All Rights Reserved. No part of this manual may be reproduced, transmitted,
transcribed, stored in a retrieval system, or translated into any other language or computer
language in whole or in part, in any form or by any means, whether it be electronic,
mechanical, magnetic, optical, manual, or otherwise, without the prior written consent of
Teledyne Analytical Instruments, 16830 Chestnut Street, City of Industry, CA 91749-
1580.
Warranty
This equipment is sold subject to the mutual agreement that it is warranted by us
free from defects of material and of construction, and that our liability shall be limited to
replacing or repairing at our factory (without charge, except for transportation), or at
customer plant at our option, any material or construction in which defects become
apparent within one year from the date of shipment, except in cases where quotations or
acknowledgements provide for a shorter period. Components manufactured by others bear
the warranty of their manufacturer. This warranty does not cover defects caused by wear,
accident, misuse, neglect or repairs other than those performed by Teledyne or an authorized service center. We assume no liability for direct or indirect damages of any kind and
the purchaser by the acceptance of the equipment will assume all liability for any damage
which may result from its use or misuse.
We reserve the right to employ any suitable material in the manufacture of our
apparatus, and to make any alterations in the dimensions, shape or weight of any parts, in
so far as such alterations do not adversely affect our warranty.
Important Notice
This instrument provides measurement readings to its user, and serves as a tool by
which valuable data can be gathered. The information provided by the instrument may
assist the user in eliminating potential hazards caused by his process; however, it is
essential that all personnel involved in the use of the instrument or its interface, with the
process being measured, be properly trained in the process itself, as well as all instrumentation related to it.
The safety of personnel is ultimately the responsibility of those who control process
conditions. While this instrument may be able to provide early warning of imminent
danger, it has no control over process conditions, and it can be misused. In particular, any
alarm or control systems installed must be tested and understood, both as to how they
operate and as to how they can be defeated. Any safeguards required such as locks, labels,
or redundancy, must be provided by the user or specifically requested of Teledyne at the
time the order is placed.
Therefore, the purchaser must be aware of the hazardous process conditions. The
purchaser is responsible for the training of personnel, for providing hazard warning
methods and instrumentation per the appropriate standards, and for ensuring that hazard
warning devices and instrumentation are maintained and operated properly.
Analytical Instruments, the manufacturer of this instrument, cannot accept
responsibility for conditions beyond its knowledge and control. No statement expressed
or implied by this document or any information disseminated by the manufacturer or its
agents, is to be construed as a warranty of adequate safety control under the user’s process
conditions.
ii
Teledyne Analytical Instruments
Trace Oxygen Analyzer
Table of Contents
Specific Model Information................................. iv
The instrument for which this manual was supplied may incorporate
one or more options not supplied in the standard instrument. Commonly
available options are listed below, with check boxes. Any that are incorporated in the instrument for which this manual was supplied are indicated by a
check mark in the box.
Instrument Serial Number: __________________________
The instrument with the above serial number has the following
Options:
o3010TB-CThree gas inputs, for sample, zero and span gases, with
three solenoid-actuated gas-flow control valves built in.
Valves are automatically synchronized to the analyzer's
electronic control sequences.
o3010TB–FBuilt-in flame arresters for Groups C and D service.
o3010TB–GBuilt-in flame arresters for Groups C and D service, plus
gas-control valves as in –C option, above.
o3010TB–HBuilt-in flame arresters for Group B (hydrogen) service.
o3010TB–IBuilt-in flame arresters for Group B (hydrogen) service,
plus gas-control valves as in –C option, above.
oCell Class*____________________ (L-2C standard).
Enter Class Designation
*See Part II, Chapter 2 and/or any addendum that may be
attached to this manual for cell specifications.
iv
Teledyne Analytical Instruments
Trace Oxygen Analyzer
Preface
Overview
The Analytical Instruments Model 3010TB Trace Oxygen Analyzer is
a versatile microprocessor-based instrument for detecting parts-per-million
(ppm) levels of oxygen in a variety of background gases. It is a “split
architecture” instrument. This means that a general purpose Control Unit,
designed for nonhazardous areas only, remotely controls a specially designed Analysis Unit, or remote probe, that can operate in a hazardous area.
Part I of this manual covers the Model 3010TB General Purpose
NEMA 4 Bulkhead mount Control Unit only. This Control Unit is for
outdoor/indoor use in a nonhazardous environment. The Analysis Units (or
Remote Probes) it controls, can be designed for a variety of hazardous
environments. Part II of this manual covers the 3010T Analysis Unit.
Typical Applications
A few typical applications of the Model 3010TB are:
•Monitoring inert gas blanketing
•Air separation and liquefaction
•Chemical reaction monitoring
•Semiconductor manufacturing
•Petrochemical process control
•Quality assurance
•Gas analysis certification.
Teledyne Analytical Instruments
v
Model 3010TB
Model and Part Number Designations
The part numbers are the most specific identification. When using this
manual for operation, maintenance, or ordering parts, check the part numbers on your Instruments to be sure of a match. Where an underscore (_)
appears in a model number, the unit has more than one application. For
example, 3010T_C means that the same unit is part of the 3010TAC and
the 3010TBC series and consists of two sections; Control Unit and Remote
Analysis or Sensor Probe.
3010TA:NEC Type Trace Oxygen Analyzer with flush mount
Control Unit, PN D-64596A and a 3010T Explosion Proof
Analysis Unit, PND-65478.
3010PA:NEC Type Percent Oxygen Analyzer with flush mount
Control Unit, PN D-64596B or C and 3010P Explosion
Proof Analysis Unit, PN D-65479.
3010TB:NEC type Trace Oxygen Analyzer with bulkhead mount
Control Unit, PN D-66190A, and a 3010T Explosion Proof
Analysis Unit, PN D-65478.
3010PB:NEC type Percent Oxygen Analyzer with bulkhead mount
Control Unit, PN D-66190 B or C, and a 3010T Explosion
Proof Analysis Unit, PN D-65479.
3010TAC:CENELEC type Trace Oxygen Analyzer with flush mount
Control Unit, PN D-66192A, and a 3010T_C Remote
Sensor, PN D-66193.
3010PAC:CENELEC type Percent Oxygen Analyzer with flush mount
Control Unit, PN D-66192 B or C, and a 3010P_C Remote
Sensor, PN D-66191.
3010TBC:CENELEC type Trace Oxygen Analyzer with bulkhead
mount Control Unit, PN D-66194A, and a 3010T_C Remote
Sensor, PN D-66193.
3010PBC:CENELEC type Percent Oxygen Analyzer with bulkhead
mount Control Unit, PN D-66194 Bor C, and a 3010P_C
Remote Sensor, PN D-66191.
Options:See Specific Model Information sheet, on page iv for details.
vi
Teledyne Analytical Instruments
Trace Oxygen Analyzer
Main Features of the Analyzer
The Model 3010TB series Oxygen Analyzers are sophisticated yet
simple to use. The main features of these analyzers include:
•A 2-line alphanumeric display screen, driven by microprocessor
electronics, that continuously prompts and informs the operator.
•High resolution, accurate readings of oxygen content: from low
ppm levels through 25%. Large, bright, meter readout.
•Stainless steel cell block is standard equipment.
•Advance design Micro-Fuel Cell sensor, Specially designed
model for trace analysis, has a one year warranty and an
expected lifetime of two years.
•Versatile analysis over a wide range of applications.
•Microprocessor based electronics: 8-bit CMOS microprocessor
with 32 kB RAM and 128 kB ROM.
•Three user definable output ranges allow best match to users
process and equipment: 0-10 ppm through 0-250,000 ppm for
trace analysis.
•Air-calibration range for convenient spanning at 20.9 %.
•Auto Ranging allows analyzer to automatically select the proper
preset range for a given measurement. Manual override allows
the user to lock onto a specific range of interest.
•Two adjustable concentration alarms and a system failure alarm.
•Self-diagnostic testing, at startup and on demand, with
continuous power-supply monitoring.
•Two way RFI protection.
•RS-232 serial digital port for use with a computer or other
digital communications device.
•Analog outputs for Concentration and Analysis Range: 0–1
V dc standard. Isolated 4–20 mA dc standard.
•Compact and versatile design: flush-panel, rack-mountable, or
bulkhead mounted Control Units available.
Model 3010TB Specifications ................................................ A-3
Teledyne Analytical Instruments
Part I: iii
Model 3010TB Oxygen Analyzer
iv: Part I
Teledyne Analytical Instruments
Oxygen AnalyzerPart I: Control Unit
Operational Theory
2.1Introduction
The Model 3010TB Oxygen Analyzer Control Unit uses an 80C31
microcontroller with 32 kB of RAM and 128 kB of ROM to control all
signal processing, input/output, and display functions for the Model 3010TB
analyzer. (The sample system and Micro-Fuel Cell sensor are covered in Part
II, Analysis Unit, in this manual.) System power is supplied from a universal
power supply module designed to be compatible with any international
power source.
2.2Electronics and Signal Processing
All of the Analyzer electronics are located on Printed Circuit Board
(PCB) assemblies inside the Control Unit chassis. The PCB locations are
illustrated in section 5, Maintenance.
Refer to Figure 2-1, Block Diagram of the 3010TB CU Electronics:
In the presence of oxygen, the sensor (in the Analysis Unit) generates a
current. A current to voltage amplifier (in the Control Unit) converts this
current to a voltage.
The second stage amplifier amplifies the voltage. It also uses a signal
from the thermistor (which is physically located in the Analysis Unit cell
block) to provide temperature compensation for the sensor signal. The
thermistor is a temperature dependent resistance that changes the gain of the
amplifier in proportion to the temperature changes in the block. This thermistor signal compensates for the change in the cell output due to the temperature changes. The result is a signal that is temperature independent. The
output from the second stage amplifier is sent to an 18-bit analog to digital
converter controlled by the microprocessor.
Teledyne Analytical Instruments
Part I: 2-1
2 Operational TheoryModel 3010TB
Figure 2-1: Block Diagram of the 3010TB CU Electronics
2-2: Part I
Teledyne Analytical Instruments
Oxygen AnalyzerPart I: Control Unit
The digital concentration signal—along with input from the control
panel—is processed by the microprocessor, and appropriate control signals
are directed to the display, alarms and communications port as well as to the
gas control valves in the Analysis Unit.
The same digital information is also sent to a 12 bit digital to analog
converter that produces the 4-20 mA dc and the 0-1 V dc analog concentration signal outputs, and the analog range ID outputs.
The microprocessor monitors the power supply, and activates the
system failure alarm if a malfunction is detected.
Teledyne Analytical Instruments
Part I: 2-3
2 Operational TheoryModel 3010TB
2-4: Part I
Teledyne Analytical Instruments
Oxygen AnalyzerPart I: Control Unit
Installation
Installation of Model 3010 Analyzers includes:
1. Unpacking, mounting, and interconnecting the Control Unit and
the Analysis Unit
2. Making gas connections to the system
3. Making electrical connections to the system
4. Testing the system.
This chapter covers installation of the Control Unit. (Installation of the
Analysis Unit is covered in Part II of this manual.)
3.1Unpacking the Control Unit
The analyzer is shipped with all the materials you need to install and
prepare the system for operation. Carefully unpack the Control Unit and
inspect it for damage. Immediately report any damage to the shipping agent.
3.2Mounting the Control Unit
The Model 3010TB Control Unit is for indoor/outdoor use in a general
purpose area. This Unit is NOT for any type of hazardous environments.
The standard model is designed for indoor/outdoor mounting. Figure 31 is an illustration of a Model 3010TB standard Control Unit front panel and
mounting brackets located-two at the top and two at the bottom of the units
frame. Drawing number D-64808, at the back of this manual, contains an
outline mounting diagram.
Teledyne Analytical Instruments
Part I: 3-1
3 InstallationModel 3010TB
NPT Fittings
supplied by
customer
Viewing
Window
0.0 % Anlz
AL -1
AC POWER IN
50/60 HZ
100-240V
3/4" NP T
Outer Door
Latch
ALARM OUTPUTS
DIGITAL INPUT SPAN ZERO
CAL. CONTACT RANGE
ID CONTACTS RS-232
SOLENOID RETURN
ANALOG O U TPUT S
REMOTE SENSOR
NET WORK
All operator controls are mounted on the inner control panel, which is
hinged on the left edge and doubles as a door to provide access to the internal components of the instrument. The door will swing open when the
button of the latch is pressed all the way in with a narrow gauge tool (less
than 0.18 inch wide), such as a small hex wrench or screwdriver Allow
3/4" NP T
1" NPT
1" NPT
Figure 3-1: Front Panel of the Model 3010 Control Unit
3-2: Part I
Teledyne Analytical Instruments
Oxygen AnalyzerPart I: Control Unit
clearance for the door to open in a 90-degree arc of radius 11.75 inches. See
Figure 3-2.
11.75
Figure 3-2: Required Front Door Clearance
3.3Electrical Connections
Figure 3-3 shows the Control Unit interface panel. Connections for
power, communications, and both digital and analog signal outputs are
described in the following paragraphs. Wire size and maximum length data
appear in the Drawings at the back of this manual.
Figure 3-3: Interface Panel of the Model 3010 Control Unit
For safe connections, ensure that no uninsulated wire extends outside of
the terminal blocks that are attached to. Stripped wire ends must insert
completely into terminal blocks. No uninsulated wiring should be able to
come in contact with fingers, tools or clothing during normal operation.
Teledyne Analytical Instruments
Part I: 3-3
3 InstallationModel 3010TB
N
Primary Input Power: The universal power supply requires a 100-
240V ac, 50/60 Hz power source. See Figure 3-4 for detailed connections.
DANGER:Power is applied to the instrument's circuitry as
long as the instrument is connected to the power
source. The standby function switches power on or
off to the displays and outputs only.
Hot
Ground
Turn cw to hold
ccw to
loosen w ir e.
eutral
Insert wire
here.
Figure 3-4: Primary Input Power Connections
Fuse Installation: The fuse holders accept 5 x 20 mm, 1.0 A, T
type (slow blow) fuses. Fuses are not installed at the factory. Be sure to
install the proper fuse as part of installation (See Fuse Replacement in
chapter 5, maintenance.)
Analog Outputs: There are eight DC output signal connectors on
the ANALOG OUTPUTS terminal block. There are two connectors per
output with the polarity noted. See Figure 3-5.
The outputs are:
0–1 V dc % of Range:Voltage rises linearly with increasing oxygen, from
0 V at 0% to 1 V at 100%. (Full scale = 100%
programmed range.)
0–1 V dc Range ID:0.25 V = Low Range, 0.5 V = Medium Range,
0.75 V = High Range, 1 V = Air Cal Range.
3-4: Part I
Teledyne Analytical Instruments
Oxygen AnalyzerPart I: Control Unit
4–20 mA dc % Range: (-M Option) Current increases linearly with increas-
ing oxygen, from 4 mA at 0% to 20 mA at full scale
100%. (Full scale = 100% of programmed range.)
4–20 mA dc Range ID: (-M Option) 8 mA = Low Range, 12 mA = Me-
dium Range, 16 mA = High Range, 20 mA = Air
Cal Range.
Figure 3-5: Analog Output Connections
Examples:
The analog output signal has a voltage which depends on the oxygen
concentration AND the currently activated analysis range. To relate the
signal output to the actual concentration, it is necessary to know what range
the instrument is currently on, especially when the analyzer is in the
autoranging mode.
The signaloutput for concentration is linear over currently selected
analysis range. For example, if the analyzer is set on a range that was
defined as )-10 % O2, then the output would be as shown in Table 3-1.
To provide an indication of the range, a second pair of analog output
terminals are used. They generate a steady preset voltage (or current when
using the current outputs) to represent a particular range. Table 3-2 gives the
range ID output for each analysis range.
Table 3-2: Analog Range ID Output - Example
RangeVoltage (V)Current (mA)
LO0.258
MED0.5012
HI0.7516
CAL (0-25%)1.0020
Alarm Relays:
3-6: Part I
Teledyne Analytical Instruments
Oxygen AnalyzerPart I: Control Unit
There are three alarm-circuit connectors on the alarm relays block
(under RELAY OUTPUTS) for making connections to internal alarm relay
contacts. Each provides a set of Form C contacts for each type of alarm.
Each has both normally open and normally closed contact connections. The
contact connections are indicated by diagrams on the rear panel. They are
capable of switching up to 3 ampers at 250 V AC into a resistive load
(Figure 3-6).
Figure 3-5: Types of Relay Contacts
The connectors are:
Threshold Alarm 1:• Can be configured as high (actuates when
concentration is above threshold), or low
(actuates when concentration is below thresh old).
• Can be configured as fail-safe or non-fail-safe.
• Can be configured as latching or nonlatching.
• Can be configured out (defeated).
Threshold Alarm 2:• Can be configured as high (actuates when concen-
tration is above threshold), or low (actuates when
concentration is below threshold).
• Can be configured as fail-safe or non-fail-safe.
• Can be configured as latching or nonlatching.
• Can be configured out (defeated).
System Alarm:Actuates when DC power supplied to circuits is
unacceptable in one or more parameters. Permanently
configured as fail-safe and latching. Cannot be defeated. Actuates if self test fails.
To reset a System Alarm during installation, disconnect power to the instrument and then reconnect it
Further detail can be found in chapter 4, section 4-5.
Teledyne Analytical Instruments
Part I: 3-7
3 InstallationModel 3010TB
Digital Remote Cal Inputs
Remote Zero and Span Inputs: The REMOTE SPAN and RE-
MOTE ZERO inputs are on the DIGITAL INPUT terminal block. They
accept 0 V (OFF) or 24 V dc (ON) for remote control of calibration (See
Remote Calibration Protocol below.)
Zero:Floating input. 5 to 24 V input across the + and – terminals
puts the analyzer into the ZERO mode. Either side may be
grounded at the source of the signal. 0 to 1 volt across the
terminals allows ZERO mode to terminate when done. A
synchronous signal must open and close the external zero
valve appropriately. See Remote Probe Connector at end of
section 3.3. (With the -C option, the internal valves automatically operate synchronously).
Span:Floating input. 5 to 24 V input across the + and – terminals
puts the analyzer into the SPAN mode. Either side may be
grounded at the source of the signal. 0 to 1 volt across the
terminals allows SPAN mode to terminate when done. A
synchronous signal must open and close the external span
valve appropriately. See Remote Probe Connector at end of
section 3.3. (With the -C option, the internal valves automatically operate synchronously.)
Cal Contact: This relay contact is closed while analyzer is spanning
and/or zeroing. (See Remote Calibration Protocol below.)
Remote Calibration Protocol: To properly time the Digital Remote
Cal Inputs to the Model 3010TB Analyzer, the customer's controller must
monitor the Cal Relay Contact.
When the contact is OPEN, the analyzer is analyzing, the Remote Cal
Inputs are being polled, and a zero or span command can be sent.
When the contact is CLOSED, the analyzer is already calibrating. It
will ignore your request to calibrate, and it will not remember that request.
Once a zero or span command is sent, and acknowledged (contact
closes), release it. If the command is continued until after the zero or span is
complete, the calibration will repeat and the Cal Relay Contact (CRC) will
close again.
For example:
1) Test the CRC. When the CRC is open, Send a zero command
until the CRC closes (The CRC will quickly close.)
2) When the CRC closes, remove the zero command.
3) When CRC opens again, send a span command until the CRC
closes. (The CRC will quickly close.)
3-8: Part I
Teledyne Analytical Instruments
Oxygen AnalyzerPart I: Control Unit
4) When the CRC closes, remove the span command.
When CRC opens again, zero and span are done, and the sample is
being analyzed.
Note: The Remote Probe connector (paragraph 3.3) provides signals
to ensure that the zero and span gas valves will be controlled
synchronously. If you have the -C Internal valve option which includes additional zero and span gas inputs - the
3010TB automatically regulates the zero, span and sample gas
flow.
Range ID Relays: Four dedicated RANGE ID CONTACT relays .
The first three ranges are assigned to relays in ascending order—Low range
is assigned to RANGE 1 ID, Medium range is assigned to RANGE 2 ID,
and High range is assigned to RANGE 3 ID. RANGE 4 ID is reserved for
the Air Cal Range (25%).
Network I/O: A serial digital input/output for local network protocol.
At this printing, this port is not yet functional. It is to be used in future
versions of the instrument.
RS-232 Port: The digital signal output is a standard RS-232 serial
communications port used to connect the analyzer to a computer, terminal, or
other digital device. The pinouts are listed in Table 3-3.
Table 3-3: RS-232 Signals
RS-232 Sig RS-232 Pin Purpose
DCD1Data Carrier Detect
RD2Received Data
TD3Transmitted Data
DTR4Data Terminal Ready
COM5Common
DSR6Data Set Ready
RTS7Request to Send
CTS8Clear to Send
RI9Ring Indicator
The data sent is status information, in digital form, updated every two
seconds. Status is reported in the following order:
Teledyne Analytical Instruments
Part I: 3-9
3 InstallationModel 3010TB
•The concentration in percent
•The range is use (HI< MED< LO)
•The span of the range 0-100%, etc)
•Which alarm - if any - are disabled (AL-x DISABLED)
•Which alarms - if any - are tripped (AL-x ON)
Each status output is followed by a carriage return and line feed.
Three input functions using RS-232 have been implemented to date.
They are described in Table 3-4.
Table 3-4: Commands via RS-232 Input
CommandDescription
as<enter>Immediately starts an autospan.
az<enter>Immediately starts an autozero.
st<enter>Toggling input. Stops/Starts any status message output
from the RS-232, Until st<enter> is sent again.
The RS-232 protocol allows some flexibility in its implementation.
Table 3-5 lists certain RS-232 values that are required by the 3010TB.
Table 3-5: Required RS-232 Options
ParameterSetting
Baud2400
Byte8 bits
Paritynone
Stop Bits1
Message Interval2 seconds
Remote Sensor and Solenoid Valves: The 3010TB is a single-chassis
instrument. However, the REMOTE SENSOR and SOLENOID RETURN
connectors are provided for use with a remote sensor and/or sampling system, if desired. See Figure 3-7 and 3-8.
The voltage from the solenoid outputs is nominally 0 V for the OFF
and 15 V dc for the ON conditions. The maximum combined current that
can be pulled from these output lines is 100 mA. (If two lines are ON at the
same time, each must be limited to 50 mA, etc.) If more current and/or a
different voltage is required, use relays, power amplifiers, or other matching
circuitry to provide the actual driving current.
Note that each individual line has a series FET with a nominal ON
resistance of 5 ohms (9 ohms worst case). This can limit the obtainable
voltage, depending on the load impedance applied. See Figure 3-9.
Figure 3-9: FET Series Resistance
Teledyne Analytical Instruments
Part I: 3-11
3 InstallationModel 3010TB
3.4Testing the System
After The Control Unit and the Analysis Unit are both installed and
interconnected, and the system gas and electrical connections are complete,
the system is ready to test. Before plugging either of the units into their
respective power sources:
•Check the integrity and accuracy of the gas connections. Make
sure there are no leaks.
•Check the integrity and accuracy of all electrical connections.
Make sure there are no exposed conductors
•Check that sample pressure is between 3 and 40 psig, according
to the requirements of your process.
Power up the system, and test it by performing the following
operations:
1. Repeat the Self-Diagnostic Test as described in chapter 4, section
4.3.5.
3-12: Part I
Teledyne Analytical Instruments
Oxygen AnalyzerPart I: Control Unit
Operation
4.1Introduction
Once the analyzer has been installed, configure it for your process. To
do this you can:
•Set system parameters—
•Specify a password, if desired, requiring operator to log in.
•Establish and start an automatic calibration cycle, if desired.
•Calibrate the instrument.
•Define the three user selectable analysis ranges. Then choose
autoranging or select a fixed range of analysis, as required.
•Set alarm setpoints, and modes (latching, failsafe, etc).
Before configuration these default values are in effect:
PARAMETERDEFAULT
LO Range100 ppm
MED Range1000 ppm
HI Range10,000 ppm
Auto RangingON
Alarm Relays1000 ppm
(Defeated, HI, Not failsafe, Not latching)
Span000008.00 ppm
(Auto, every 0 days at 0 hours)
Zero(Auto, every 0 days at 0 hours).
If you choose not to use password protection, the default password is
automatically displayed on the password screen when you start up, and you
simply press Enter for access to all functions of the analyzer.
Teledyne Analytical Instruments
Part I: 4-1
4 OperationModel 3010TB
4.2Using the Data Entry and Function
Buttons
Data Entry Buttons: The < > arrow buttons select options from the
menu currently being displayed on the VFD screen. The selected option
blinks.
When the selected option includes a modifiable item, the
buttons can be used to increment or decrement that modifiable item.
The Enter button is used to accept any new entries on the VFD screen.
The Escape button is used to abort any new entries on the VFD screen that
are not yet accepted by use of the Enter button.
Figure 4-1 shows the hierarchy of functions available to the operator via
the function buttons. The six function buttons on the analyzer are:
•Analyze. This is the normal operating mode. The analyzer
monitors the oxygen content of the sample, displays the
concentration of oxygen, and warns of any alarm conditions.
•System. The system function consists of six subfunctions that
regulate the internal operations of the analyzer:
•Auto-Cal setup
•Password assignment
•Self -Test initiation
•Checking software version
•Logging out.
ΔΔ
Δ∇ arrow
ΔΔ
•Zero. Used to set up a zero calibration.
•Span. Used to set up a span calibration.
•Alarms. Used to set the alarm setpoints and determine whether
each alarm will be active or defeated, HI or LO acting, latching,
and/or failsafe.
•Range. Used to set up three analysis ranges that can be switched
automatically with autoranging or used as individual fixed
ranges.
Any function can be selected at any time by pressing the appropriate
button (unless password restrictions apply). The order as presented in this
manual is appropriate for an initial setup.
4-2: Part I
Teledyne Analytical Instruments
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