Teledyne M5000B - Manuals - manualsarea.com

i i Model 5000B Teledyne Analytical Instruments Copyright © 1999 Teledyne Analytical Instruments 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 computerlanguage in whole or in part, in an...

Page 3 - iii; Photometric Analyzer; Table of Contents

iii Photometric Analyzer Teledyne Analytical Instruments Table of Contents Part I: Control Unit ................................ Part I: 1-1 Part II: Analysis Unit ............................ Part II: 4-1 Appendix ......................................................... A-1

Page 4 - i v

Page 5 - OPERATING INSTRUCTIONS; Model; NEMA 4 Bulkhead Mount

Part I: i Part I: Control Unit Teledyne Analytical Instruments OPERATING INSTRUCTIONS Model 5000B Photometric Analyzer Part I: Control Unit NEMA 4 Bulkhead Mount

Page 9 - Introduction; Overview; WATER MONITORING; Background

Part I: 1-1 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit Introduction 1.1 Overview The Teledyne Analytical Instruments Model 5000B Control Unit, together with a 5000B Analysis Unit, is versatile microprocessor-basedinstrument. Part I, of this manual covers the Model 5000...

Page 11 - NOTE: Range may be higher or lower per application.; OTHER NIR ABSORBERS (that can be measured)

Part I: 1-3 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit Hydrogen Fluoride 0–10% Hydroperoxides 0–5% Kerosene 0–500 ppm Ketones 0–1000 ppm Methyl Acetate 0–1000 ppm Methyl Methacrylate 0–1000 ppm Oils 0–1% Olefins 0–500 ppm Pentane 0–300 ppm α -Picolene 0–300 ppm Phenol ...

Page 13 - Main Features of the Analyzer; use. The main features of the analyzer include:

Part I: 1-5 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit 1.3 Main Features of the Analyzer The Model 5000B Photometric Analyzer is sophisticated yet simple to use. The main features of the analyzer include: • A 2-line alphanumeric display screen, driven by microprocessor...

Page 14 - Operator Interface; Escape

1-6: Part I Teledyne Analytical Instruments 1 Introduction Model 5000B 1.4 Operator Interface All controls and displays on the standard 5000B are accessible from outside the housing. The instrument has two simple operator controls. Theoperator has constant feedback from the instrument through an alp...

Page 15 - Digital Meter Display:; The meter display is a Light Emitting Diode

Part I: 1-7 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit -Range This function selects whether analyzer is autoranging or locked on one range. -Standby Places the analyzer in a sleep mode. WARNING: The power cable must be disconnected to fully removepower from the instrum...

Page 16 - Control Section Interface Panel; Installation; Note: If you require highly accurate Auto-Cal timing, use external

1-8: Part I Teledyne Analytical Instruments 1 Introduction Model 5000B Alphanumeric Interface Screen: The backlit VFD screen is an easy- to-use interface between operator and analyzer. It displays values, options,and messages for immediate feedback to the operator. 1.5 Control Section Interface Pane...

Page 19 - Unpacking the Control/Analysis Unit

Part I: 2-1 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit Installation Installation of Model 5000B Analyzers includes: 1. Unpacking, mounting, and interconnecting the Control/Analysis Section 2. Making gas connections to the system 3. Making electrical connections to the ...

Page 20 - Figure 2-3: Interface Panel of the Model 6600 Control Section; For safe connections, ensure that no uninsulated wire extends; . Stripped wire ends must insert completely

2-2: Part I Teledyne Analytical Instruments 1 Introduction Model 5000B Figure 2-3: Interface Panel of the Model 6600 Control Section For safe connections, ensure that no uninsulated wire extends outside of the terminal blocks . Stripped wire ends must insert completely into terminal blocks. No unins...

Page 21 - Figure 2-4: Primary Input Power Connections; There are eight DC output signal connectors on

Part I: 2-3 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit Figure 2-4: Primary Input Power Connections 115VAC, Fuse Installation: The fuse holders accept 5 x 20 mm, 4.0 A, T type (slow blow) fuses. Fuses are not installed at the factory. Be sure to install the proper fuse ...

Page 22 - Concentration

2-4: Part I Teledyne Analytical Instruments 1 Introduction Model 5000B 4–20 mA dc Range ID: 8 mA = Range 1, 12 mA = Range 2, 16 mA = Range 3. Figure 2-5: Analog Output Connections Examples: The analog output signal has a voltage which depends on the sample concentration AND the currently activated a...

Page 23 - Range; Range 1

Part I: 2-5 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit 3 0.3 8.8 4 0.4 10.4 5 0.5 12.0 6 0.6 13.6 7 0.7 15.2 8 0.8 16.8 9 0.9 18.4 10 1.0 20.0 To provide an indication of the range, a second pair of analog output terminals are used. They generate a steady preset voltag...

Page 24 - Figure; Digital Remote Cal Inputs

2-6: Part I Teledyne Analytical Instruments 1 Introduction Model 5000B Normally open Moving contact Normally closedNormally openMoving contact Figure 2-6: Types of Relay Contacts The connectors are: Threshold Alarm 1: • Can be configured as high (actuates whenconcentration is above threshold), or lo...

Page 25 - Remote Calibration Protocol:

Part I: 2-7 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit 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 – terminalsputs the analyzer into the ZERO mode. E...

Page 27 - Testing the System

Part I: 2-9 Teledyne Analytical Instruments Photometric Analyzer Part I: Control Unit • 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 2-4. ...

Page 29 - Operation; cautiously; Enter

Photometric Analyzer Operation /Control Unit 3 Part I 3-1 Teledyne Analytical Instruments Operation 3.1 Introduction Although the Model 5000B is usually programmed to your application at the factory, it can be further configured at the operator level, or even, cautiously , reprogrammed. Depending on...

Page 31 - Figure 3-1: Hierarchy of System Functions and Subfunctions

Photometric Analyzer Operation /Control Unit 3 Part I 3-3 Teledyne Analytical Instruments Figure 3-1: Hierarchy of System Functions and Subfunctions System SELF-TEST Self-Test Results Self-Test in Progress Change Yes/No Change Password Verify Password Set track or hold output Set current output CAL-...

Page 32 - The System Function; Setting up an AUTO-CAL

3 Operation /Control Unit Model 5000B 3-4 Part I Teledyne Analytical Instruments the appropriate point in the procedure, in a Monospaced type style. Push-buttonnames are printed in Oblique type. 3.3 The System Function The subfuctions of the System function are described below. Specific procedures f...

Page 33 - AUTO—CAL

Photometric Analyzer Operation /Control Unit 3 Part I 3-5 Teledyne Analytical Instruments N o t e : Before setting up an AUTO-CAL, be sure you understand the Zero and Span functions as described in section 4.4, and follow theprecautions given there. Note: If you require highly accurate AUTO-CAL timi...

Page 34 - Password Protection; PWD; or

3 Operation /Control Unit Model 5000B 3-6 Part I Teledyne Analytical Instruments 3.3.2 Password Protection Before a unique password is assigned, the system assigns TAI by default. This password will be displayed automatically. The operator just presses theEnter key to be allowed total access to the ...

Page 35 - Installing or Changing the Password; Characters Available for Password Definition:

Photometric Analyzer Operation /Control Unit 3 Part I 3-7 Teledyne Analytical Instruments arrow keys to change the letters to the proper password. Press Enter to enter the password. In a few seconds, you will be given the opportunity to change this pass- word or keep it and go on. Change Password?&l...

Page 36 - If you log off the system using the LOGOUT function in the; Logging Out

3 Operation /Control Unit Model 5000B 3-8 Part I Teledyne Analytical Instruments When you have finished typing the new password, press Enter . A verifica- tion screen appears. The screen will prompt you to retype your password forverification. Enter PWD To Verify: A A A Use the arrow keys to retype ...

Page 37 - System Self-Diagnostic Test; System Self Diagnostic Test; the sampling cell at the time of the SELF-TEST.

Photometric Analyzer Operation /Control Unit 3 Part I 3-9 Teledyne Analytical Instruments 3.3.4 System Self-Diagnostic Test The Model 5000BF has a built-in self-diagnostic testing routine. Pre- programmed signals are sent through the power supply, output board,preamp board and sensor circuit. The re...

Page 38 - Checking Linearity with ALGORITHM; AUTO

3 Operation /Control Unit Model 5000B 3-10 Part I Teledyne Analytical Instruments 3.3.5 The Model Screen Move the < > arrow key to MORE and press Enter . With MODEL blinking, press Enter . The screen displays the manufacturer, model, and software version information. 3.3.6 Checking Linearity w...

Page 39 - Digital Filter Setup; The 5000BF has the option of decreasing or increasing the amount; Setting

Photometric Analyzer Operation /Control Unit 3 Part I 3-11 Teledyne Analytical Instruments The manual mode only requires entering the values for each correction point into the microprocessor via the front panel buttons. Again, the numberof points required is determined by the user. 3.3.7 Digital Fil...

Page 40 - Filter or Solenoid Setup; Press the System key to start the System function:

3 Operation /Control Unit Model 5000B 3-12 Part I Teledyne Analytical Instruments 6 9.0 7 14.0 8 25.0 9 46.0 10 90.0 At a setting of “zero”, the response time is purely set by the electronics to 4.5 seconds. The numbers above can and will change depending on applicationand they merely serve to illus...

Page 42 - 1 Analog 4 to 20 mA Output Calibration

3 Operation /Control Unit Model 5000B 3-14 Part I Teledyne Analytical Instruments This function and the TRACK/HOLD feature will prevent false alarms while performing remote or autoscheduled calibrations. These functions arenot applicable if the calibration is initiated through the front panel. To en...

Page 44 - The Zero and Span Functions; be sure to limit pressure to 40 psig or less when turning it back on.; Zero Cal; Auto Mode Zeroing; Zero

3 Operation /Control Unit Model 5000B 3-16 Part I Teledyne Analytical Instruments 3.3.13 Show Negative The analyzer defaults to not to show negative readings on the analyze mode only. This affects the analog outputs too by pressing the UP or DOWN key, theanalyzer can be set to display negative readi...

Page 45 - Manual Mode Zeroing

Photometric Analyzer Operation /Control Unit 3 Part I 3-17 Teledyne Analytical Instruments zero calibration is to be performed automatically or manually. Use the DÑarrow keys to toggle between AUTO and MAN zero settling. Stop whenAUTO appears, blinking, on the display. Select zeromode: AUTO Press En...

Page 47 - Span Cal

Photometric Analyzer Operation /Control Unit 3 Part I 3-19 Teledyne Analytical Instruments 3.4.2 Span Cal The Span function on the menu is used to span calibrate the analyzer. Span calibration can be performed in either the automatic or manual mode. Make sure the span fluid is flowing to the instrum...

Page 48 - automatically; How to access the offset function:

3 Operation /Control Unit Model 5000B 3-20 Part I Teledyne Analytical Instruments Use the DÑ keys to toggle between AUTO and MAN span settling. Stop when MAN appears, blinking, on the display. Press Enter to move to the next screen. Span Val: 2Ø.ØØ %<ENT> To begin span Use the < > arrow ...

Page 50 - The Alarms Function

3 Operation /Control Unit Model 5000B 3-22 Part I Teledyne Analytical Instruments offset to be entered.4. Do a manual run to check. Reintroduce the zero calibration fluid. Start azero on the analyser but this time enter the offset value.5. At the end of the zero function, check that the instrument r...

Page 52 - The Range Select Function

3 Operation /Control Unit Model 5000B 3-24 Part I Teledyne Analytical Instruments • Latching? Ltch: Y/N (Yes/No). • To define the setpoint, use the < > arrow keys to move the blinking over to AL1: ####. Then use the DÑ arrow keys to change thenumber. Holding down the key speeds up the incremen...

Page 53 - Auto Screen

Photometric Analyzer Operation /Control Unit 3 Part I 3-25 Teledyne Analytical Instruments Select rangemode: MANUAL If above screen displays, use the DÑ arrow keys to Select MANUAL, and press Enter. Select range to run—> Ø1 Ø2 Ø3 CAL<— Use the < > keys to select the range: 01, 02, 03, or...

Page 54 - if; Precautions

3 Operation /Control Unit Model 5000B 3-26 Part I Teledyne Analytical Instruments The concentration ranges can be redefined using the Range function Manual screen, and the application fluides can be redefined using the System function, if they are not already defined as necessary. CAUTION: Redefinin...

Page 55 - Figure 3-2: Examples of Autoranging Schemes

Photometric Analyzer Operation /Control Unit 3 Part I 3-27 Teledyne Analytical Instruments Figure 3-2 illustrates these schemes graphically. Figure 3-2: Examples of Autoranging Schemes 0 0.01 0.1 80 90 100

Page 56 - The Analyze Function; Programming; CAUTION: The programming functions of the Set Range and Curve; rp

3 Operation /Control Unit Model 5000B 3-28 Part I Teledyne Analytical Instruments 3.7 The Analyze Function Normally, all of the functions automatically switch back to the Analyze function when they have completed their assigned operations. Pressing the Escape button in many cases also switches the a...

Page 57 - ALGORITHM; Now you will be able to select the APPLICATION and ALGO-; The Set Range Screen; The Set Range screen allows reprogramming of the three analysis

Photometric Analyzer Operation /Control Unit 3 Part I 3-29 Teledyne Analytical Instruments AUTOCAL FILSOLL HOLD CAL-HOLD-TIMER MORE Select MORE and press ENTER one more time ALGORITHM APPLICATION MORE OUTPUT: 4MA Now you will be able to select the APPLICATION and ALGO- RITHM set-up functions. 3.8.1 ...

Page 58 - Fluid Name; st

3 Operation /Control Unit Model 5000B 3-30 Part I Teledyne Analytical Instruments scale setting until amplifier saturation is reached. Below amplifier saturation, theoverrange readings are accurate UNLESS the application uses linearization overthe selected range. To program the ranges, you must firs...

Page 59 - The Curve Algorithm Screen

Photometric Analyzer Operation /Control Unit 3 Part I 3-31 Teledyne Analytical Instruments to the analyzer from the computer. 3.8.2 The Curve Algorithm Screen The Curve Algorithm is a linearization method. It provides from 1 to 9 intermediate points between the ZERO and SPAN values, which can benorm...

Page 60 - Note: The span fluid used to span the analyzer must be >90% of the

3 Operation /Control Unit Model 5000B 3-32 Part I Teledyne Analytical Instruments Repeat the above procedure for each of the data points you are setting (up to nine points: 0-8). Set the points in unit increments. Do not skip numbers. Thelinearizer will automatically adjust for the number of points ...

Page 61 - Maintenance; WARNING: SEE WARNINGS ON THE TITLE PAGE OF THIS; Fuse Replacement; The fuses are located inside the main housing on the Electrical

Part I: Control Unit/Analysis Unit Maintenance 3 Part I: 4-1 Teledyne Analytical Instruments Maintenance Aside from normal cleaning and checking for leaks at the gas connections, routine maintenance is limited to replacing filter elements and fuses, andrecalibration. WARNING: SEE WARNINGS ON THE TIT...

Page 62 - Figure 4-1: Removing Fuse Block Cap and Fuse from Housing; Power

3 Maintenance Model 5000B Photometric Analyzer 4-2: Part I Teledyne Analytical Instruments Figure 4-1: Removing Fuse Block Cap and Fuse from Housing 2. Replace fuse by reversing process in step 1. 4.2 System Self Diagnostic Test NOTE: Always run self diagnostic with the intended zero fluid. 1. Press...

Page 63 - Preamp; O K; Figure 4-3: Control Unit Major Internal Components

Part I: Control Unit/Analysis Unit Maintenance 3 Part I: 4-3 Teledyne Analytical Instruments Preamp 0 O K >0 means that some of the ten gains of the amplifier have a large offset. The number is acode that tells which of the ten gtains have thelarge offset. Cell (detector) 0 O K >0 means that t...

Page 64 - See the drawings in the Drawings section or addendum in back of

3 Maintenance Model 5000B Photometric Analyzer 4-4: Part I Teledyne Analytical Instruments WARNING: HAZARDOUS VOLTAGES EXIST ON CERTAIN COMPONENTS INTERNALLY WHICH MAY PERSISTFOR A TIME EVEN AFTER THE POWER IS TURNEDOFF AND DISCONNECTED. The 5000B Control Units contain the following major components...

Page 65 - NEC or ATEX Type

Part II: i Part II: Analysis Unit Teledyne Analytical Instruments OPERATING INSTRUCTIONS Model 5000B Photometric Analyzer Part II: Analysis Unit NEC or ATEX Type 5000B - GP, Rack, Panel (Integral or Remote) 5000 - GP, Bulkhead (Z-Purged in Div II or Zone 2 areas) I, II, B, C, D (Integral) 5000B-(X-P...

Page 69 - Operations/Analysis Unit 4; Operations; During shipment, it is possible that components have been jarred

4–1 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 4.0 Operations Before shipment, TAI calibrates the analyzer for your application when feasible. Calibration data is listed in the Appendix. Prior to calibration, TAIchecks the electroni...

Page 70 - Operations/Analysis Unit; Control Functions; Analysis Section, fully explosion proof, Z or X; This function is hard wired into the

4–2 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 4.1 Control Functions 4.1.1 Analysis Section, fully explosion proof, Z or X purged Nema enclosure or Cenelec Purged (pending). The control functions for the analysis section are located...

Page 71 - Preliminary Inspection

4–3 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies The control unit digital display must handle functions for both the analysis section and the control module. 4.2 Start-p Information contained in this paragraph is based on the premise ...

Page 72 - Power On Observations; customer to ON and make the following observations:

4–4 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 4.2.2 Pre-Start-up Electrical Checkout After the preliminary procedures have been accomplished (refer to Prelimi- nary Inspection and Control Settings, above), the integrity of the syst...

Page 73 - If the test procedure was normal, the devices should have been

4–5 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 3. If the analyzer section has been equipped with the automatic zero SOL option, the zero solenoid device in the accessory samplingsystem should have energized the instant power was est...

Page 74 - Calibration; Standardization Fluids; into the cell at a flow rate of about 50 cc/minute to allow; Gas samples; can

4–6 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 4.3 Calibration Standardization Fluids Two standardization fluids are necessary to calibrate the analyzer: 1. Zero Fluid: The zero standard fluid must have a composition similar to the ...

Page 76 - The analyzer is now calibrated. It is often desirable to check; DIRECTIONS FOR USING TELEDYNE CALIBRATION OPTIONS

4–8 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies instrument is set up to analyze, then the SPAN control must beadjusted for a full scale reading, i. e., 200 ppm water in EDC. 10. Re-check the ZERO setting with zero fluid. 11. If desir...

Page 77 - A zero may be established with a

4–9 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies A zero may be established with a reproducible simulated (offset) zero absorbance fluid in the sample cell of the analyzer. Whenpossible this fluid should be stable for H2O content and s...

Page 78 - as the off-line method used to verify the process variables.

4–10 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies as the off-line method used to verify the process variables. Below is an example of an on-line calibration when measuring0-200ppm water in liquid TDI (assumes TDI is a toxic liquid ats...

Page 79 - good; ratio; This ratio is kept within the 1:2 to 2:1 values for; Zero calibration check after process on-line calibration.

4–11 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies optical filters. These optical filters are stable and are chosen to indicate themeasured component at the required instrument wavelengths. Therefore,future, faster, yet much simpler ca...

Page 80 - zero offset check

4–12 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies period). In this case, nitrogen or dry air (typically-100OF dewpoint or 2ppmwater) can be used. Manually switch in the zero offset check from the control unit to operate the zero solen...

Page 81 - ppm water in the 5020 meter or output. Check.

4–13 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies always be corrected using the calibration zero and/or span features. SUMMARY The zero and/or span calibration of 5000 series photometric Teledyne analyzers can bequickly verified manua...

Page 83 - Zero in; Span in; G O

4–15 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 5000B Analyzer Cell Nitrogen in - dry purgeoutof cell when manuallyzeroing/spanning SampleFlowmeter.2-2 GPH By-PassFlowmeter2-30 GPH Pressure ReliefValve V-621 Maximum inlet pressure &...

Page 85 - Operational Theory Cont'd; This energy is then fed through the sample, which is temperature

4–17 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 4.4 Operational Theory Cont'd The energy source for the analyzer is most commonly provided by as a high intensity quartz iodine lamp located in the source module. Quartz iodinewas chos...

Page 86 - Source Module; In some applications where we have an abundance of energy due to

4–18 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies direct meter indication, which greatly eases the task of balancing the systemduring initial system installation and periods of calibration. The DC voltage levels are fed to a logarithm...

Page 87 - Optical System

4–19 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies Figure 4-1. Optical System 4.4.2 Sample cell The sample cell, generally constructed of 316SS, is located in the path of the NIR radiation, between the source and the detector modules. ...

Page 88 - sample temperature during analysis.

4–20 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 2. The entire sample module is separately controlled to maintain the sample temperature during analysis. 3. The sample is temperature compensated for by software while inputing thetemp...

Page 89 - Power Module - Block Diagram

4–21 Operations/Analysis Unit 4 Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 15 VDC Co a rse Zero Co ntrol Se lec tor Switc h MEASREF ZERO Powe r Line Volta g e Re g ula tor Tra nsforme r 5A S1 115 VAC 60 Hz Inp ut F ro m D e te c tor M o du le Prehe a ter Te...

Page 90 - See Figure 4-3. The power to the analyzer unit, enables the switching; Detector compartment

4–22 4 Operations/Analysis Unit Teledyne Analytical Instruments A Business Unit of Teledyne Electronic Technologies 4.4.3 Power See Figure 4-3. The power to the analyzer unit, enables the switching functions, and temperature control for the detector compartment. With the microprocessor control unit,...

Page 91 - Routine Maintenance; Automatic operation and routine operational duties

Part II: Maintenance/Analysis Unit Maintenance 5 Part II: 5-1 Teledyne Analytical Instruments Maintenance 5.0 Routine Maintenance 5.1 Automatic operation and routine operational duties The system operates continuously without adjustment. Under normal condi- tions, after you program the system for au...

Page 92 - DAILY; NOTE: Be sure to wear UV filtering eye goggles.

5 Maintenance Model 5000B Photometric Analyzer 5-2: Part II Teledyne Analytical Instruments 3. Verify that the chart recorder contains a normal display. 4. Verify that the recorder has a sufficient supply of chart paper and ink. 5.3 Routine Maintenance Keep the sample lines and components, including...

Page 101 - Appendix; 000B Digital Control Module:; Operating Temperature:

A-1 Photometric Analyzer, 5000B Appendix Teledyne Analytical Instruments Appendix A-1 Specifications 5000B Digital Control Module: Ranges: Four Programmable Ranges, field selectablewithin limits (application dependent) and AutoRanging Display: 2 line by 20 alphanumeric VFD accompaniedby 5 digit LED ...

Page 102 - Typical Analytical Performance Specifications:; will vary per application; Other Specifications:; Internal calibration:; Area Classification

A-2 Appendix Models 5000B Teledyne Analytical Instruments Typical Analytical Performance Specifications: ( will vary per application ) Accuracy: ±2% of full scale or better, application dependent Noise: Less than ±1% Diurnal: Less than 1% per 20 o F (10 o C (source/detector dependent) Sample Cell: S...

Page 103 - * If ordered with purge option; General Installation Note:; Protect the instrument from

A-3 Photometric Analyzer, 5000B Appendix Teledyne Analytical Instruments Enclosure Purging: Purge air startup*:40 – 80 PSI (3 – 6 BAR), 0.5 CFM (15 L / min) Purge optical path*:15 – 30 PSI (1 – 2 BAR), 10 cc/min, purity of Nitrogen, - 110 °F (-80 °C) dewpoint * If ordered with purge option Other Fea...