCXX", where XX will correspond to the error code as listed in the Raytheon File Control System

manual [5]. Additionally, since type-14 errors are considered to be

major in nature (with no operator fix allowed), the entire File Control

table (33 information control words) will be output following the normal

error message.

Other Error Messages:

Additional error messages may be output from time to time; however,

these messages are always textual in nature and are self-explanatory.

Messages of a textual type are normally concerned with operator requests

which are outside of the TEREVIEW capabilities or which could not possibly be correct. An example would be for the operator to define the

number of remote locations to be 9 or more when the physical system

only has 8 or less.

109
Acknowledgements

This project, from its conception to the present, has spread over more

than a five year period. During this time many NBS professionals have

contributed towards its progress. Those whose contributions have been

particularly significant during one or more phases are mentioned below

as an expression of the author’s gratitude.

For technical management and direction:

P.R. Achenbach

D.A. Didion, Section Chief, Mechanical Systems Section

L. Galowin, Section Chief, Building Services Section

J. Snell, Manager, Energy Conservation Programs

C. W. Phillips, Manager, Total Energy Program

For Initial Software Planning and Philosophy of Operation:

Dr. J. Snell

J.B. Coble

R.H.F. Jackson

R. Kirsch

D. J. Orser

Dr. R. Grot

Dr. L. Galowin

For Development of Engineering Units Conversion Techniques:

J.B. Coble

Dr. R. Grot

For Instrumentation Characterization:

C«, Bulik.

M. Kuklewicz

L.D. Ballard

J.B, Coble

For Output Display Philosophy:

J.B. Coble

C.W. Hurley

no
NBS-114A (REV. 9-70)

USCOMM-DC