The Raman Process Analyzer is designed for industrial applications. Treat with
care to avoid physical damage. THE WARRANTY DOES NOT COVER
DAMAGE FROM MISHANDLING.
Rosemount warrants that the equipment manufactured and sold by it will, upon
shipment, be free of defects in workmanship or material. Should any failure to conform to
this warranty become apparent during a period of one year after the date of shipment,
Rosemount shall, upon prompt written notice from the purchaser, correct such
nonconformity by repair or replacement, F.O.B. factory of the defective part or parts.
Correction in the manner provided above shall constitute a fulfillment of all liabilities of
Rosemount with respect to the quality of the equipment.
THE FOREGOING WARRANTY IS EXCLUSIVE AND IN LIEU OF
ALL OTHER WARRANTIES OF QUALITY WHETHER WRITTEN, ORAL,
OR IMPLIED (INCLUDING ANY WARRANTY OF MERCHANTABILITY
OF FITNESS FOR PURPOSE).
The remedy(ies) provided above shall be purchaser’s sole remedy(ies) for any failure
of Rosemount to comply with the warranty provisions, whether claims by the purchaser are
based in contract or in tort (including negligence).
Rosemount does not warrant equipment against normal deterioration due to
environment. Factors such as corrosive gases and solid particulates can be detrimental and
can create the need for repair or replacement as part of normal wear and tear during the
warranty period.
Equipment supplied by Rosemount Analytical Inc. but not manufactured by it will be
subject to the same warranty as is extended to Rosemount by the original manufacturer.
At the time of installation it is important that the required services are supplied to the
system. This will ensure, that should there be a delay between installation and full
commissioning that the analyzer being supplied with ac power will not be subjected to
component deterioration.
IB-103-300
i
Page 4
PURPOSE
The purpose of this manual is to provide a comprehensive understanding of the Raman Process Analyzer
components, functions, installation, and maintenance.
This manual is designed to provide information about the Raman Process Analyzer. We recommend that
you thoroughly familiarize yourself with the Description and Installation sections before installing your
analyzer.
The description presents the basic principles of the analyzer along with its performance characteristics
and components. The remaining sections contain detailed procedures and information necessary to install and
service the analyzer.
Before contacting Rosemount concerning any questions, first consult this manual. It describes most
situations encountered in your equipment’s operation and details necessary action.
DEFINITIONS
The following definitions apply to WARNINGS, CAUTIONS, and NOTES found throughout this
publication.
Highlights an operation or maintenance
procedure, practice, condition, statement,
etc. If not strictly observed, could result
in injury, death, or long-term health
hazards of personnel.
NOTE
Highlights an essential operating procedure,
condition, or statement.
: EARTH (GROUND) TERMINAL
: PROTECTIVE CONDUCTOR TERMINAL
: RISK OF ELECTRICAL SHOCK
: WARNING: REFER TO INSTRUCTION BULLETIN
Highlights an operation or maintenance
procedure, practice, condition, statement,
etc. If not strictly observed, could result
in damage to or destruction of
equipment, or loss of effectiveness
NOTE TO USERS
The number in the lower right corner of each illustration in this publication is a manual illustration
number. It is not a part number, and is not related to the illustration in any technical manner.
.
IB-103-300
ii
Page 5
IMPORTANT
LASER SAFETY INSTRUCTIONS
The Raman Process Analyzer uses a Class IV Diode Laser with a maximum output of 1 Watt at a wavelength of 810 nm (invisible, near-infrared light). The light is transmitted through fiber optic cables to and
from the probe. The Raman Process Analyzer contains a Laser Safety Device that detects the return intensity of the laser light. If the return light diminishes below a certain level, the device reduces the laser
power to Class I. This safety feature reduces the chance of personnel injury from contact with the laser.
Take the following precautions when working around the Raman Process Analyzer:
Invisible laser light — avoid exposure to operating laser. A Class IV laser is used in
this analyzer. The laser has a maximum output of 1 Watt at a wavelength of
810 nm.
1. Only service this product if you have completed formal training in laser safety and
safe servicing techniques on this unit.
2. Never look at the probe tip when the probe is connected to the analyzer. Disconnect
the fiber optic cables before examining the probe.
3. Always clean the probe tip when removed from process. It may be possible for liquid droplets or particles to attach to the tip of the probe, allowing light “reflection”
to return to the Laser Safety Device. Use only appropriate material that will not
scratch or otherwise damage the probe tip.
4. Do not bring the probe tip in contact with any surfaces when removed from the process. Any “scattered” light returned by the probe may trigger the laser back to Class
IV.
5. All personnel working in the area of the laser must wear laser safety goggles (fullgoggle type with side shields). Goggles must have a minimum attenuation factor of
100,000 (optical density 5) for an 810 nm wavelength.
IB-103-300
iii
Page 6
IMPORTANT
SAFETY INSTRUCTIONS FOR THE WIRING AND
INSTALLATION OF THE LASER
The following safety instructions apply specifically
to all EU member states. They should be strictly
adhered to in order to assure compliance with the
Low Voltage Directive. Non-EU states should also
comply with the following unless superseded by
local or National Standards.
1.Adequate earth connections should be made to all earthing points, internal and external,
where provided.
2.After installation or troubleshooting, all safety covers and safety grounds must be
replaced. The integrity of all earth terminals must be maintained at all times.
3.Mains supply cords should comply with the requirements of IEC227 or IEC245.
4.All wiring shall be suitable for use in an ambient temperature of greater than 75°C.
5.All cable glands used should be of such internal dimensions as to provide adequate cable
anchorage.
6.To ensure safe operation of this equipment, connection to the mains supply should only
be made through a circuit breaker which will disconnect all circuits carrying conductors
during a fault situation. The circuit breaker may also include a mechanically operated
isolating switch. If not, then another means of disconnecting the equipment from the
supply must be provided and clearly marked as such. Circuit breakers or switches must
comply with a recognized standard such as IEC947 (properly grounded three wire source
of electrical power). All wiring must conform with any local standards.
7.Warning - Electrical Shock Hazard. Where equipment or covers are
marked with the symbol to the right, hazardous voltages are likely to
be present beneath. These covers should only be removed when
power is removed from the equipment — and then only by trained
service personnel.
8.Caution - Hot Surface Hazard. Where equipment or covers are
marked with the symbol to the right, there is a danger from hot
surfaces beneath. These covers should only be removed by trained
service personnel when power is removed from the equipment.
Certain surfaces may remain hot to the touch.
9.Where equipment or covers are marked with the symbol to the
right, refer to the Operator Manual for instructions.
10.Warning - Laser Light Warning. Where equipment or covers
are marked with the symbol to the right, high powered laser
light is beneath. These covers should only be removed by
trained service personnel when power is removed from the
equipment.
11.All graphical symbols used in this product are from one or more of the following
standards: EN61010-1, IEC417, and ISO3864.
IB-103-300
iv
Page 7
ESSENTIAL INSTRUCTIONS
READ THIS PAGE BEFORE PROCEEDING
Rosemount Analytical designs, manufactures, and tests all its products to meet
many national and international standards. Because these instruments are sophisticated
technical products, you must properly install, use, and maintain them to ensure they
continue to operate within their normal specifications. The following instructions must
be adhered to and integrated into your safety program when installing, using, and
maintaining Rosemount Analytical products. Failure to follow the proper instructions
may cause any one of the following situations to occur: loss of life, personal injury,
property damage, damage to the instrument, and warranty invalidation.
Read all instructions prior to installing, operating, and servicing the product. If this
•
Instruction Bulletin is not the correct manual, telephone 1-800-654-7768 and the required manual will be provided. Save this instruction manual for future reference.
If you do not understand any of the instructions, contact your Rosemount represen-
•
tative for clarification.
Follow all warnings, cautions, and instructions marked on and supplied with the
•
product.
Inform and educate your personnel in the proper installation, operation, and mainte-
•
nance of the product.
!
Install your equipment as specified in the installation instructions of the appropriate
•
Instruction Bulletin and per applicable local and national codes. Connect all products to the proper electrical and pressure sources.
To ensure proper performance, use qualified personnel to install, operate, update,
•
program, and maintain this product.
When replacement parts are required, ensure that the qualified people use replace-
•
ment parts specified by Rosemount. Unauthorized parts and procedures can affect
the product’s performance and place the safe operation of your process at risk. Look
alike substitutions may result in fire, electrical hazards, or improper operation.
Ensure that all equipment doors are closed and protective covers are in place, except
•
when maintenance is being performed by qualified persons, to prevent electrical
shock and personal injury.
IB-103-300
v
Page 8
WHAT YOU NEED TO KNOW
BEFORE INSTALLING AND WIRING A ROSEMOUNT
RAMAN PROCESS ANALYZER
What is the line voltage being supplied to the Raman Process Analyzer?
1.
Write the line voltage here __________ .
Is the analyzer being controlled at the analyzer cabinet or by network connection?
2.
Is the conduit set-up and all wiring for the analyzer run?
3.
CAN YOU USE THE FOLLOWING
QUICK START GUIDE?
Use the Quick Start Guide if....
You are familiar with the Raman Process Analyzer installation requirements.
1.
All wiring and conduit are in place for installation of the analyzer.
2.
A configuration set exists for the process to be analyzed.
3.
You are familiar with the SURE calibration procedures.
4.
If you cannot use the Quick Start Guide, turn to Section II, Installation, in
this Instruction Bulletin.
IB-103-300
vi
Page 9
QUICK START GUIDE
RAMAN PROCESS ANALYZER
Before using the Quick Start Guide, please read “WHAT YOU
NEED TO KNOW BEFORE INSTALLING AND WIRING A
ROSEMOUNT RAMAN PROCESS ANALYZER” on the preceding page.
Mount the analyzer cabinet. Refer to Section II, paragraph 2-3.a.
1.
Install the Raman probes. Refer to Section II, paragraph 0.
2.
Install the fiber optic cable conduits. Refer to Section II, paragraph 0.
3.
Connect the fiber optic cables. Refer to Section II, paragraph 1-1.a.
4.
Connect the cooling air supply and filters to the analyzer cabinet. Refer to Section
5.
II, paragraph 2-3.e.
Connect line voltage to the analyzer cabinet. Refer to Section II, paragraph 2-4.
6.
Connect the network cable or computer peripherals to the analyzer cabinet. Refer
7.
to Section II, paragraphs 0 and 2-6.
Turn power on to the analyzer cabinet.
8.
If using a network connection to control the analyzer, use the NetSupport software
9.
to enable communication with the analyzer. Refer to Section III, paragraph 3-1.
10. Use MAINCFG to select the desired configuration set. Refer to Section III, paragraph 3-3.a.
11. Perform a dark scan and photometric calibration procedure. Refer to Section III,
paragraph 3-3.b.
12. Select the QUIT option to start the MAIN program and monitor the process.
IB-103-300
vii
Page 10
QUICK REFERENCE GUIDE
RAMAN PROCESS ANALYZER SOFTWARE
Select a configuration set
Close the MAIN program.
1.
Start the MAINCFG program.
2.
Select SYSTEM CONFIGURATION.
3.
Select ENABLE A CONFIGURATION.
4.
Select the configuration file to be used.
5.
Calibrate the analyzer
Use the MAINCFG program and load the correct configuration set for the process
1.
to be monitored.
Remove the probe from the process and ensure the probe is clean of any liquid or
2.
foreign material.
Mount the probe in the SURE calibration kit.
3.
Select PHOTOMETRIC CALIBRATION from the MAIN Setup Menu screen.
4.
A prompt to verify that the probe is connected to the calibration kit is displayed.
5.
Click the CONTINUE button.
Select the appropriate channel to be calibrated. Set the number of scans to 1 and
6.
click CONTINUE.
The system auto-ranges and acquires the dark scan current, then displays the pho-
7.
tometric curve. Make sure the curve is not saturated (have a flat region). If flat regions appear in the scan, back out the calibration kit two or three turns and press
RE-SAMPLE. Repeat the calibration kit adjustments and re-sampling until a
smooth photometric curve is measured.
Make sure the appropriate channel is selected and set the number of scans to 10.
8.
Press RE-SAMPLE, then press CONTINUE.
Press STORE to save this scan for future use. The selected channel photometrics
9.
are calibrated.
10. To calibrate the photometrics of another channel, repeat steps 1 through 9.
IB-103-300
viii
Page 11
Technical Support Hotline:
For assistance with technical problems, please call the Customer Support Center (CSC).
The CSC is staffed 24 hours a day, 7 days a week.
Phone: 1-800-433-6076
In addition to the CSC, you may also contact Field Watch. Field Watch coordinates
Rosemount’s field service throughout the US and abroad.
Phone: 1-800-654-RSMT (1-800-654-7768)
Rosemount may also be reached via the Internet through e-mail and the World Wide
Web:
E-mail: GAS.CSC@frco.com
World Wide Web: www.processanalytic.com
IB-103-300
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Page 12
Page 13
TABLE OF CONTENTS
SectionPage
Rosemount Warranty................................................................................................................................... i
Section I. System Overview.................................................................................................................... 1-1
1-1.Scope of Manual .............................................................................................................1-1
Section II. Installation ............................................................................................................................. 2-1
Section III. Setup ..................................................................................................................................... 3-1
Section IV. Operation.............................................................................................................................. 4-1
Section VII. Service ................................................................................................................................. 7-1
Index ............................................................................................................................................................I-1
IB-103-300
xi
Page 14
LIST OF ILLUSTRATIONS
FigurePage
Figure 1-1. Typical Raman Process Analyer System Package...........................................................1-1
Table 1-1. Raman Process Equipment Specifications (Analyzer)*................................................. 1-5
Table 8-1. Replacement Parts for the Raman Process Analyzer.......................................................8-1
IB-103-300
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Page 16
Page 17
1
SECTION I. SYSTEM OVERVIEW
1-1. SCOPE OF MANUAL
This instruction bulletin covers installation, setup,
operation, troubleshooting, and maintenance of the
Raman Process Analyzer manufactured by Rosemount Analytical. The troubleshooting and service
procedures in this manual are limited to those that
can be performed by most equipment operators.
1-2. COMPONENTS CHECKLIST
(PACKAGE CONTENTS)
The Raman Process Analyzer system includes the
items listed in Figure 1-1. The SURE Calibration Kit
contains all the necessary components for quickly
calibrating the analyzer.
1-3. FUNCTIONAL EQUIPMENT DESCRIPTION
When properly configured, the analyzer detects and
measures the concentration of sample components
that inelastically scatter light. Access for the detection of the process components is accomplished with
one to four analyzer probes installed in or around the
process flow.
Functional components of the analyzer are shown in
the electronic diagram of Figure 1-2. The important
components of the diagram include the process
probes, the diode lasers, the laser safety device,
spectrograph, vortex cooler, CCD camera, and the
industrial computer. Brief descriptions of the analyzer component functions are provided in the following paragraphs.
1. Analyzer
2. Analyzer Test Records
3. Instruction Bulletin
4. Backup Software
5. SURE Calibration Kit
6. Oil Filter
7. Water Filter
8. In Situ Probe (1 per channel)
9. Fiber Optic Cables (3 per probe)
Figure 1-1. Typical Raman Process Analyzer System Package
IB-103-300
1-1
Page 18
PRESSURE
REGULATOR
AIR
SUPPLY
OIL
FILTER
VORTEX
COOLING
CHAMBER
AIR
VALV E
HOT
AIR
USER
INTERFACE
ANALYZER CABINET
INDUSTRIAL
COMPUTER
LASER
CONTROL
MODULE
WATER
FILTER
CONTROLLER
PROCESS PROBES
LASER
SAFETY
BOARD
DIAMOND
REFERENCE 1
FILTER
CCD
CAMERA
1
OPTIC
SPECTROGRAPH
DIODE
LASER 1
SPLITTER
OPTIC
FILTER
DIODE
LASER 2
DIAMOND
REFERENCE 2
CCD
CAMERA
HEAD
SPLITTER
SPLITTER
2
3
4
Figure 1-2. Functional Equipment Diagram
IB-103-300
1-2
SPLITTER
27320024
Page 19
The following are brief descriptions of analyzer component functions. A listing of components in the
analyzer cabinet is provided in Figure 1-3.
a. Diode Lasers and Probes.
The analyzer uses
one or two diode lasers and up to four process
probes. Each diode laser generates a light beam.
The light beam is split in a 10/90 optic splitter.
Fiber optic cables transmit ten percent of the
beam to a diamond reference circuit and the remaining ninety percent to a 50/50 optic splitter.
A fiber optic cable from the diamond reference
transmits the reference beam to the spectrograph.
The ninety percent portion of the beam is evenly
split to provide excitation energy for two process
probes. Each beam is filtered at the probe to
eliminate stray radiation. The probe emits the
filtered laser beam into the process flow.
The process components inelastically scatter distinct wavelengths. Two return cables transmit
scattered light from the probe to the analyzer.
The unfiltered S cable transmits all scattered
light to the Laser Safety Device. The filtered R
cable transmits only a specific range of nearinfrared wavelengths to the spectrograph.
Laser Safety Device.
To minimize operator
hazards, the laser safety device monitors the intensity of the scattered laser light from the process flow. If the safety device receives less than
an acceptably large part of the scattered light, it
reduces the laser power output from Class IV to
Class I.
The laser safety device continues to regulate the
output of the diode lasers at pulsed Class I power
levels until the device detects an acceptable
amount of scattered light from the process.
Low light scatter may indicate a broken fiber optic cable, a bad cable connection, or removal of
the probe from the process. Refer to the “Laser
Safety Instructions” in the front of this manual
for more information.
b. Vortex Cooler.
The vortex cooler helps control
the temperature of the CCD (charge coupled device) camera and the cabinet interior. The main
function of the vortex cooler is to maintain the
ambient temperature near the camera at 30°C so
that the internal CCD chip temperature will remain at –30°C.
Incoming instrument air is dried, filtered, and
routed through a temperature-controlled air valve
to the vortex cooler. The vortex effect separates
the forced air into warm and cold air flows. The
chilled air is routed to the CCD camera.
As the cabinet air gets warmer, the air valve
opens a larger flow of forced air to the vortex
chamber, providing more cooling air to the camera. As the cabinet air cools, a proportional air
valve partly closes to slow the flow of cooling
air.
c. Spectrograph and CCD Camera.
Filtered light
from the diamond reference and the R probe is
transmitted by fiber optic cable to the spectrograph. The spectrograph separates incoming light
into distinct wavelengths. Each wavelength of
light is sent to the CCD camera head where the
spectral image is decoded and electronically transferred to the CCD camera controller. The controller processes the spectral image into numerical
data. The data is sent to the industrial computer for
interpretation and display.
d. Industrial Computer.
The industrial computer
converts data points into light intensity with respect to frequency. The histogram of each predicted component is displayed on the CRT. The
spectra are processed by the prediction’s algorithm in accordance with the calibration file.
Each application requires its own calibration file.
The output data is stored for further analysis.
e. User Interface.
An interface device is required
to set up and operate the analyzer using the
MAIN and MAINCFG software programs. The
user interface device can be a remote computer
connected through a network modem, Ethernet,
RF antenna and laptop computer, or a monitor,
keyboard, and mouse connected at the analyzer
cabinet.
f. Analyzer Outputs.
The available analyzer out-
puts are MODBUS and/or analog, 4 to 20 mA.
g. SURE Calibration Kit.
The SURE calibration
kit is a light proof housing that secures the probe
tip above a fluorescent glass. The kit uses no
external light source or power source. When the
fluorescent glass and probe are properly assembled in the light-proof housing, the analyzer can
be calibrated using the MAINCFG software program.
Typical Error ...................................................................................... Less than 1% of full-scale, application dependent
Operating Temperature ............................................................................................................ 32° to 122°F (0° to 50°C)
Storage Temperature ................................................................................................................ 32° to 122°F (0° to 50°C)
Relative Humidity .......................................................................................................................................... 20 to 100%
Warm-up Time ................................................................................................................................................ 60 minutes
Input Power ....................................................................................................................... 115 or 230 VAC, 50 or 60 Hz
Power Rating .......................................................................................................................................... 250 VA (250 W)
Electrical Classification ............................................................................................... General Purpose or Class I, Div II
Dimensions (H x W x D) .................................................................................. 48 x 24 x 12 in. (1219 x 610 x 305 mm)
Weight ....................................................................................................................................................... 165 lbs (75 kg)
Certification ......................................................................................................................................... CE Mark Pending
*Probe specifications may vary from probe to probe. Refer to the material supplied with probe for specifications.
IB-103-300
1-5/1-6
Page 22
Page 23
2
SECTION II. INSTALLATION
2-2. TYPICAL INSTALLATION
Before starting to install this equipment,
read the “Safety instructions for the
wiring and installation of the laser” at
the front of this Instruction Bulletin.
Failure to follow the safety instructions
could result in serious injury, death, or
substantial property damage.
2-1. OVERVIEW
This section covers installation of the Rosemount
Raman Process Analyzer. Included are a typical installation, common requirements, what you need to
have on hand to start an installation, and the mechanical and electrical installation instructions. An
authorized Rosemount service representative must
complete the analyzer installation. You must complete the mechanical installation before calling the
service representative for final check-out and installation commissioning.
A typical system installation is shown in Figure 2-1.
When properly installed, the analyzer cabinet is securely mounted to a wall in the process control area.
The cabinet should not be mounted in the path of direct sunlight.
Process probes are installed in the process flow (usually a sampling flow). Up to four process probes may
be installed for each analyzer. The installed probes
should be adequately shielded from accidental impact, rainfall, and direct sunlight. Ready access for
probe removal, cleaning, and replacement is recommended.
Fiber optic cable lengths are per customer specification. Make sure the correct cables are selected for
each run. One inch or larger diameter conduits or cable troughs are recommended for shielding the fiber
optic cables. Pull boxes are needed when successive
cable bend angles exceed 180 degrees. Conduit ends
should point down to protect against water accumulation. Sharp conduit edges must be avoided and the
cables should be lubricated before pulling.
Figure 2-1. Typical Installation
IB-103-300
2-1
Page 24
2-3. MECHANICAL INSTALLATION
a. Analyzer Cabinet.
Lift the cabinet with the upper brackets. Avoid
contact with the vortex cooler. Position and securely mount the cabinet using appropriate
screws and flat washers.
b. Raman Probe.
Never rest the cabinet standing up.
Damage to conduit fittings can occur.
The analyzer is housed in a NEMA-4X cabinet.
The NEMA-4X cabinet is suitable for wall
mounting in a Class I, Division II environment
when equipped with an ISA Type Z-Purge.
When lifting, the cabinet door must be closed
and latched. Make sure the mounting brackets
are installed and tight.
The analyzer cabinet weighs approximately 165
lbs (75 kg). Analyzer cabinet mounting dimensions are provided in Figure 2-2. Mark the position for cabinet hanger mounting on center with
wall studs or a securely mounted plywood backplate.
24.0
(609.6)
12.0
(304.8)
Each analyzer system includes up to four process
probes designed for mounting in a flow line or
tank. Install each process probe according to the
following instructions:
1.
Remove the protective covers from the
probe tip, Figure 2-3.
2.
Install a bored through compression fitting
of compatible metallurgy in the process
line, tee, or process tank wall.
3.
Insert the probe to the desired depth in the
compression fitting.
4.
If compatible with the process, apply a suitable sealant around the seal diameter of the
probe.
5.
Tighten the compression fitting to secure
the probe. Do not over-tighten the fitting.
48.0
(1219.2)
NOTE:
DIMENSIONS ARE IN INCHES WITH
MILLIMETERS IN PARENTHESIS.
Figure 2-2. Analyzer Cabinet Installation
27320025
Figure 2-3. Raman Probe
IB-103-300
2-2
Page 25
ENDPLATE
Overlay 3 ft (91.4 cm) of the fiber optic ca-
4.
ble onto the pull tape and wrap with nylon
string to hold in place. Wrap and tape the
fiber optic cable to the pull tape as shown in
Figure 2-5.
CABLE PULL
BOX (90 TURN
CONDUIT
FIBER OPTIC
CABLE
Figure 2-4. Cable Pull Box
c. Fiber Optic Cable Conduits.
Fiber optic cables are precision optics
devices. Careless handling or installation of a fiber optic cable can result in
permanent cable damage.
Install a 3/4 in. (19 mm) diameter minimum
1.
conduit from the analyzer cabinet to each
process probe. The minimum radius for all
conduit bends is 10 in. (254 mm). For fiber
optic cable runs, it is not required to connect the conduit to the analyzer cabinet.
o
FITTING)
27320060
NYLON STRING
(WRAP TIGHTLY)
PULL TAPE
Carefully pull the cable through the con-
5.
duit; pull enough cable to allow for cable
slack when connecting at the analyzer cabinet or probe.
When using cable pull boxes, turn the
6.
coiled cable over. Feed the pull tape to the
opposite side of the pull box. Wrap and tape
the cable to the pull tape and pull the free
end through the next section of conduit.
Repeat the cable pulling instructions as
needed to install all fiber optic cables.
FIBER OPTIC
CABLE
FEED STRING
THROUGH PULL
TAPE EYELET
3FT
(91.4 CM)
WRAP WITH
ELECTRICAL
TAPE
Install a cable pull box following a series of
2.
conduit bends totaling 180 degrees. A 90
degree turn fitting (Figure 2-4) is recommended for use as a cable pull box.
When using pull boxes, coil the fiber optic
3.
cable into a figure eight below the pull box.
Feed a cable pull tape from one conduit end
to the pull box.
27320031
Figure 2-5. Cable to Pull Tape Connection
IB-103-300
2-3
Page 26
d. Connecting Fiber Optic Cables.
Each process probe has four SMA connectors.
The probe connectors are marked “S” for the laser safety, “L” for laser excitation light, and “R”
for Raman light collection. The L and R connectors have mating, in-line optic filters. The
unmarked connector is a spare S or R connector.
Install the Raman probes according to the following instructions:
Remove the protective caps from the S, L,
1.
and R probe connectors (Figure 2-6).
Carefully handle fiber optic cables.
Avoid bending, pulling, or compressing
the cables. Excess stress on the cables or
connectors can cause permanent cable
damage.
The Raman probe is a delicate precision
optics device. Careless handling or installation can result in permanent probe
damage.
Figure 2-6. Probe Connections
IB-103-300
2-4
Page 27
Remove a protective cap from one probe
2.
terminal. Tilt the mating optic filter or cable connector and carefully align the fiber
optic filament with the mating filter or connector orifice. Level both connectors, insert the filament, and install the connector
finger tight.
NOTE
Save the protective caps and use them
whenever the fiber optic cables are disconnected. For ready access, Rosemount recommends that you store the protective caps
in a plastic bag taped to the inside of the
analyzer cabinet door.
Repeat step 2 for each probe connector and
3.
mating filter and/or cable connector.
2-4. ELECTRICAL INSTALLATION
Use the following procedures to supply electrical
power to the analyzer. Input power to the module
can be either 115 or 230 VAC, 50/60 Hz, single
phase. A properly rated electrical breaker is required.
Rosemount recommends installing an ON/OFF
switch outside the analyzer cabinet.
Install all protective equipment covers
and safety ground leads after installation. Failure to install covers and
ground leads could result in serious injury or death.
Using a procedure similar to step 2, care-
4.
fully connect the fiber optic cables to their
mating terminals at the analyzer cabinet.
e. Air Supply Connection.
The analyzer uses a
vortex cooler system to maintain the analyzer
cabinet temperature. Connect the supplied water
and oil filters to the analyzer cabinet as shown in
Figure 2-7.
Rosemount recommends mounting a pressure
gage after the filters to monitor filter performance.
Connect the air supply and air pressure regulator
to the water filter. The instrument air supply
must be dry, filtered air at 60 psi (414 kPa)
minimum, developing 15 SCFM, minimum.
PRESSURE
REGULATOR
PRESSURE
GAGE
a. Input Voltage Selector.
The input voltage selection is configured per customer request (115
or 230 VAC). If it becomes necessary to change
the input voltage, contact an authorized Rosemount Service Representative.
b. Electrical Wiring and Conduits.
NOTE
It may be necessary to enlarge conduit ports
to install the conduits.
All electrical wiring and conduits must conform
to local codes. Refer to Figure 2-8 for the location of the conduit ports.
AIR
SUPPLY
60 PSI
(414 kPa)
WATER
FILTER
OIL
FILTER
Figure 2-7. Air Supply Hookup
ANALYZER
CABINET
27320026
Figure 2-8. Conduit Ports
IB-103-300
2-5
Page 28
c. Cabinet Power.
Lock out the cabinet power source at the main
disconnect. Connect cabinet electrical power at
the input power terminal (Figure 2-9).
Disconnect and lock out power source
before working on electrical components. Failure to lock out power may result in severe injury or death.
NOTE
All through cables and wiring should be
routed through the conduit ports on the
bottom of the cabinet.
2-5. COMPUTER NETWORK
If using the network function of the analyzer, connect
an appropriate networking cable to the computer modem terminal shown in Figure 2-10.
2-6. COMPUTER PERIPHERALS
A monitor, keyboard, and mouse may be connected
to the analyzer computer. Remove the computer terminal cover and connect the peripherals to the terminals shown in Figure 2-10.
Figure 2-9. Input Power Terminal
Figure 2-10. Computer Connections
IB-103-300
2-6
Page 29
2-7. INSTALLATION INSPECTIONS
Perform the following equipment installation checks
in the order provided.
Install all protective equipment covers
and safety ground leads after installation. Failure to install covers and
ground leads could result in serious injury or death.
a. Mechanical Checks.
Verify that the analyzer cabinet is securely
1.
mounted out of the path of direct sunlight.
Verify that all the fiber optic cables are
2.
connected to mating terminals on the analyzer termination board. Ensure that all fiber optic cable connections are finger-tight.
Verify the Raman probes are properly in-
3.
stalled in the process stream. Verify that all
probe shields are in place.
Verify that the fiber optic cables and optic
4.
filters are connected to mating terminals on
the probe. Ensure that all fiber optic cable
connections are finger-tight.
b. Electrical Checks.
Verify that analyzer input power is properly
1.
connected per Figure 2-9.
Open the analyzer cabinet and verify that
2.
the computer POWER ON/OFF switch is in
the ON position.
Verify that the CCD camera controller
3.
POWER ON/OFF switch is in the ON position and close the analyzer cabinet.
If using the remote networking, ensure the
4.
network cables are attached to the analyzer
per Figure 2-10.
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Page 31
3-1. COMMUNICATION SOFTWARE
When provided, the NetSupport Local Control program allows remote personal computers to communicate with the analyzer through a RF wireless network.
The NetSupport software must be started each time
the remote computer is turned on. If needed, refer to
the software manual for more information. To initiate network access to the analyzer:
Select NETSUPPORT LOCAL CONTROL
a.
from the Windows™ START menu. The
NETSUPPORT CONTROL screen (Figure 3-1)
is displayed.
From the NETSUPPORT CONTROL screen,
b.
click on the menu CLIENTS and select CONNECT/DISCONNECT from the menu items.
The KNOWN CLIENTS screen (Figure 3-2) is
displayed.
In the KNOWN CLIENTS screen, click the
c.
analyzer you wish to control and click the CONNECT button. The program will prompt you
when the connection is made.
3
SECTION III. SETUP
Figure 3-2. KNOWN CLIENTS Screen
After the program prompts that the connection is
d.
made, click the CLOSE button. You will be returned to the NETSUPPORT CONTROL
screen. From the NETSUPPORT CONTROL
screen, click on the menu SELECTED CLIENTS menu and select CONTROL from the
menu items.
The program will display a message informing
e.
you how to switch from the client computer to
the local computer. Click on the OK button.
27320033
27320032
Figure 3-1. NETSUPPORT CONTROL Screen
The local computer will now display the RA-
f.
MAN PROCESS ANALYZER screen of the
MAIN program for the analyzer selected above.
Analyzers supplied with an Ethernet connection are
equipped with pcANYWHERE software. The
pcANYWHERE software provides TCP/IP protocol and allows a personal computer (PC) to communicate with multiple Raman Analyzers along a
network. When provided, pc ANYWHERE also
supports modem communication.
IB-103-300
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Page 32
Figure 3-3. MAINCFG Program Structure
IB-103-300
3-2
Page 33
27320013
Figure 3-4. SETUP MENUS Screen
Figure 3-5. SYSTEM CONFIGURATION
MENU Screen
27320014
3-2. MAINCFG PROGRAM
This program is used for setting up and calibrating
the Analyzer.
a. Starting the MAINCFG Program.
starting the MAINCFG program, close the
MAIN program, if running. Select FILE ⇒
EXIT from the MAIN file menu. To start the
MAINCFG program, select MAINCFG from the
Windows START menu. Figure 3-3 shows the
MAINCFG program structure.
b. SETUP MENUS.
The SETUP MENUS screen
(Figure 3-4) displays when the program starts.
The selections following are available from the
SETUP MENUS screen:
SYSTEM CONFIGURATION. Clicking
1.
on the SYSTEM CONFIGURATION button displays the SYSTEM CONFIGURATION MENU screen shown in Figure 3-5.
NOTE
Before
(a) CHANGE AN EXISTING CON-
FIGURATION. Selecting this button
allows you to specify new settings for
a configuration file used to process
raw data. The program will prompt
you for the configuration file to be
modified. When the file is selected,
the SYSTEM CONFIGURATION
screen (Figure 3-6) displays the following menu selections:
CONFIGURE PLS. Clicking this
1
button prompts you to select a
calibration file to use in the configuration. When a calibration
file is selected, the PLS SETUP
screen (Figure 3-7) displays.
When changing a configuration file, keep in
mind that the file will be overwritten and
the previous configuration will be lost.
27320015
Figure 3-6. SYSTEM CONFIGURATION
Screen
IB-103-300
3-3
Page 34
Figure 3-7. PLS SETUP Screen
27320016
The PLS SETUP screen allows
you to enable or disable the PLS
predictions used to display the
histogram on the RAMAN PROCESS ANALYZER screen.
Click on the ACCEPT button to
accept the new calibration file.
Click on the QUIT button to exit
without changing the calibration
file.
CONFIGURE STRIPS. Clicking
2
on this button displays the CCD
MAP screen (Figure 3-9). This
screen allows you to select the regions of interest (ROI) on the
CCD camera array. Use the
GRAB AN IMAGE button to
acquire an image. Click on and
drag the lines on the image map to
define the diamond reference
channel and sample channel
ROIs. Green lines define the ROI
for the diamond reference channel. Black lines define the ROI
for the sample channel. Click on
the APPLY STRIPS button to
save the new strip configuration.
Click on the QUIT button to exit
the CCD MAP screen.
27320015
Figure 3-8. SYSTEM CONFIGURATION
Screen
IB-103-300
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Page 35
Figure 3-9. CCD MAP Screen
27320018
Figure 3-10. CONFIGURE MODBUS Screen
FACTORY PARAMETERS.
3
This screen is for use by authorized Rosemount Service Representatives only.
27320017
CONFIGURE MODBUS.
4
Click on this button to display the
CONFIGURE MODBUS screen
in Figure 3-10. This screen allows you to configure the RS-485
serial port parameters. This
screen is typically used by
authorized Rosemount Service
Representatives only.
The ACCEPT button saves the
displayed parameters and returns
you to the SYSTEM CONFIGURATION screen.
The QUIT button will ignore parameter changes and return you to
the SYSTEM CONFIGURATION screen.
ACCEPT. Clicking on the AC-
5
CEPT button saves the new system configuration set and returns
you to the SYSTEM CONFIGURATION MENU screen.
IB-103-300
3-5
Page 36
QUIT. Clicking on the QUIT
6
button will discard the configuration changes made and will return
you to the SYSTEM CONFIGURATION MENU screen.
(b) CREATE A NEW CONFIGURA-
TION SET. This button (Figure
3-11) allows you to create a new configuration set using the same configuration menus as changing a
configuration set. The program will
prompt you for the file name before
the SYSTEM CONFIGURATION
screen displays.
(c) ENABLE A CONFIGURATION.
This button allows you to select a configuration file. The program will
prompt you for the configuration file
to load.
(d) QUIT. Clicking on the QUIT button
returns you to the MAIN screen.
27320013
Figure 3-12. SETUP MENUS Screen
X-AXIS CALIBRATION. The X-AXIS
2.
CALIBRATION option (Figure 3-12)
should be used by authorized Rosemount
Service Representatives only.
PHOTOMETRIC CALIBRATION.
3.
Clicking this button displays a configuration message (Figure 3-13). When the
probe is mounted in the SURE calibration
kit, click the CONTINUE button.
27320014
Figure 3-11. SYSTEM CONFIGURATION
MENU Screen
If the probe is not mounted in the SURE
calibration kit, click the QUIT button to
return to the SETUP MENUS screen.
ENSURE THAT THE FLUORESCENT MATERIAL
IS ATTACHED TO THE END OF THE PROBE FOR
THE CHANNEL TO BE CALIBRATED
27320057
Figure 3-13. Calibration Message
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3-6
Page 37
Figure 3-14. PHOTOMETRIC CALIBRATION Screen
27320058
The PHOTOMETRIC CALIBRATION
screen (Figure 3-14) is used during the
analyzer calibration procedure outlined in
paragraph 3-3.b of this section. When the
number of scans to average has been entered, click the continue button. The analyzer performs a series of scans and
averages the scans to display a calibration
spectrum. When the spectrum is displayed,
the following buttons appear on the bottom
of the screen:
(a) RE-SAMPLE. Clicking the RE-
SAMPLE button starts the calibration
process over. The new averaged
spectrum will display.
(b) STORE. Clicking the STORE button
will save the calibration spectrum for
use in the configuration set as the
photometric calculation spectrum.
(c) QUIT. Clicking the QUIT button will
exit without saving the spectrum and
return you to the SETUP MENUS
screen.
DARK CURRENT CALIBRATION.
4.
Clicking on the DARK CURRENT
CALIBRATION button displays the DARK
CURRENT CALIBRATION screen
(Figure 3-15). This screen allows you to
capture and save a dark scan used to cancel
out the dark current background “noise”
captured by the camera. To grab a dark
scan, click on the RE-SAMPLE button.
The scan will display on the CRT. To save
the dark scan, click on the STORE button.
To exit the DARK CURRENT CALIBRATION screen, click on the QUIT
button.
ABOUT . Clicking the ABOUT button
5.
displays the program information, such as
version and date.
END. Clicking on the END button exits the
6.
MAINCFG program.
IB-103-300
3-7
Page 38
3-3. SETUP
The following procedures are for setup and calibration of the analyzer. If you are inexperienced, or do
not understand the procedures, contact an authorized
Rosemount service representative for help.
The analyzer must be calibrated after any of the following occurs:
• Replacement of fiber optic cable(s).
• Replacement of Diode Laser.
• Adjustment of laser power.
• Process or configuration set change.
a. Select A Configuration Set.
A configuration
set must be selected prior to monitoring a
process. After selecting a configuration set, the
analyzer must be calibrated according to step
3-3.b.
An existing configuration set can be modified
using the MAINCFG program. See CHANGE
AN EXISTING CONFIGURATION on page
3-3 for more information on modifying an existing configuration set.
A new configuration set may be created using the
MAINCFG program. See CREATE A NEW
CONFIGURATION SET on page 3-6 for more
information on creating a new configuration set.
After modifying or creating a new configuration
set, the set must then be enabled. See ENABLE
A CONFIGURATION on page 3-6 for more information on enabling a configuration set.
Figure 3-15. DARK CURRENT CALIBRATION Screen
IB-103-300
3-8
27320019
Page 39
b. Calibration.
Calibrate the analyzer according to
the following procedure:
Verify that the correct configuration set is
1.
loaded for the process to be monitored.
(a) Exit the MAIN program and start the
screen.
(b) Type the MAINCFG program.
(c) Select the SYSTEM CONFIGURA-
TION button from the SETUP
MENUS screen.
(d) Select ENABLE A CONFIGURA-
TION from the SYSTEM CONFIGURATION MENU screen and
enter the name of the file you will be
using to monitor the process.
Remove the probe from the process stream.
2.
Clean all liquid and foreign material from
the probe.
Carefully place the probe into the SURE
3.
calibration block and secure the probe.
From the SETUP MENUS screen, select
4.
PHOTOMETRIC CALIBRATION. The
calibration message will display. If the
probe is mounted in the SURE calibration
kit, click the CONTINUE button. Otherwise click the QUIT button.
Using the PHOTOMETRIC CALIBRA-
5.
TION screen as described on page 3-7, set
the number of scans to average to 1 and
click the CONTINUE button. The analyzer
begins the calibration process.
The analyzer will display a graph of the
6.
dark scan current followed by a display of
the photometric curve.
Inspect the photometric curve for a quick
7.
rise or fall followed by a flat region. A flat
region indicates that the detector is saturated; the probe must be backed away from
the fluorescent glass. If no signal or a weak
signal is shown on the spectrum, the probe
must be moved toward the fluorescent
glass.
If the spectral curve is not adequate, adjust
8.
the probe position two or three turns and
select the RE-SAMPLE button to repeat the
calibration process.
Repeat steps 7 and 8 as needed to achieve a
9.
smooth spectral curve. When an adequate
spectral curve is displayed, set the number
of scans to 10, select RE-SAMPLE, then
select CONTINUE.
10. Press the STORE button to save the photometric calibration scan for use in the configuration file. The selected channel
photometrics are now calibrated.
11. Remove the probe from the SURE calibration assembly and mount the probe in the
process stream according to company
guidelines.
12. Repeat steps 1 through 11 to calibrate the
photometrics of another channel.
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Page 41
4
SECTION IV. OPERATION
4-1. OVERVIEW
This section covers analyzer operation. Before attempting to operate the analyzer, thoroughly read and
understand the information provided in this Instruction Bulletin.
4-2. SOFTWARE USAGE CONVENTIONS
The following paragraphs describe how to select
menu options and change operator-selected equipment parameters.
NOTE
“Display” and “window” refer to graphic
and text overlays that appear on the CRT.
a. Selecting a Menu Item.
the pointer over the desired menu item, usually a
button, and click once with the left mouse button
to select the menu item.
b. Changing a Setup Variable.
equipment setup variable, highlight the existing
data block and type in the new value or use the
displayed arrow buttons to increase or decrease
the value shown.
To toggle an on/off setting, click the on/off
switch image once with the left mouse button.
c. Screen Options.
found on most histogram screens. Their functions
are as follows:
This button zooms the image to in-
1.
clude the extents of the x-axis. The switch
displayed beside the button locks and unlocks this zoom selection.
Use the mouse to move
To change an
The following buttons are
This button zooms the image to in-
2.
clude the extents of the y-axis. The switch
displayed beside the button locks and unlocks this zoom selection.
This button allows the operator to
3.
change the format and precision of the
x-axis values displayed.
This button allows the operator to
4.
change the format and precision of the
y-axis values displayed.
This button allows the operator to
5.
choose from the following zoom selections:
(a)
(b)
(c)
(d)
(e)
6.
fault icon. The operator cannot zoom or
scroll using this icon.
7.
scroll the display.
This button allows the operator
to select any area to zoom.
This button allows the operator
to zoom on a specified x-axis area.
This button allows the operator
to zoom on a specific y-axis area.
This button allows the operator
to zoom in.
This button allows the operator
to zoom out.
This button sets the cursor to its de-
This button allows the operator to
IB-103-300
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Page 42
Figure 4-1. MAIN Program Structure
IB-103-300
4-2
Page 43
Figure 4-2. RAMAN PROCESS ANALYZER Screen
27320003
4-3. MAIN PROGRAM STARTUP
You can start the software by selecting the MAIN
program from the Windows™ START menu. The
program structure is illustrated in Figure 4-1.
a. Main Screen.
The RAMAN PROCESS
ANALYZER screen (Figure 4-2) displays process information and a histogram chart for the
specified process components. Up to eight process components can be displayed at one time.
Clicking on the OPERATOR MENUS button
displays the PASSWORD VERIFICATION
screen (Figure 4-3). Enter a valid password and
click on the ACCEPT button. Clicking on the
QUIT button returns you to the RAMAN PROCESS ANALYZER screen.
27320004
Figure 4-3. PASSWORD VERIFICATION Screen
IB-103-300
4-3
Page 44
27320069
Figure 4-4. OPERATOR MENUS Screen
When a valid password has been entered, the
OPERATOR MENUS screen (Figure 4-4) displays with the following menu options:
SETUP. Clicking on the SETUP button
1.
displays the SETUP MENUS screen
(Figure 4-5). From this screen, you can
select from the following menu items:
The process log saves the process
spectra. The analyzer will create a
new file containing the process spectrum for each scan requested.
The Logging Period box indicates
how often the analyzer saves a scan.
To save every other scan, enter 2.
(c) BACK. Clicking on the BACK but-
ton returns you to the OPERATOR
MENUS screen.
(a) ZERO CLIP. This button displays
the screen in Figure 4-6. This screen
allows you to configure the display
on the MAIN screen to either include
or exclude negative numbers. When
disabled, the MAIN screen will display negative numbers. Click on the
OK button to return to the SETUP
MENUS screen.
(b) DATA LOGGING. Clicking on this
button displays the RAMAN ANALYZER DATALOG UTILITY
screen (Figure 4-7). This screen allows you to save compositional and
spectral data. The concentration log
saves the concentration levels of the
monitored process as a .DAT file for
further analysis. One file will contain
all the concentration data.
27320021
Figure 4-5. SETUP MENUS Screen
27320022
Figure 4-6. ZERO CLIP OPTION Screen
IB-103-300
4-4
Page 45
Figure 4-7. RAMAN ANALYZER DATALOG UTILITY Screen
27320005
GRAB SCAN. Clicking the GRAB
2.
SCAN button (Figure 4-8) displays the
GRAB SCAN MENUS screen in Figure
4-9. The GRAB SCAN MENUS screen
provides the following functions:
27320070
Figure 4-8. OPERATOR MENUS Screen
(a) GRAB SCAN. Clicking on the
GRAB SCAN button displays the
GRAB SCAN screen shown in
Figure 4-10. The GRAB SCAN
screen allows you to capture and save
scans.
27320006
Figure 4-9. GRAB SCAN MENUS Screen
IB-103-300
4-5
Page 46
(b) <<<. This button returns you to the
OPERATOR MENUS screen.
Clicking on the ACQUIRE button
displays the SAVE AS screen shown
in Figure 4-11. Use the Folders box
to select the desired drive and file
folder for scan data storage. In the
File Name box, enter a name to identify the scan. Use the Save file as
type box to select the file delimiter.
When the file is properly named, click
on the OK button. When OK is selected, the analyzer begins the grab
and save process. The analyzer grabs
the number of scans entered in the
Replicates box. Clicking on the QUIT
button returns you to the GRAB
SCAN MENUS screen.
Figure 4-10. GRAB SCAN Screen
27320007
Note
The program will not allow you to Quit
while the analyzer is collecting spectral
data.
Figure 4-11. SAVE AS Screen
IB-103-300
4-6
27320008
Page 47
shown in Figure 4-14. The VIEW
CALCULATIONS screen displays the
calculations performed on the process
and diamond data.
The Process spectrum is blue in color
and the diamond spectrum is red in
color.
Figure 4-12. OPERATOR MENUS Screen
27320071
DIAGNOSTICS. Clicking on the DIAG-
3.
NOSTICS button (Figure 4-12) brings up
the DIAGNOSTIC MENUS screen shown
in (Figure 4-13). The following menu
items are displayed:
(a) VIEW CALCULATIONS. Clicking
on the VIEW CALCULATIONS
button displays the screen
27320067
Figure 4-13. DIAGNOSTIC MENUS Screen
Figure 4-14. VIEW CALCULATIONS Screen
IB-103-300
4-7
27320010
Page 48
The following items are displayed in
the VIEW CALCULATIONS screen:
Raw Data. Displays the raw Ra-
1
man spectrum and the raw diamond spectrum.
Dark Corrected. Shows the proc-
2
ess and diamond spectra after
dark current correction.
Diamond De-fluoresced. Shows
3
the process and diamond spectra
without the fluorescence effects.
X-Axis Corrected. Displays the
4
process and diamond spectra after
the x-axis calibration correction.
Photometrically Compensated.
5
Displays the process and diamond
spectra after radiometric calibration corrections.
Wavenumbers. Displays the pro-
6
cess and diamond spectra after
converting the x-axis values from
wavelength to wavenumbers.
Standardized Spectrum. Shows
7
the convolution-corrected process
spectrum. The diamond spectrum
is compared to a theoretical diamond spectrum in the Fourier
domain to compute a transfer
formula. The process spectrum is
then convolved with the transfer
formula.
Camera Comms Failures. Shows
11
how many times the analyzer’s
computer lost communication
with the CCD camera.
Click on the QUIT button (Figure
4-14) to return to the DIAGNOSTIC
MENUS screen.
(b) VIEW ANALOG SIGNALS. This
button (Figure 4-15) displays the
ANALOG INPUT MEASUREMENTS screen in Figure 4-16. This
screen displays the following items:
Laser Current (Amps). Displays
1
the laser drive current usage.
Laser Power (Watts). Displays
2
the output of the laser.
Laser Thermistor (Ohms). Shows
3
the laser diode temperature.
Instrument Temperature (°C).
4
Displays the cabinet temperature.
QUIT. Returns you to the
5
DIAGNOSTIC MENUS screen.
SNV Standard Spectrum. Shows
8
the process spectrum with a standard normal variant correction.
Diamond Ref (nm). Displays the
9
peak of the diamond spectrum.
Laser Position (nm). Shows the
10
calculated peak position of the
Raman laser.
27320068
Figure 4-15. DIAGNOSTIC MENUS Screen
IB-103-300
4-8
Page 49
Figure 4-16. ANALOG INPUT MEASUREMENTS Screen
27320011
(c) VIEW DIGITAL I/O STATE.
Clicking the VIEW DIGITAL I/O
STATE button on the DIAGNOSTIC
MENUS screen (Figure 4-15) displays
the DIGITAL I/O STATE screen
(Figure 4-17).
Figure 4-17. DIGITAL I/O STATE Screen
This screen displays the current status
of the digital I/O ports. You can turn
the I/O ports on and off by clicking on
the designated port button. Click on
the QUIT button to return to the
DIAGNOSTICS MENUS screen.
27320012
IB-103-300
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Page 50
(d) SMART DIAGNOSTICS. Clicking
on the SMART DIAGNOSTICS
button on the DIAGNOSTIC
MENUS screen displays the SMART
DIAGNOSTICS MENUS screen
(Figure 4-18). The following menu
items are displayed:
Analyzer Software Status. This
1
button displays the ANALYZER
SOFTWARE STATUS screen in
(Figure 4-19).
The ANALYZER SOFTWARE
STATUS screen displays the
software functions and the status
of each function.
Clicking on the OK button displays the SMART DIAGNOSTICS MENUS screen.
27320044
Figure 4-18. SMART DIAGNOSTICS MENU Screen
Figure 4-19. ANALYZER SOFTWARE STATUS Screen
IB-103-300
4-10
27320039
Page 51
Analyzer Alarms Status. Clicking
2
on the ANALYZER ALARMS
STATUS button (Figure 4-18)
displays the status screen shown
in Figure 4-20.
The following functions are
monitored:
Laser Power (Watt). Monitors the
power consumption during laser
operation. The upper and lower
alarm limits can be set.
Laser Current (Amp). Monitors
the laser amperage use during operation. The upper and lower
alarm limits can be set.
Laser Thermistor (Ohm). Monitors the laser temperature. The
upper and lower limits can be set.
Residual Limit. Monitors the calculated residual distance of the
spectrum. The upper alarm limit
can be set.
Mahalanobis Distance. Monitors
the calculated Mahalanobis distance of the spectrum. The upper
alarm limit can be set.
Cabinet Temperature (degrees C).
Monitors the temperature in the
cabinet. The upper alarm limit can
be set.
Alarm Limits / Alarm Status:
This screen displays the alarm
settings for each monitor function
(red is the upper limit and blue is
the lower limit). To change a setting, use an authorized password.
Figure 4-20. ANALYZER ALARMS STATUS Screen
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27320040
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27320052
Figure 4-21. PASSWORD VERIFICATION Screen
When a valid password is entered,
the ALARM LIMITS SET/
FREEZE or ALARM STATUS
ENABLED/DISABLED switch
can be used. To change a switch
position, select the switch image.
The ALARM LIMITS switch
must be in the SET position to
modify the alarm settings and in
the FREEZE position to exit the
status screen.
Clicking on the PASSWORD
AUTHORIZATION button displays the screen in Figure 4-21.
Enter a valid password and click
the ACCEPT button to enter the
password.
Clicking on the QUIT button returns you to the ANALYZER
ALARMS STATUS screen.
Analyzer alarm monitoring can be
disabled by positioning the
ALARM STATUS switch to the
DISABLED position.
Clicking on the TRENDS button
displays the TRENDS screen
(Figure 4-22), a graphical history
of the monitored functions.
Clicking BACK TO ALARMS
PANEL returns you to the ANALYZER ALARMS STATUS
screen.
Figure 4-22. TRENDS Screen
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27320053
Page 53
27320044
Figure 4-23. SMART DIAGNOSTICS MENU Screen
Analyzer Performance Measures.
3
Clicking ANALYZER PERFORMANCE MEASURES
(Figure 4-23) displays the screen
shown in Figure 4-24. Predicted
averages for the following functions are displayed:
Residual. This display is a calculated difference of the process
spectrum and the “reference”
spectrum. The calculation is performed and the resulting difference is displayed.
Mahalanobis Distance. This display is a calculated difference of
the process spectrum and the “reference” spectrum. The calculation is performed and the resulting
difference is displayed.
Residual Spectrum. The display
is the residual spectrum after the
calculation process is completed.
The display can be used to troubleshoot spectrum calculations.
The hardware performance portion displays the average Laser
Wavelength (nm) and the number
of comm failures the analyzer has
detected.
Clicking on the BACK button will
return you to the SMART DIAGNOSTICS MENUS screen.
Figure 4-24. PERFORMANCE MEASURES Screen
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27320041
Page 54
Figure 4-25. DARK CURRENT & PHOTOMETRIC CORRECTION Screen
27320054
Figure 4-26. CALIBRATION PATH & MODEL Screen
IB-103-300
4-14
27320055
Page 55
Dark Current & Photometric Cor-
4
rection. Clicking on the DARK
CURRENT & PHOTOMETRIC
CORRECTION button (Figure
4-23) displays the screen in
Figure 4-25. The upper screen
display shows the dark current
reference and process spectrums.
The lower screen display shows
the photometric response to standard material.
Clicking on the OK button returns
you to the SMART DIAGNOSTICS MENU screen.
Calibration Path & Model.
5
Clicking this menu button on the
SMART DIAGNOSTICS MENU
screen displays the CALIBRATION PATH & MODEL screen
in Figure 4-26. This screen
displays the calibration set in use
and the partial least squares (PLS)
iteration number being used in the
calculations.
Clicking the BACK button on the
CALIBRATION PATH &
MODEL screen returns you to
the SMART DIAGNOSTICS
MENU screen (Figure 4-23).
Cancel. Clicking the CANCEL
6
button of the SMART DIAGNOSTICS MENUS screen returns
you to the DIAGNOSTIC
MENUS screen (Figure 4-27).
(e) Back. Clicking the Back button in the
DIAGNOSTIC MENUS screen
(Figure 4-27) returns you to the
OPERATOR MENUS screen
(Figure 4-28).
Figure 4-27. DIAGNOSTICS MENUS Screen
27320068
27320020
Figure 4-28. OPERATOR MENUS Screen
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Page 56
Figure 4-31 GRAB DARK SCAN Screen
GRAB DARK SCAN. Clicking on the
6.
GRAB DARK SCAN button on the OPERATOR MENUS brings up the GRAB
DARK SCAN Screen (Figure 4-31).
27320023
27320045
Figure 4-29. SET SECURITY Screen
SET SECURITY. Clicking the SET SE-
4.
CURITY button on the OPERATOR
MENUS screen (Figure 4-28), displays the
SET SECURITY screen (Figure 4-29).
This screen allows you to set the screen
availability for the password levels. If the
screen box is checked, the screen is accessible using the current password level.
SET PASSWORDS. Clicking the SET
5.
PASSWORDS button on the OPERATOR
MENUS screen (Figure 4-28), displays the
SET PASSWORDS screen (Figure 4-30).
This screen allows you to set the passwords
for the specific access levels. You must
enter the old password prior to entering the
new password.
This screen allows you to grab a new dark
scan without having to exit the program and
start the MAINCFG program. The analyzer
will continuously grab and display a new
dark scan every 1 to 2 minutes. To save a
dark scan, click on the STORE button. To
return to the OPERATOR MENUS screen,
click on the QUIT button.
ABOUT. Clicking on the ABOUT button
7.
on the OPERATOR MENUS screen displays the program ABOUT screen (Figure
4-32). This screen identifies the name, date,
and version of the program.
QUIT. Clicking on the QUIT button on the
8.
OPERATOR MENUS screen returns you
to the RAMAN PROCESS ANALYZER
screen.
Figure 4-30. SET PASSWORDS Screen
27320046
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27320047
Figure 4-32. ABOUT Screen
4-16
Page 57
SECTION V. PREVENTIVE MAINTENANCE
Install all protective equipment covers
and safety ground leads after equipment
repair or service. Failure to install covers and ground leads could result in serious injury or death.
5-1. GENERAL
This section covers the routine preventive maintenance procedures for the Raman Process
5
Analyzer under normal operating conditions. In most
applications, the maintenance required for the analyzer is minimal.
5-2. CLEANING
In most applications, cleaning of the analyzer is not
required. In facilities where accumulations of dust
and/or chemical corrosives may impair equipment
life, remove loose particulates with a soft-bristle
brush. To remove soil deposits, clean the outer surfaces of the analyzer with a lint-free cleaning cloth
dampened with mild soap and warm water.
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Page 59
Install all protective equipment covers
and ground leads after troubleshooting.
Failure to install covers and ground
leads could result in serious injury or
death.
6-1. GENERAL
6
SECTION VI. TROUBLESHOOTING
descriptive explanation of each alarm, refer to Section 4-3, Main Program Startup.
a. Laser Power (Watt).
of the laser. This alarm may indicate a problem
with the laser or fiber optic cables.
b. Laser Current (Amp).
of the laser. This alarm may indicate a problem
with the laser.
Monitors the watt usage
Monitors the amp usage
This section describes how to identify and isolate
equipment failures that may occur during operation
of the Raman Process Analyzer. These troubleshooting procedures are designed for use by persons
trained to operate the Raman Process Analyzer.
Operator level corrective actions are limited to adjusting the laser amperage and replacement of the
items listed below. If equipment repair involves
more than replacement of these components or laser
current adjustment, notify your Rosemount Service
Representative.
• fuses
• fiber optic cables
• CCD camera thermocouple
• 12 VDC cooling fans
• laser
6-2. ALARM MESSAGES
An alarm acknowledgement message is displayed in
the control software whenever an alarm condition is
detected. The message is only to tell the operator an
alarm condition exists, it is the operator’s responsibility to access the ALARM STATUS screen to determine what the cause of the alarm is.
The ALARM SCREEN will indicate the alarm by
flashing the specific alarm display with red.
The following is a list of the processes monitored by
the Raman Process software. A brief description of
the alarm and possible causes for its occurrence is
provided for each alarm. For a more
c. Laser Thermistor (Ohm).
perature of the laser (displayed in ohms). The
upper alarm indicates a cooling failure within the
system. The lower limit indicates the laser is not
up to operating temperature.
d. Residual Limit.
lated spectrum. The displayed number indicates
the distance from the “reference” spectrum. The
high limit indicates a calculated spectrum outside
the set range.
e. Mahalanobis Distance.
nobis calculated spectrum. The displayed number indicates the distance from the “reference”
spectrum. The high limit indicates a calculated
spectrum outside the set range.
f. Cabinet Temperature (deg C).
operating temperature of the cabinet enclosure.
The upper alarm indicates a cooling failure and
overheating of the cabinet. The lower limit indicates the cabinet is not at operating temperature.
6-3. TROUBLESHOOTING
Figure 6-1, Figure 6-2, and Figure 6-3 provide additional troubleshooting guides for detecting the source
of equipment faults in the Raman Process Analyzer
system. The fault conditions are general. The faults
may not be determined by an alarm condition, or reported by an alarm message. If any fault should occur, the condition will be apparent while monitoring
or operating the Raman Process Analyzer.
Monitors the residual calcu-
Monitors the tem-
Monitors the Mahala-
Monitors the
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NO MAIN SCREEN IS
DISPLAYED WHEN POWER
IS TURNED ON
ALL
COMPONENTS
TURNED
ON?
YES
NO
TURN ANALYZER
COMPONENTS ON
COMPONENT
FUSES
OK?
YES
CORRECT
POWER AT
POWER
INPUT?
YES
CALL A CERTIFIED
ROSEMOUNT FIELD
SERVICE REPRESENTATIVE
NO
NO
REPLACE FUSES
CORRECT POWER
INPUT PROBLEM
Figure 6-1. Raman Troubleshooting Flowchart #1
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NO PROCESS
SPECTRUM DISPLAYED
ALARMS
PRESENT?
NO
YES
CORRECT ALARM
CONDITION
IS DIAMOND
REFERENCE
DISPLAYED?
NO
IS DIODE
LASER POWER
ON?
NO
TURN POWER TO DIODE
LASER ON
IS DIAMOND
REFERENCE
DISPLAYED?
YES
YES
YESYES
PERFORM LASER CURRENT
ADJUSTMENT PROCEDURE
REPLACE DIODE LASER
IS PROCESS
SPECTRUM
DISPLAYED?
TROUBLESHOOTING
COMPLETE
NONO
CALL A CERTIFIED
ROSEMOUNT FIELD
SERVICE REPRESENTATIVE
A
Figure 6-2. Raman Troubleshooting Flowchart #2
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A
IS CCD
CAMERA POWER
ON?
IS CCD
CAMERA FUSE
BLOWN?
NO
CALL A CERTIFIED
ROSEMOUNT FIELD
SERVICE REPRESENTATIVE
YES
IS CCD
CAMERA SHUTTER
OPERATING?
NONO
CALL ROSEMOUNT FOR
A REPLACEMENT CCD
CAMERA HEAD.
REPLACE CCD CAMERA
FUSE
YESYES
CALL A CERTIFIED
ROSEMOUNT FIELD
SERVICE REPRESENTATIVE
Figure 6-3. Raman Troubleshooting Flowchart #3
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Page 63
Install all protective equipment covers
and safety ground leads after equipment
repair or service. Failure to install covers and ground leads could result in serious injury or death.
7-1. GENERAL
7
SECTION VII. SERVICE
7-2. ANALYZER COMPONENT REPLACEMENT
Turn off electrical power at the main
disconnect box before servicing or replacing electronic assemblies or electrical components. Failure to turn off
electrical power may result in serious injury or death.
This section covers operator level service for the
Raman Process Analyzer. Operator level service is
limited to the following items:
• adjusting laser amperage
• replacing burned out fuses
• replacing damaged fiber optic cables
• replacing CCD camera thermocouple
• replacing 12 VDC cooling fans
• replacing the laser
If analyzer repair involves more than adjusting the laser amperage or replacing one or more of the listed
components, notify an authorized Rosemount Service
Representative.
The service instructions included here cover the replacement of the above items with the exception of
fiber optic cables. Refer to Section III, Installation,
for replacement of a fiber optic cable. Refer to the
replacement parts listing in Section VII for applicable
part numbers.
a. Fuse Replacement
Turn the analyzer power OFF at the main
1.
disconnect box.
Verify that the analyzer cabinet is properly
2.
grounded.
Open the analyzer cabinet door.
3.
Install only properly rated fuses in analyzers. Failure to install properly rated
fuses may result in severe equipment
damage.
Always wear a static band when working inside the analyzer cabinet. Failure
to wear a static band could result in severe equipment damage.
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7-1
Page 64
Always wear a static band when working inside the analyzer cabinet. Failure
to wear a static band could result in severe equipment damage.
Remove the screws attaching the CCD
4.
camera cooling cover to the CCD camera
bracket. See Figure 7-2.
Figure 7-1. Fuse Locations
See Figure 7-1 for fuse locations. Remove
4.
the “blown” fuse and replace with a new
fuse. Fuse specifications can be found on
page 8-1. Install only properly rated fuses.
Close and secure the cabinet door.
5.
Turn the analyzer power ON at the main
6.
disconnect box.
b. CCD Camera Thermocouple
Turn the analyzer power OFF at the main
1.
disconnect box.
Verify the cabinet is properly grounded.
2.
Open the analyzer cabinet door.
3.
Figure 7-2. CCD Camera Thermocouple Removal
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Page 65
Disconnect the thermocouple wire from the
5.
analyzer.
Remove the thermocouple retaining screw
6.
from the bottom of the CCD camera.
NOTE
Use care not to damage the thermocouple
wire when installing the thermocouple retaining screw. Damage to the thermocouple
wire could result in false thermocouple
readings.
Replace the new thermocouple in the CCD
7.
camera. Use care not to damage the thermocouple wire when installing the new
thermocouple in the CCD camera.
Reconnect the thermocouple wire to the
8.
analyzer.
Install the CCD camera cooling cover.
9.
10. Close and secure the cabinet door.
11. Turn the analyzer power ON at the main
disconnect box.
c. Cooling Fans
The following procedure is for replacing the laser
cooling fan. Refer to page 8-1 for fan replacement specifications.
Turn the analyzer power OFF at the main
1.
disconnect box.
Verify the cabinet is properly grounded.
2.
Open the analyzer cabinet door.
3.
Always wear a static band when working inside the analyzer cabinet. Failure
to wear a static band could result in severe equipment damage.
Disconnect the cooling fan power wires
4.
from the laser safety device. See Figure
7-3.
Figure 7-3. Laser Cooling Fan Removal
Remove the cooling fan from the laser heat
5.
sink by removing the four retaining screws.
Install the new cooling fan to the laser heat
6.
sink and secure in place with the four retaining screws.
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Page 66
Connect the cooling fan power to the laser
7.
safety device.
Close and secure the cabinet door.
8.
Turn the analyzer power ON at the main
9.
disconnect box.
d. Laser Replacement
Disconnect and lock out power source
before working on electrical components. Failure to lock out power source
may result in serious injury or death.
Before starting to service this equipment, read the “Safety instructions for
the wiring and installation of the laser”
and “Laser Safety Instructions” at the
front of this Instruction Bulletin. Failure to follow the safety instructions
could result in serious injury, death, or
substantial property damage.
Turn the analyzer power OFF at the main
1.
disconnect box and lock out the power
source.
Verify the cabinet is properly grounded.
2.
Open the analyzer cabinet door.
3.
Always wear a static band when working inside the analyzer cabinet. Failure
to wear a static band could result in severe equipment damage.
Disconnect the MPT, MPL, and laser cool-
4.
ing fan leads from the laser safety device.
See Figure 7-4.
Figure 7-4. Laser Removal
Remove the four retaining nuts securing the
5.
laser module assembly to the cabinet.
Disconnect the SMA termination at the la-
6.
ser fiber optic connection.
Disconnect the SMA connection at the
7.
laser.
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Page 67
Carefully remove the laser module assem-
8.
bly from the analyzer cabinet.
Remove the four retaining screws securing
9.
the laser to the module assembly.
10. Carefully remove the laser from the module
assembly.
11. Apply a thin film of thermal grease to the
mounting surface of the new laser.
12. Secure the laser to the module assembly
with the four retaining screws.
13. Place the laser module assembly on the la-
ser module mount in the analyzer cabinet.
14. Connect the laser fiber optics to the laser
and SMA termination.
15. Secure the laser module assembly to the
cabinet with four retaining nuts.
16. Immediately do the Laser Current Adjust-
ment procedure before turning equipment
power ON.
Turn the analyzer power ON at the main
4.
disconnect box.
In the Raman control software, display the
5.
View Analog Signal screen.
Adjust VR102 to the fully open position
6.
(clockwise), allowing current to be supplied
to the MPL. The screw is located on the
Laser Safety Device.
Adjust the Laser Current Adjust screw to
7.
the fully open position (clockwise).
While monitoring the Laser Current (Amps)
8.
display on the Analog Input Measurements
screen, adjust the Laser Current Limit
screw clockwise slowly until the desired
Laser Current (Amps) measurement +0.25
Amps is displayed.
While monitoring the Laser Current (Amps)
9.
display, adjust VR102 screw counterclockwise until the laser current display
changes slightly. Try to adjust VR102 to
maintain the desired laser current +0.24
Amps displayed on the Laser Current
(Amps).
e. Laser Current Adjustment
The laser current must be adjusted after a fiber
optic cable change, laser replacement, or a new
process is being analyzed.
Adjust VR102 on the laser safety device
1.
counterclockwise, closing the current flow
from the laser safety device.
Turn the Current Limit Adjust screw to the
2.
fully negative position (counterclockwise).
The screw is located on the MPL.
Turn the Output Current Adjust screw to
3.
the fully negative position (counterclockwise). The screw is located on the
MPL.
10. While monitoring the Laser Current (Amps)
display, turn the Laser Current Adjust
screw counterclockwise slowly until the desired laser current is displayed on the Laser
Current (Amps).
11. If required, allow the system to operate for
at least 15 minutes prior to adjusting the
alarm thresholds according to the new laser
power settings.
12. Turn the analyzer power OFF at the main
disconnect box.
13. Close and secure the cabinet door.
14. Turn the analyzer power ON at the main
disconnect box.
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Page 68
7-3. ANALYZER CALIBRATION
The analyzer must be calibrated after any of the following events:
• Replacement of a fiber optic cable.
• Replacement of a diode laser.
• Adjustment of laser power.
• Change to the process chemistry or
to the configuration set.
To calibrate the analyzer:
Verify the correct configuration set is loaded for
a.
the process to be monitored.
Exit the MAIN program and start the
1.
MAINCFG program.
Select the SYSTEM CONFIGURATION
2.
button from the SETUP MENUS screen.
If the probe is mounted in the SURE calibration
block, click the CONTINUE button. Otherwise,
click the QUIT button.
Using the PHOTOMETRIC CALIBRATION
e.
screen (page 3-7) enter the number of scans you
wish to average.
Click the CONTINUE button. The analyzer be-
f.
gins the calibration process.
The analyzer will take and display a dark scan.
g.
Inspect the scan for ambient light leaks.
The analyzer will then take, average, and display
h.
the photometric calculation spectrum.
Inspect the spectrum for quick drops followed by
flat spectrum. This indicates the detector is being saturated and the probe must be moved away
from the fluorescent glass.
Select ENABLE A CONFIGURATION
3.
from the SYSTEM CONFIGURATION
screen.
Type the name of the configuration file you
4.
will be using to monitor the process.
Remove the probe from the process stream.
b.
Clean all liquid and foreign material from the
probe.
Carefully insert the process probe into the SURE
c.
calibration block. Tighten the nylon nut to secure
the probe.
From the SETUP MENUS screen, select PHO-
d.
TOMETRIC CALIBRATION. The calibration
message will display.
If no signal, or a weak signal is shown on the
spectrum, the probe tip must be moved closer to
the fluorescent glass.
If the spectrum is inadequate, adjust the probe
position as needed.
Click the RESAMPLE button. The calibration
i.
process will repeat.
When an adequate spectrum is displayed, click
j.
the STORE button. This saves the photometric
calibration spectrum for use in the configuration
file.
Remove the probe from the calibration block and
k.
mount the probe in the process stream. The
analyzer is now calibrated.
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Page 69
8
SECTION VIII. REPLACEMENT PARTS
Table 8-1. Replacement Parts for the Raman Process Analyzer
FIGURE and
INDEX NO.PART NUMBERDESCRIPTIONQTY
Figure 1-11A99516H01Oil Filter2
Figure 1-11A99517H01Water Filter2
Figure 2-61M03533Laser (L) Filter Assembly1
Figure 2-61M03534Raman (R) Filter Assembly1
Figure 7-11L04525H01Fuse, 220 V4
Figure 7-11L04525H01Fuse, 115 V4
Figure 7-31L04441H01Cooling Fan, Laser, 12 VDC1
Figure 7-41L04453H01Laser Module Assembly1
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Page 71
9
SECTION IX. RETURNING EQUIPMENT TO THE FACTORY
9-1. RETURNING EQUIPMENT
If factory repair of defective equipment is required,
proceed as follows:
Secure a return authorization number from a
a.
Rosemount Analytical Sales Office or Representative before returning the equipment.
Equipment must be returned with complete identification in accordance with Rosemount instructions or it will not be accepted.
In no event will Rosemount be responsible for
equipment returned without proper authorization
and identification.
Carefully pack defective unit in a sturdy box
b.
with sufficient shock absorbing material to insure
that no additional damage will occur during
shipping.
In a cover letter, describe completely:
c.
The symptoms from which it was deter-
1.
mined that the equipment is faulty.
The environment in which the equipment
2.
has been operating (housing, weather, vibration, dust, etc.).
Site from which the equipment was re-
3.
moved.
Whether warranty or nonwarranty service is
4.
requested.
Complete shipping instructions for return of
5.
equipment.
Reference the return authorization number.
6.
Enclose a cover letter and purchase order and
d.
ship the defective equipment according to instructions provided in Rosemount Return
Authorization, prepaid, to:
Rosemount Analytical Inc.
RMR Department
1201 N. Main Street
Orrville, Ohio 44667
330/684-4436
If warranty service is requested, the defective
unit will be carefully inspected and tested at the
factory. If failure was due to conditions listed in
the standard Rosemount warranty, the defective
unit will be replaced at Rosemount’s option, and
an operating unit will be returned to the customer
in accordance with shipping instructions furnished in the cover letter.
For equipment no longer under warranty, the
equipment will be repaired at the factory and returned as directed by the purchase order and
shipping instructions.
Contact Rosemount Analytical Customer Service
at 1-800-433-6076.
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Page 73
GLOSSARY
Calibration
CCD Camera Thermocouple
Configuration Set
Dark Current Calibration
Diamond De-fluoresced
Fiber Optic Cable
Histogram
In Situ
MPL
MPT
Photometric Calibration
The process of tuning the analyzer to monitor specific process elements.
Equipment used to monitor the CCD camera head temperature.
The collection of calibration information used to monitor a process for specific substances.
The process of calibrating the analyzer to eliminate ambient light from the monitored
process spectrum.
The process of adjusting the diamond reference spectrum to remove ambient light.
Thin transparent fibers of glass or plastic enclosed in light-proof material used to transmit
light signals.
A graphical representation of a spectrum frequency.
A method of analyzing process gases without removing them from the process stream.
Laser diode driver module which provides the interface, control, and drive for the laser
module.
Laser temperature controller module which provides the interface and drive for the
thermoelectric cooler in the laser module.
The process of calibrating the analyzer using known parameters to eliminate equipment
variables from the photometric calculation.
Raman Spectroscopy
Spectrograph
Spectrum
SURE Calibration
Wavelength
The analysis of spectral composition of scattered light (process spectrum) as compared to
the original incident light (diamond reference).
The equipment used to separate the wavelengths of light and direct the desired wavelengths to the CCD camera.
The image formed from dispersed wavelengths that are focused and arranged in a specific
order.
The process of calibrating the analyzer using a photometric response standard (included
in the SURE calibration kit) to measure the photometric response of the analyzer and adjust the photometric calculation accordingly.
The distance of a line from any one point of a wave to the same point on the next corresponding waveform.
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Page 75
INDEX
The index is an alphabetized listing of parts, terms, and procedures related to the Raman Process Analyzer. Every item listed
in the index refers to a location in the manual by page number or numbers.
Dark Corrected, 4-8
Dark Current Calibration, 3-7
Dark Current Reference, 4-15
Data Logging, 4-4
Diagnostics, 4-7
Diamond De-fluoresced, 4-8
Diamond Reference, 1-3, 4-8
Diode Laser, 1-3