Operation Manual Multi-parameter Transmitter M800

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Transcription:

Operation Manual Multi-parameter Transmitter M800 Transmitter Multi-parameter M800 52 121 825

Operation Manual Multi-parameter Transmitter M800

Transmitter M800 4

Transmitter M800 5 Content 1 Introduction 9 2 Safety instructions 10 2.1 Definition of equipment and documentation symbols and designations 10 2.2 Correct disposal of te unit 11 3 Unit overview 12 3.1 Overview 12 3.2 Display 13 3.2.1 Start Screen 13 3.2.2 Activation Menu Screen 13 3.3 Control / Navigation 14 3.3.1 Menu Structure 14 3.3.2 Navigation 15 3.3.2.1 Enter te Main Menus 15 3.3.2.2 Navigating te Menu Tree 16 3.3.2.3 Exit a Menu 16 3.3.2.4 Confirm Data and Values 16 3.3.2.5 Return to te Menu Screen 16 3.3.3 Entry of Data 16 3.3.4 Selection Menus 16 3.3.5 Save canges Dialog 16 3.3.6 Security Passwords 17 3.3.7 Display 17 4 Installation instruction 18 4.1 Unpacking and inspection of equipment 18 4.1.1 Panel cutout dimensional information 18 4.1.2 Installation procedure 19 4.1.3 Assembly 19 4.1.4 Dimension drawings 20 4.1.5 Pipe mounting 20 4.2 Connection of power supply 21 4.3 Terminal Definition 22 4.3.1 M800 2-cannel 22 4.3.2 M800 4-cannel 23 4.3.3 TB2 and TB4 Terminal Assignment for Optical Oxygen Sensor and UniCond2e 24 4.3.4 TB2 and TB4 Terminal Assignment for ph, Amp. Oxygen, Cond 4e and O3 Sensors 24 4.3.5 TB3 Terminal Assignment for Flow Sensors 25 4.4 Connection of Flow Sensor 25 4.4.1 Flow Sensor Input Wiring Kit 25 4.4.2 Kit Contents 26 4.4.3 Flow sensor wiring for Compatible Sensors 26 4.4.4 Wiring for HIGH type flow sensors 26 4.4.5 Wiring for LOW type flow sensors 29 4.4.6 Wiring for TYPE 2 flow sensors 29 5 Placing transmitter in, or out, of service 30 5.1 Placing transmitter in service 30 5.2 Placing transmitter out of service 30 6 Guided Setup 31 7 Calibration 32 7.1 Sensor Calibration 32 7.2 Calibration of UniCond2e Sensors 33 7.2.1 Conductivity Calibration of UniCond2e Sensors 33 7.2.1.1 One-Point Calibration 34 7.2.1.2 Two-Point Calibration 35 7.2.1.3 Process Calibration 36 7.2.2 Temperature Calibration of UniCond2e Sensors 37 7.2.2.1 One-Point Calibration 37 7.2.2.2 Two-Point Calibration 38 7.3 Calibration of Cond4e Sensors 40 7.3.1 One-Point Calibration 40 7.3.2 Two-Point Calibration 41 7.3.3 Process Calibration 41

Transmitter M800 6 7.4 ph Calibration 42 7.4.1 One-Point Calibration 42 7.4.2 Two-Point Calibration 42 7.4.3 Process Calibration 43 7.5 ORP Calibration of ph Sensors 44 7.6 Calibration of Amperometric Oxygen Sensors 44 7.6.1 One-Point Calibration 45 7.6.2 Process Calibration 45 7.7 Calibration of Optical Oxygen Sensors 46 7.7.1 One-Point Calibration 46 7.7.2 Two-Point Calibration 47 7.7.3 Process Calibration 48 7.8 Calibration of O3 Sensors 48 7.8.1 One-Point Calibration 48 7.8.2 Process Calibration 49 7.9 Calibration of Flow Sensors 50 7.9.1 One-Point Calibration 51 7.9.2 Two-Point Calibration 52 7.10 Sensor Verification 53 7.11 Edit Calibration Constants for Flow Sensors 53 7.12 UniCond2e Electronics Calibration 54 7.13 Flow Meter Calibration 54 7.14 Flow Meter Verification 55 7.15 Analog Output Calibration 56 7.16 Analog Input Calibration 56 7.17 Maintenance 57 8 Configuration 58 8.1 Measurement 58 8.1.1 Cannel Setup 58 8.1.2 Derived Measurements 59 8.1.2.1 % Rejection measurement 60 8.1.2.2 Calculated ph (Power Plant Applications only) 60 8.1.2.3 Calculated CO 2 (Power plant applications only) 61 8.1.3 Display Mode 61 8.1.4 Parameter related Settings 62 8.1.4.1 Conductivity Settings 62 8.1.4.2 ph Settings 63 8.1.4.3 Settings for Oxygen Measurement Based on Amperometric Sensors 64 8.1.4.4 Settings for Oxygen Measurement Based on Optical Sensors 65 8.1.4.5 Settings for Flow Measurement 66 8.2 Analog Outputs 66 8.3 Set Points 67 8.4 ISM Setup 68 8.4.1 Sensor Monitor 69 8.4.2 CIP Cycle Limit 70 8.4.3 SIP Cycle Limit 71 8.4.4 AutoClave Cycle Limit 72 8.4.5 SAN Cycle Parameters 72 8.4.6 Reset Counters for UniCond2e Sensors 73 8.4.7 Set Calibration Interval for UniCond2e Sensors 73 8.5 General Alarm 74 8.6 ISM / Sensor Alarm 74 8.7 Clean 75 8.8 Display Setup 75 8.9 Digital Inputs 76 8.10 System 76 8.11 PID Controller 77 8.12 Service 81 8.12.1 Set Analog Outputs 81 8.12.2 Read Analog Outputs 81 8.12.3 Read Analog Inputs 81 8.12.4 Set Relay 81 8.12.5 Read Relay 81 8.12.6 Read Digital Inputs 81 8.12.7 Memory 82 8.12.8 Display 82

Transmitter M800 7 8.12.9 Calibrate ToucPad 82 8.12.10 Cannel Diagnostic 82 8.13 Tecnical Service 82 8.14 User Management 83 8.15 Reset 83 8.15.1 System Reset 83 8.15.2 Reset Sensor Calibration for Optical DO Sensors 84 8.15.3 Reset Sensor Calibration for UniCond2e Sensors 84 8.15.4 Reset Total Flow 84 9 ISM 85 9.1 imonitor 85 9.2 Messages 86 9.3 ISM Diagnostics 87 9.3.1 ph/orp, Oxygen, O3 and Cond4e Sensors 87 9.3.2 UniCond2e Sensors 87 9.4 Calibration Data 88 9.4.1 Calibration Data for All ISM Sensors excluding UniCond2e 88 9.4.2 Calibration Data for UniCond2e Sensors 88 9.5 Sensor Info 89 9.6 HW / SW Version 90 9.7 Log Book 90 10 Wizards 91 10.1 Set Wizard 91 10.2 Access to Wizards 91 11 Maintenance 92 11.1 Front panel cleaning 92 12 Troublesooting 93 12.1 Warning- and Alarm Indication 93 12.1.1 Warning Indication 93 12.1.2 Alarm Indication 94 13 Accessories and Spare Parts 95 14 Specifications 96 14.1 General specifications 96 14.2 Electrical specifications 98 14.3 Mecanical specifications 98 14.4 Environmental specifications 99 15 Warranty 100 16 Buffer tables 101 16.1 Mettler-9 101 16.2 Mettler-10 101 16.3 NIST Tecnical Buffers 102 16.4 NIST standard buffers (DIN and JIS 19266: 2000 01) 102 16.5 Hac buffers 103 16.6 Ciba (94) buffers 103 16.7 Merck Titrisole, Riedel-de-Haën Fixanale 104 16.8 WTW buffers 104

Transmitter M800 8

Transmitter M800 9 1 Introduction Statement of Intended Use Te M800 multiparameter transmitter is a multi-cannel online process instrument for measuring various properties of fluids and gases. Tese include Conductivity, Dissolved Oxygen, O2 gas, Dissolved Ozone, ph / ORP and Flow. Te M800 is available in four different versions. Te version indicates te amount of measurement parameters wic can be covered and te kind of parameter. Te version are indicated troug tere part numbers on te label of te transmitter. Te M800 transmitter is compatible wit (digital) ISM and flow sensors. M800 parameter fit guide Version Water 2-c Water 4-c Process 2-c Process 4-c Part no. 58 000 802 58 000 804 52 121 813 52 121 853 ph / ORP UniCond2e Cond4e Amp. DO ppm/ppb/trace / / * / / * / / ** / / ** Amp. O2 gas ppm/ppb/trace / / * / / * / / ** / / ** Optical DO *** *** Dissolved O3 Flow * THORNTON sensors ** INGOLD sensors *** One (two) optical DO sensor(s) can be used togeter wit 2-cannel (4-cannel) transmitter M800. A colored touc screen conveys measuring data and setup information. Te menu structure allows te operator to modify all operational parameters by using te touc screen. A menu-lockout feature, wit password protection, is available to prevent te unautorized use of te meter. Te M800 Multiparameter transmitter can be configured to use up to eigt analog and / or up to eigt relay outputs for process control. Te M800 Multiparameter transmitter is equipped wit a USB communication interface. Tis interface provides up- and download capabilities of te transmitter configuration via a Personal Computer (PC). Tis description corresponds to te firmware release, version 1.0 for te transmitter M800 Water 2-cannel, M800 Process 2-cannel, M800 Water 4-cannel and M800 Process 4-cannel. Canges are taking place constantly, witout prior notification.

Transmitter M800 10 2 Safety instructions Tis manual includes safety information wit te following designations and formats. 2.1 Definition of equipment and documentation symbols and designations a a a WARNING: POTENTIAL FOR PERSONAL INJURY. CAUTION: possible instrument damage or malfunction. NOTE: Important operating information. On te transmitter or in tis manual text indicates: Caution and / or oter possible azard including risk of electric sock (refer to accompanying documents) Te following is a list of general safety instructions and warnings. Failure to adere to tese instructions can result in damage to te equipment and / or personal injury to te operator. Te M800 Transmitter sould be installed and operated only by personnel familiar wit te transmitter and wo are qualified for suc work. Te M800 Transmitter must only be operated under te specified operating conditions (see capter 14 Specifications ). Repair of te M800 Transmitter must be performed by autorized, trained personnel only. Wit te exception of routine maintenance, cleaning procedures or fuse replacement, as described in tis manual, te M800 Transmitter must not be tampered wit or altered in any manner. Mettler-Toledo accepts no responsibility for damage caused by unautorized modifications to te transmitter. Follow all warnings, cautions, and instructions indicated on and supplied wit tis product. Install equipment as specified in tis instruction manual. Follow appropriate local and national codes. Protective covers must be in place at all times during normal operation. If tis equipment is used in a manner not specified by te manufacturer, te protection provided by it against azards may be impaired. a WARNINGS: Installation of cable connections and servicing of tis product require access to sock azard voltage levels. Main power and relay contacts wired to separate power source must be disconnected before servicing. Switc or circuit breaker sall be in close proximity to te equipment and witin easy reac of te OPERATOR; it sall be marked as te disconnecting device for te equipment. Main power must employ a switc or circuit breaker as te disconnecting device for te equipment. Electrical installation must be in accordance wit te National Electrical Code and / or any oter applicable national or local codes.

Transmitter M800 11 NOTE: RELAY CONTROL ACTION te M800 transmitter relays will always de-energize on loss of power, equivalent to normal state, regardless of relay state setting for powered operation. Configure any control system using tese relays wit fail-safe logic accordingly. NOTE: PROCESS UPSETS Because process and safety conditions may depend on consistent operation of tis transmitter, provide appropriate means to maintain operation during sensor cleaning, replacement or sensor or instrument calibration. NOTE: Tis is a 4-wire-product wit an active 4 20 ma analog output. Please do not supply to terminal 3 to 10 of TB1 and terminal 1 to 8 of TB3. 2.2 Correct disposal of te unit Wen te transmitter is finally removed from service, observe all local environmental regulations for proper disposal.

Transmitter M800 12 3 Unit overview Te M800 models are available in 1/2DIN case size. Te M800 models provide an integral IP66 ousing for wall- or pipe mount. 3.1 Overview 150 mm/5.90" 1 METTLER TOLEDO 2 M800 158 mm/6.22" 5 TB1 TB2 TB3 TB4 TB5 TB6 6 6 3 4 1: Hard Polycarbonate case 2: VGA Screen 3: Power Supply Terminals 4: Relay Output Terminals 5: Analog Output / Digital Input Terminals 6: Sensor Input Terminals

Transmitter M800 13 3.2 Display 3.2.1 Start Screen After starting te M800, te following Start Screen (logout screen) is sown automatically. To return form te Menu Screen to te Start Screen press s. Te M800 will return automatically after 240 seconds from te Menu Screen or any configuration screen to te Start Screen if te user as not pressed te touc screen. 3.2.2 Activation Menu Screen Wile te M800 sows te Start Screen (logout screen) touc te display to activate te Menu Screen. To return to te Menu Screen from oter menus press H.

Transmitter M800 14 3.3 Control / Navigation 3.3.1 Menu Structure Below is te structure of te M800 menu tree: Menu Screen M800 i S Wizard c Calibration C Configuration imonitor Favorite 1 4 Calibration Sensor Guided Setup Messages Set Wizard Calibrate Electronics Measurement ISM Diagnostics Calibration Data Calibrate Meter Calibrate Analog Outputs Cannel Setup Display Mode Parameter Setting Sensor Info Calibrate Analog Inputs Analog Outputs HW/SW Version Maintenance Set Points Log Book ISM Setup General Alarm ISM/Sensor Alarm Clean Display Setup Digital Inputs System PID Controller Service Tec Service User Management Reset

Transmitter M800 15 3.3.2 Navigation 3.3.2.1 Enter te Main Menus Activate te Menu Screen and press one of icons to enter te different main menus: i S c C ISM menu Wizard menu Calibration menu Configuration menu

Transmitter M800 16 3.3.2.2 Navigating te Menu Tree To browse troug te menus, press te open arrows > and/or <. To access a menu touc te corresponding arrow c in te same line. 3.3.2.3 Exit a Menu Press p to exit te menu. Press H to return to te Menu Screen (see capter 3.3.1 Menu Screen ). 3.3.2.4 Confirm Data and Values Use te e key to confirm values. Press ESC and te values will not be taken over. 3.3.2.5 Return to te Menu Screen Press H to return to te Menu Screen (see capter 3.3.1 Menu Screen ). To return form te Menu Screen to te Start Screen press s. 3.3.3 Entry of Data Te M800 displays a keypad for modifying values. Press te e button and te transmitter will take over te value. Press te ESC button to exit te keypad witout canging data. NOTE: For some value te unit can be modified. In tis case te keypad sows a button wit a u. To select anoter unit for te entered value on te keypad press te u button. To return again press te 0 9 button. NOTE: For some entries letters and/or numbers can be used. In tat case te keypad sows a button A,a,0. Press tis button to cange between capital letters, small letters and numbers on te keypad. 3.3.4 Selection Menus Some menus require a selection of a parameter / data. In tis case te transmitter displays a pop up window. Press te according field to select te value. Te pop window will be closed and te selection will be taken over. 3.3.5 Save canges Dialog If te M800 brings up te Save canges dialog tere are te follwoing options. No will discard te entered values, Yes will save canges made and Cancel will bring you back to continue configuring.

Transmitter M800 17 3.3.6 Security Passwords Te M800 transmitter allows a security lock-out of various menus. If te security lock-out feature of te transmitter as been enabled, a security password must be entered to allow access to te menu. See capter 8.14 User Management. 3.3.7 Display NOTE: In te event of an alarm or oter error condition te M800 Transmitter will display a flasing bar grap on te display. Tis bar grap will remain until te condition tat caused it as been cleared (see capter 12.1 Warning- and Alarm Indication). NOTE: During calibrations, clean, Digital In wit Analog Output / Relay / USB in Hold state, a flasing H (Hold) will appear in te upper rigt corner of te display for te corresponding cannel. Tis symbol will remain for 20 sec., after end of calibration. Tis symbol will remain for 20 seconds until after te calibration or clean is completed. Tis symbol will also disappear wen Digital In is deactivated.

Transmitter M800 18 4 Installation instruction 4.1 Unpacking and inspection of equipment Inspect te sipping container. If it is damaged, contact te sipper immediately for instructions. Do not discard te box. If tere is no apparent damage, unpack te container. Be sure all items sown on te packing list are present. If items are missing, notify Mettler-Toledo immediately 4.1.1 Panel cutout dimensional information Below are cut-out dimensions required by te transmitter wen mounted witin a flat panel or on a flat enclosure door. Tis surface must be flat and smoot. Textured or roug surfaces are not recommended and may limit te effectiveness of te gasket seal provided. (+ 0.5 mm) 137 mm ( 0 mm) (+ 0.02") 5.39" ( 0") (+ 0.5 mm) ( 0 mm) 137 mm (+ 0.02") ( 0") 5.39" PANEL CUT-OUT Optional ardware accessories are available tat allow for panel- or pipe-mount. Refer to capter 13 Accessories and Spare Parts for ordering information.

Transmitter M800 19 4.1.2 Installation procedure General: Orient te transmitter so tat te cable grips face downward. Wiring routed troug te cable grips sall be suitable for use in wet locations. In order provide IP66 enclosure ratings, all cable glands must be in place. Eac cable gland must be filled using a cable, or suitable Cable Gland Hole Seal. For Pipe Mount: Use only manufacturer-supplied components for pipe-mounting te M800 transmitter and install per te supplied instructions. See capter 13 Accessories and Spare Parts for ordering information. 4.1.3 Assembly 1 2 3 1: 3 M20x1.5 cable glands 2: 2 M25x1.5 cable glands 3: 4 screws

Transmitter M800 20 4.1.4 Dimension drawings (+ 0.5 mm) ( 0 mm) (+ 0.02") ( 0") 137 mm 5.39" (+ 0.5 mm) ( 0 mm) (+ 0.02") ( 0") 66 mm/2.59" 40 mm/ 1.58" 45 mm/ 1.77" 170 mm/6.69" 125 mm/4.92" 150 mm/5.90" M800 METTLER TOLEDO 158 mm/6.22" 25 mm 0.98" 35 mm 1.38" 58 mm 2.28" 137 mm 5.39" 4.1.5 Pipe mounting Ø 40... Ø 60 mm Ø 1.57... Ø 2.36"

Transmitter M800 21 4.2 Connection of power supply All connections to te transmitter are made on te inside of all models. a Be sure power to all wires is turned off before proceeding wit te installation A tree-terminal connector on TB6 of all M800 models is provided for power connection. All M800 models are designed to operate from a 20 30 VDC or a 100 to 240 VAC power source. Refer to specifications for power requirements and ratings and size power wiring accordingly (16 24 AWG, wire cross-section between 0.2 mm 2 and 1.5 mm 2 ). Te terminal block for power connections is labeled TB6 on te rear panel of te transmitter. One terminal is labeled N (-) for te Neutral wire and te oter L (+) for te Line (or Load) wire. For DC power, use te polarity sown in parenteses. Te terminals are suitable for single wires and flexible leads wit a wire cross-section from 0.2 mm 2 up to 1.5 mm 2, (16 24 AWG).

Transmitter M800 22 4.3 Terminal Definition 4.3.1 M800 2-cannel Power connections: N for Neutral and L for Line, for 100 to 240 VAC or 20 30 VDC. Terminal number TB1 TB2 (ISM C1,2) TB3 TB4 TB5 TB6 1 DI1+ DI2+ Aout5+ AI1+ L 2 DI1 DI2 Aout5 AI1- N 3 Aout1+ 1-Wire_C1 Aout6+ DI4+ PE 4 Aout1 GND5V_C1 Aout6 DI4 Relay1_NC 5 Aout2+ RS485B_C1 Aout7+ DI5+ Relay1_COM 6 Aout2 RS485A_C1 Aout7 DI5 Relay2_NO 7 Aout3+ GND5V_C1 Aout8+ DI6+ Relay2_COM 8 Aout3 5V_C1 Aout8- DI6 Relay3_NO 9 Aout4+ 24V_C2 Ain_C5 Relay5_NO Relay3_COM 10 Aout4 GND24V_C2 AJ_C5 Relay5_COM Relay4_NO 11 n. a. 1-Wire_C2 5V_C5 Relay6_NO Relay4_COM 12 n. a. GND5V_C2 GND5V_C5 Relay6_COM n. a. 13 n. a. RS485B_C2 Bin_C6 Relay7_NO n. a. 14 n. a. RS485A_C2 BJ_C6 Relay7_COM n. a. 15 n. a. GND5V_C2 5V_C6 Relay8_NC n. a. 16 n. a. 5V_C2 GND5V_C6 Relay8_COM n. a. Not installed TB2 TB3 TB4 TB5 TB1 TB6 NO: normally open (contact open if un-actuated). NC: normally closed (contact closed if un-actuated). Ain: Bin: n.a. not available AO: Analog Output DI: Digital Input AJ: BJ: NOTE: Tis is a 4-wire-product wit an active 4 20 ma analog output. Please do not supply to terminal no. 3 to 10 of TB1 and 1 to 8 of TB3.

Transmitter M800 23 4.3.2 M800 4-cannel Power connections: N for Neutral and L for Line, for 100 to 240 VAC or 20 30 VDC. Terminal number TB1 TB2 (ISM C1,2) TB3 TB4 (ISM C3,4) 1 DI1+ DI2+ Aout5+ DI3+ AI1+ L 2 DI1 DI2 Aout5 DI3 AI1- N 3 Aout1+ 1-Wire_C1 Aout6+ 1-Wire_C3 DI4+ PE 4 Aout1 GND5V_C1 Aout6 GND5V_C3 DI4 Relay1_NC 5 Aout2+ RS485B_C1 Aout7+ RS485B_C3 DI5+ Relay1_COM 6 Aout2 RS485A_C1 Aout7 RS485A_C3 DI5 Relay2_NO 7 Aout3+ GND5V_C1 Aout8+ GND5V_C3 DI6+ Relay2_COM 8 Aout3 5V_C1 Aout8-5V_C3 DI6 Relay3_NO 9 Aout4+ 24V_C2 Ain_C5 24V_C4 Relay5_NO Relay3_COM 10 Aout4 GND24V_C2 AJ_C5 GND24V_C4 Relay5_COM Relay4_NO 11 n. a. 1-Wire_C2 5V_C5 1-Wire_C4 Relay6_NO Relay4_COM 12 n. a. GND5V_C2 GND5V_C5 GND5V_C4 Relay6_COM n. a. 13 n. a. RS485B_C2 Bin_C6 RS485B_C4 Relay7_NO n. a. 14 n. a. RS485A_C2 BJ_C6 RS485A_C4 Relay7_COM n. a. 15 n. a. GND5V_C2 5V_C6 GND5V_C4 Relay8_NC n. a. 16 n. a. 5V_C2 GND5V_C6 5V_C4 Relay8_COM n. a. TB5 TB6 TB2 TB3 TB4 TB5 TB1 TB6 NO: normally open (contact open if un-actuated). NC: normally closed (contact closed if un-actuated). Ain: Bin: n.a. not available AO: Analog Output DI: Digital Input AJ: BJ: NOTE: Tis is a 4-wire-product wit an active 4 20 ma analog output. Please do not supply to terminal no. 3 to 10 of TB1 and 1 to 8 of TB3.

Transmitter M800 24 4.3.3 TB2 and TB4 Terminal Assignment for Optical Oxygen Sensor and UniCond2e TB2 (ISM C1, 2) TB4 (ISM C3,4) Optical Oxygen* UniCond2e** Terminal no. Function Function Sensor wire color Sensor wire color 1 DI2+ DI6+ 2 DI2 DI6-3 1-Wire_C1 1-Wire_C3 4 GND5V_C1 GND5V_C3 5 RS485B_C1 RS485B_C3 black 6 RS485A_C1 RS485A_C3 red 7 GND5V_C1 GND5V_C3 wite 8 5V_C1 5V_C3 blue 9 24V_C2 24V_C4 brown 10 GND24V_C2 GND24V_C4 black 11 1-Wire_C2 1-Wire_C4 12 GND5V_C2 GND5V_C4 grey 13 RS485B_C2 RS485B_C4 blue black 14 RS485A_C2 RS485A_C4 wite red 15 GND5V_C2 GND5V_C4 yellow wite 16 5V_C2 5V_C4 blue * Always one O2 optical sensor can be connected to plug TB2 and TB4. ** Transparent wire not connected 4.3.4 TB2 and TB4 Terminal Assignment for ph, Amp. Oxygen, Cond 4e and O3 Sensors TB2 (ISM C1, 2) TB4 (ISM C3,4) ph, amp. Oxygen, Cond 4e and O3 Terminal no. Function Function Sensor wire color 1 DI2+ DI6+ 2 DI2 DI6 3 1-Wire_C1 1-Wire_C3 transparent (cable core) 4 GND5V_C1 GND5V_C3 red 5 RS485B_C1 RS485B_C3 6 RS485A_C1 RS485A_C3 7 GND5V_C1 GND5V_C3 8 5V_C1 5V_C3 9 24V 24V 10 GND24V GND24V 11 1-Wire_C2 1-Wire_C4 transparent (cable core) 12 GND5V_C2 GND5V_C4 red 13 RS485B_C2 RS485B_C4 14 RS485A_C2 RS485A_C4 15 GND5V_C2 GND5V_C4 16 5V_C2 5V_C4

Transmitter M800 25 4.3.5 TB3 Terminal Assignment for Flow Sensors TB3 Flow i, Flow lo, Flow Type2 Terminal no. Transmitter Function 1 Aout5+ 2 Aout5-3 Aout6+ 4 Aout6-5 Aout7+ 6 Aout7-7 Aout8+ 8 Aout8-9 Ain_C5 Flow Pulse Input 10 AJ_C5 + 10 VDC 11 5V_C5 + 5 VDC 12 GND5V_C5 Ground 13 Ain_C6 Flow Pulse Input 14 AJ_C6 + 10 VDC 15 5V_C6 + 5 VDC 16 GND5V_C6 Ground 4.4 Connection of Flow Sensor Te M800 transmitter is designed to operate wit various types of sensors. Tese sensors require different wiring configurations. Listed below are instructions for wiring te various types of sensors offered by Mettler-Toledo THORNTON for use wit tis transmitter. Please consult te factory for assistance if attempting to wire sensors not offered by Mettler-Toledo Tornton as some sensors may not be compatible. 4.4.1 Flow Sensor Input Wiring Kit Tis kit contains components tat may be needed at input terminals to condition sensor signals. Refer to te following sections or to te instruction manual for wiring details.

Transmitter M800 26 4.4.2 Kit Contents Tis kit contains te following items: 4x Wire nuts 4x 10K om resistors for use wit Burket 8020 and 8030 type sensors, and GF Signet 2500-series sensors. 4x 1K om resistors for use wit Data Industrial 200-series and Fluidyne insertion type sensors. 4x 0.33uF, 50 V capacitors for use wit Berket 8020 and 8030 type sensors, Data Industrial 200-series and 4000-series sensors, GF Signet 2500-series sensors, Sanitary Turbine-Type sensors, Fluidyne insertion type sensors and Racine Federated (Formerly Asai/America) vortex-style sensors. 4.4.3 Flow sensor wiring for Compatible Sensors Te following sections provide wiring information to properly connect various compatible flow sensors to te M800 transmitter. Wen using te Configuration menu of te transmitter to setup te flow sensor, te first prompt asks to select te TYPE of flow sensor being connected. Tere are tree coices as follows: Hig: All flow sensors described in Section 4.4.4 Low: P515 Signet flow sensors only, described in section 4.4.5 Type 2: Asai flow sensors, described in Section 4.4.6 4.4.4 Wiring for HIGH type flow sensors Te following wiring information is used wen connecting (Burkert 8020 and 8030 type) inline Hall effect 5VDC, flow sensors. Tornton models 33901 tru 33935. THORNTON 33901-33935 58 034 601-58 034 635 0.33uF Pulse output L+ L 10K TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 Burkert 8020, 8030 Hall-Effect Sensor Type: ig M800 transmitter Extension cable not provided. Use 2-conductor twisted pair wit sield, 22 AWG (Belden 8451 or equivalent), 1,000 ft (305 m) maximum lengt.

Transmitter M800 27 Te following wiring information is used wen connecting Badger (formerly Data Industrial 200-Series) forward-swept paddleweel type flow sensors. Tornton models 33142 tru 33145 and 33159 tru 33162 and 33273. THORNTON 33142-33145 58 034 201-58 034 204 0.33uF Red Black Sield Badger (formerly Data Industrial 200 Series) Flow Sensors Type: Hig 1K TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 M800 transmitter Extension cable provided wit sensor. Use 2-conductor twisted pair wit sield 20 AWG (Belden 9320 or equivalent) to extend lengt to 2000 ft (610 m) max. Te following wiring information is used wen connecting Badger (formerly Data Industrial 4000-Series) forward-swept paddleweel type flow sensors. Tornton models 33174 tru 33177 and 33171 and 33172. THORNTON 33174-33177, 33171, 33172 58 034 207-58 034 211, 58 034 226 Clear Red Black Sield Badger (formerly Data Industrial 4000 Series) Flow Sensors Type: Hig 0.33uF TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 M800 transmitter 20 ft (6.1 m) extension cable provided wit sensor. Use 3-conductor wit sield, 20 AWG (Belden 9364 or equivalent) to extend lengt to 2000 ft (610 m) maximum. Te following wiring information is used wen connecting (GF Signet 2500-Series) Hall Effect paddleweel type flow sensors. Tornton models 33282, 33285, 33287, 33298 tru 33305. THORNTON 33282, 33285, 33287, 33298-33305 58 034 227, 58 034 230, 58 034 232-58 034 240 Red Black Sield 10K 0.33uF TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 Signet 2507, 2536, 2540 Hall-Effect Sensor Type: ig M800 transmitter 25 ft (7.6 m) extension cable provided wit sensor. Use 2-conductor wit sield, 22 AWG (Belden 8451 or equivalent) to extend lengt to 1000 ft (305 m) maximum.

Transmitter M800 28 Te following wiring information is used wen connecting Sanitary Turbine type flow sensors. Tornton models 33336 tru 33377 (Hoffer) and 33441 tru 33450 (Sponsler). THORNTON 3336-33348, 33376, 33377 58 034 270-58 034 282, 58 034 303, 58 034 304 Wite Red Black Sield 0.33uF TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 Hoffer Turbine Sensors Type: Hig M800 transmitter 20 ft (6.1 m) extension cable provided wit sensor. Use 3-conductor wit sield, 20 AWG (Belden 9364 or equivalent) to extend lengt to 3000 ft (915 m) maximum. Orange Red Black Sield THORNTON 33441-33450 58 034 516-58 034 525 0.33uF TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 Sponsler Turbine Sensor Type: Hig M800 transmitter 20 ft (6.1 m) extension cable provided wit sensor. Use 3-conductor wit sield, 20 AWG (Belden 9364 or equivalent) to extend lengt to 3000 ft (915 m) maximum. Te following wiring information is used wen connecting Spirax Sarco/Emco flow (formerly Fluidyne) insertion type flow sensors. Tornton models 33358 tru 33375. (+) ( ) Sield THORNTON 33358-33375 58 034 285-58 034 302 0.33uF 1K TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 Spirax Sarco/Emco flow (formerly Fluidyne) Insertion Vortex Sensor Type: Hig M800 transmitter Extension cable not provided. Use 2-conductor twisted pair wit sield, 20 AWG (Belden 9320 or equivalent), 2000 ft (610 m) maximum lengt.

Transmitter M800 29 4.4.5 Wiring for LOW type flow sensors Te following wiring information is used wen connecting (GF Signet 515) type flow sensors. Tornton models 33189, 33193, 33195, 33196, and 33229. THORNTON 33189, 33193, 33195, 33196, 33229 58 034 215, 58 034 219, 58 034 221, 58 034 222, 58 034 224 Red Black Sield TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 Signet 515 Sensor Type: low M800 transmitter Extension cable not provided. Use 2-conductor twisted pair wit sield, 22 AWG (Belden 8451 or equivalent, 200 ft (61 m) maximum lengt. 4.4.6 Wiring for TYPE 2 flow sensors Te following wiring information is used wen connecting Racine Federated (formerly Asai/ America) vortex flow sensors. Tornton models 33308 to 33335. THORNTON 33308-33335 58 034 242-58 034 265 Racine Federated (formerly Asai/America) Vortex Sensor Type: 2 Signal (+)Power (-)Ground 0.33uF TB 3 9 Ain_C5 10 AJ_C5 11 5V_C5 12 GND5V_C5 M800 transmitter Extension cable not provided. Use 3-conductor wit sield, 20 AWG (Belden 9364 or equivalent), 1000 ft (305 m) maximum lengt.

Transmitter M800 30 5 Placing transmitter in, or out, of service 5.1 Placing transmitter in service a After connecting te transmitter to power supply circuit, it will be active as soon as te circuit is powered. 5.2 Placing transmitter out of service First disconnect te unit from te main power source, ten disconnect all remaining electrical connections. Remove te unit from te panel. Use te installation instruction in tis manual as reference for dis-assembling mounting ardware. All transmitter settings stored in memory are non volatile.

Transmitter M800 31 6 Guided Setup PATH: H \ CONFIG \ Guided Setup See te following explanation to get more details about te different settings for te guided setup. Select te desired Cannel for te guided setup and in te same line te parameter. If Auto is selected, M800 transmitter automatically recognizes te type of sensor. Te cannel can also be fixed to a certain measurement parameter (parameter = ph / ORP, UniCond2e, Cond4e, O2 i, 02 lo, O2 Trace, O2 opt, O3 and Flow i, Flow lo, Flow Type 2), depending on te type of trans mitter. For detailed information refer to capter 8.1.1 Cannel Setup Press te corresponding button to measurement M1 to configure te measurement. For detailed information about te configuration options refer to capter 8.1.1 Cannel Setup. NOTE: If te guided setup for a flow sensor as been selected, te calibration factor of te sensor from te sensor label or certificate can be entered. Press terefore te Cal Factor button. For sensor types Hig and Low slope and offset can be entered. In case of sensor Type 2 te slope followed by a table of K and F values can be entered. Assign te corresponding output signal Aout X to te measurement troug pressing Yes. For detailed information about te configuration of te analog output signal refer to capter 8.2 Analog Outputs Enter te Min Value, tat corresponds wit start point of te analog output range. Enter te Max Value, tat corresponds wit end point of te analog output signal. Additional settings can be done by navigating to te next page of te menu. Assing te corresponding Set Point X to te measurement troug pressing Yes. For detailed information about te configuration of te set point refer to capter 8.3 Set Points Select te Type for te setpoint. Te type of te setpoint can be Hig, Low, Between, Outside or Off. An Outside setpoint will cause an alarm condition wenever te measurement goes above its ig limit or below its low limit. A Between setpoint will cause an alarm condition to occur wenever te measurement is between its ig and low limits. NOTE: If te type of set point is not Off additional settings can be done. See te following description. According to te selected type of set point, value(s) according to te limit(s) can be entered. Select te desired relay tat will be activated if te defined conditions are reaced troug te parameter SP Relay. If te cosen relay is used for anoter task, te transmitter sows a message on te screen tat tere is a Relay Conflict. To escape te menu of te settings for Guided Setup press p. To return to te Menu Screen (see capter 3.1 Display ) press H. Te M800 will bring up te Save Canges dialog.

Transmitter M800 32 7 Calibration PATH: H \ Cal c Calibrate Calibration Sensor Calibrate Electronics Calibrate Meter Calibrate Analog Outputs Calibrate Analog Inputs Maintenance NOTE: During calibration, te outputs for te corresponding cannel will default to be eld at teir current values until 20 seconds after te calibration menu is exited. A flasing H appears in te upper rigt corner of te display wile outputs are eld. Refer to capter 8.2 Analog Outputs and capter 8.3 Set Points to cange te old output status. 7.1 Sensor Calibration PATH: H \ Cal \ Calibrate Sensor Select te desired cannel (Can) for calibration. NOTE: During sensor calibration, te outputs will default to be eld at teir current values until 20 seconds after te calibration menu is exited. A flasing H appears in te upper rigt corner of te display wile outputs are eld. Refer to capter 8.2 Analog Outputs and capter 8.3 Set Points to cange te old output status. See te following explanation to get more details about te calibration options and procedure.

Transmitter M800 33 7.2 Calibration of UniCond2e Sensors 7.2.1 Conductivity Calibration of UniCond2e Sensors Te M800 provides te ability to perform a one-point, two-point or process conductivity or resistivity calibration for 2e- sensors. NOTE: Wen performing calibration on a conductivity sensor, results will vary depending on te metod, calibration apparatus and / or quality of reference standards used to perform te calibration. NOTE: For measuring tasks te temperature compensation for te application as defined troug te parameter settings for conductivity will be considered and not te temperature compensation selected troug te calibration procedure (see also capter 8.1.4.1 Conductivity Settings ; PATH: H \ CONFIG \ Meas \ Parameter Setting). Enter te menu Calibrate Sensor (see capter 7.1 Sensor Calibration ; PATH: H \ Cal \ Calibrate Sensor) and coose te desired cannel for calibration. Te following menus can be called up: Unit: Coose between te units for conductivity (S/cm) and resistivity (Ω-cm). Metod: Select te desired calibration procedure. Available are 1-point, 2-point or process calibration. Options: Te desired compensation mode for te calibration process can be selected. Coices are None, Standard, Ligt 84, Std 75 C, Linear 25 C, Linear 20 C, Glycol.5, Glycol1, Cation, Alcool and Ammonia. None does not make any compensation of te measured conductivity value. Te uncompensated value will be displayed and proceeded. Standard compensation includes compensation for non-linear ig purity effects as well as conventional neutral salt impurities and conforms to ASTM standards D1125 and D5391. Ligt 84 compensation matces te ig purity water researc results of Dr. T.S. Ligt publised in 1984. Use only if your institution as standardized on tat work. Std 75 C compensation is te Standard compensation algoritm referenced to 75 C. Tis compensation may be preferred wen measuring Ultrapure Water at an elevated temperature (Resistivity of ultrapure water compensated to 75 C is 2.4818 Mom-cm.) Linear 25 C compensation adjusts te reading by a coefficient or factor expressed as %/ C (deviation from 25 C). Use only if te solution as a well-caracterized linear temperature coefficient. Te factory default setting is 2.0% / C. Linear 20 C compensation adjusts te reading by a coefficient or factor expressed as %/ C (deviation from 20 C). Use only if te solution as a well-caracterized linear temperature coefficient. Te factory default setting is 2.0% / C. Glycol.5 compensation matces te temperature caracteristics of 50% etylene glycol in water. Compensated measurements using tis solution may go above 18 Mom-cm. Glycol1 compensation matces te temperature caracteristics of 100% etylene glycol. Compensated measurements may go well above 18 Mom-cm. Cation compensation is used in power industry applications measuring te sample after a cation excanger. It takes into account te effects of temperature on te dissociation of pure water in te presence of acids. Alcool compensation provides for te temperature caracteristics of a 75% solution of isopropyl alcool in pure water. Compensated measurements using tis solution may go above 18 Mom-cm.

Transmitter M800 34 Ammonia compensation is used in power industry applications for specific conductivity measured on samples using ammonia and/or ETA (etanolamine) water treatment. It takes into account te effects of temperature on te dissociation of pure water in te presence of tese bases. NOTE: If compensation mode Linear 25 C or Linear 20 C as been cosen, te coefficient for te adjustment of te reading can be modified. In tis case an additional input field will be displayed. Te canges are valid until te calibration mode as been escaped. After te values defined in te configuration menu are valid again. 7.2.1.1 One-Point Calibration Select calibration procedure 1-Point (see capter 7.2.1 Conductivity Calibration of UniCond2e Sensors ). Wit 2e-sensors a one point calibration is always performed as a slope calibration. Press te button Cal for starting calibration. Place te electrode in te reference solution and press Next button. Te second value displayed on te screen is te value being measured by te transmitter and sensor in units selected by te user. Press te input field for Point1 to enter te value for te calibration point. Te M800 displays a keypad for modifying te value. Press te e button and te transmitter will take over te value. NOTE: To select anoter unit for te entered value on te keypad press te u button. To return again press te 0-9 button. Te screen sows te entered value for te reference solution (1st line) and te measured value of te M800 (2nd line). Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (press button SaveCal) or discarded (press button Cancel). Use te Back button to go one step back in te calibration procedure.

Transmitter M800 35 If SaveCal is cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. After pressing te Done button te M800 returns to te calibration menu for te sensor. 7.2.1.2 Two-Point Calibration Select calibration procedure 2-Point. Wit 2e-sensors a two point calibration is always performed as an offset and slope calibration. Press te button Cal for starting calibration. Place te electrode in te first reference solution and press Next button. CAUTION: Rinse sensors wit a ig-purity water solution between calibration points to prevent contamination of te reference solutions. Te second value displayed on te screen is te value being measured by te transmitter and sensor in te units selected by te user. Press te input field for Point1 to enter te calibration point. Te M800 displays a keypad for modifying te value. Press te e button and te transmitter will take over te value. NOTE: To select anoter unit for te entered value on te keypad press te u button. To return again press te 0-9 button. Te screen sows te entered value for te first reference solution (1st line) and te measured value of te M800 (2nd line). Press te Next button to go on wit te calibration. Place te electrode in te second reference solution and press Next button.

Transmitter M800 36 Te second value displayed on te screen is te value being measured by te transmitter and sensor in te units selected by te user. Press te input field for Point2 to enter te calibration point. Te M800 displays a keypad for modifying te value. Press te e button and te transmitter will take over te value. NOTE: To select anoter unit for te entered value on te keypad press te u button. To return again press te 0 9 button. Te screen sows te entered value for te second reference solution (1st line) and te measured value of te M800 (2nd line). Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (press button SaveCal) or discarded (press button Cancel). Use te Back button to go one step back in te calibration procedure. If SaveCal is cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. After pressing te Done button te M800 returns to te calibration menu for te sensor. 7.2.1.3 Process Calibration Select calibration procedure Process (see capter 7.2.1 Conductivity Calibration of UniCond2e Sensors ). Wit 2e-sensors a process calibration is always performed as a slope calibration. Press te button Cal for starting calibration. Take a sample and press te e button to store te current measuring value. To sow te ongoing calibration process, P is blinking in te Start and Menu screen if te related cannel is selected in te display. After determining te conductivity value of te sample, press te calibration icon in te Menu Screen (see capter... Enter Calibration Mode) again.

Transmitter M800 37 Press te input field for Point1 and enter te conductivity value of te sample. Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (press button SaveCal) or discarded (press button Cancel). Troug te Back button it is possible to go one step back in te calibration procedure. If SaveCal is cosen, te message Calibration Saved Successfully! is displayed. After pressing te Done button te M800 returns to te Menu Screen. 7.2.2 Temperature Calibration of UniCond2e Sensors Te M800 provides te ability to perform a one-point or two-point calibration for te temperature sensor of te UniCond2e. Enter te menu Calibrate Sensor (see capter 7.1 Sensor Calibration ; PATH: H \ Cal \ Calibrate Sensor) and coose te desired cannel for calibration. Te following menus can be called up: Unit: Metod: Coose between te units C and F. Select te desired calibration procedure. Available are 1-point and 2-point calibration. 7.2.2.1 One-Point Calibration Select calibration procedure 1-Point. Wit UniCond2e-sensors a one point temperature calibration can be performed as a slope or offset calibration. Press te rigt input field for te parameter Metod. Coose Slope or Offset calibration troug pressing te corresponding field. Press te button Cal for starting calibration.

Transmitter M800 38 Place te electrode in te reference solution and press Next button. Te second value displayed on te screen is te value being measured by te transmitter and sensor. Press te input field for Point1 to enter te value for te calibration point. Te M800 displays a keypad for modifying te value. Press te e button and te transmitter will take over te value. Te screen sows te entered value for te reference solution (1st line) and te measured value of te M800 (2nd line). Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (press button SaveCal) or discarded (press button Cancel). Use te Back button to go one step back in te calibration procedure. If SaveCal is cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. After pressing te Done button te M800 returns to te calibration menu for te sensor. 7.2.2.2 Two-Point Calibration Select calibration procedure 2-Point (see capter 7.2.2 Temperature Calibration of UniCond2e Sensors ). Wit 2e-sensors a two point calibration is always performed as an offset and slope calibration. Press te button Cal for starting calibration. Place te electrode in te first reference solution and press Next button.

Transmitter M800 39 Te second value displayed on te screen is te value being measured by te transmitter and sensor in te units selected by te user. Press te input field for Point1 to enter te calibration point. Te M800 displays a keypad for modifying te value. Press te e button and te transmitter will take over te value. Te screen sows te entered value for te first reference solution (1st line) and te measured value of te M800 (2nd line). Press te Next button to go on wit te calibration. Place te electrode in te second reference solution and press Next button. Te second value displayed on te screen is te value being measured by te transmitter and sensor in te units selected by te user. Press te input field for Point2 to enter te calibration point. Te M800 displays a keypad for modifying te value. Press te e button and te transmitter will take over te value. Te screen sows te entered value for te second reference solution (1st line) and te measured value of te M800 (2nd line). Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (press button SaveCal) or discarded (press button Cancel). Use te Back button to go one step back in te calibration procedure. If SaveCal is cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. After pressing te Done button te M800 returns to te calibration menu for te sensor.

Transmitter M800 40 7.3 Calibration of Cond4e Sensors PATH: H \ Cal \ Calibrate Sensor Te M800 provides te ability to perform a one-point, two-point or process conductivity or resistivity calibration for 4e sensors. NOTE: Wen performing calibration on a conductivity sensor, results will vary depending on te metod, calibration apparatus and / or quality of reference standards used to perform te calibration. NOTE: For measuring tasks te temperature compensation for te application as defined troug te parameter settings for conductivity will be considered and not te temperature compensation selected troug te calibration procedure (see also capter 8.1.4.1 Conductivity Settings ). Te following menus can be called up: Unit: Metod: Options: Between te units for conductivity and resistivity can be cosen. Select te desired calibration procedure, 1-point, 2-point or process calibration. Select te desired temperature compensation mode for te calibration process. NOTE: If compensation mode Linear 25 C or Linear 20 C as been cosen, te coefficient for te adjustment of te reading can be modified. Te canges are valid until te calibration mode as been exited. After te values defined in te configuration menu are valid again. 7.3.1 One-Point Calibration Wit 4e-sensors a one point calibration is always performed as a slope calibration. Press te button Cal for starting calibration. Place te electrode in te reference solution and press Next button. Enter te value for te calibration point (Point1). Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor.

Transmitter M800 41 7.3.2 Two-Point Calibration Wit 4e-sensors a two point calibration is always performed as an offset and slope calibration. Press te button Cal for starting calibration. Place te electrode in te first reference solution and press Next button. CAUTION: Rinse sensors wit a ig-purity water solution between calibration points to prevent contamination of te reference solutions. Enter te value for te first calibration point (Point1). Press te Next button to go on wit te calibration. Place te electrode in te second reference solution and press Next button. Enter te value for te second calibration point (Point2). Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. 7.3.3 Process Calibration Wit 4e-sensors a process calibration is always performed as a slope calibration. Press te button Cal for starting calibration. Take a sample and press te e button to store te current measuring value. To sow te ongoing calibration process, P is blinking in te Start and Menu screen if te related cannel is selected in te display. After determining te conductivity value of te sample, press te calibration icon in te Menu Screen again. Enter te conductivity value of te sample. Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed.

Transmitter M800 42 7.4 ph Calibration PATH: H \ Cal \ Calibrate Sensor For ph sensors, te M800 transmitter features one-point, two-point or process calibration wit 8 preset buffer sets or manual buffer entry. Buffer values refer to 25 C. To calibrate te instrument wit automatic buffer recognition, you need a standard ph buffer solution tat matces one of tese values. Please select te correct buffer table before using automatic calibration (see capter 16 Buffer tables ). Te stability of te sensor signal during calibration can be cecked by te user or automatically by te transmitter (see capter 8.1.4.2 ph Settings ). Te following menus can be called up: Unit: Metod: Options: Select ph. Select te desired calibration procedure, 1-point, 2-point or process calibration. Te buffer used for te calibration and te required stability of te sensor signal during te calibration can be selected (see also capter. 8.1.4.2 ph Settings ). Te canges are valid until te calibration mode as been escaped. After te values defined in te configuration menu are valid again. 7.4.1 One-Point Calibration Wit ph sensors a one point calibration is always performed as an offset calibration. Press te button Cal for starting calibration. Place te electrode in te buffer solution and press te Next button. Te display sows te buffer te transmitter as recognized (Point 1) and te measured value. Te M800 cecks te stability of te measuring signal and proceeds as soon as te signal is sufficiently stable. NOTE: If option Stability is set to Manual press Next after te measuring signal is stable enoug to go on wit te calibration. Te transmitter sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will get te message Please re-install sensor. 7.4.2 Two-Point Calibration Wit ph sensors a two point calibration is always performed as calibration of slope and offset. Press te Cal button to start calibration. Place te electrode in buffer solution 1 and press Next button. Te display sows te buffer te transmitter as recognized (Point 1) and te measured value.

Transmitter M800 43 Te M800 cecks te stability of te measuring signal and proceeds as soon as te signal is sufficiently stable. NOTE: If option Stability is set to Manual press Next after te measuring signal is stable enoug to go on wit te calibration. Te transmitter prompts you to place te electrode in te second buffer solution. Press Next button to proceed wit te calibration. Te display sows te buffer te transmitter as recognized (Point 2) and te measured value. Te M800 cecks te stability of te measuring signal and proceeds as soon as te signal is sufficiently stable. NOTE: If option Stability is set to Manual press Next after te measuring signal is stable enoug to go on wit te calibration. Te transmitter sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. 7.4.3 Process Calibration Wit ph sensors a process calibration is always performed as an offset calibration. Press te Cal button to start calibration. Take a sample and press te e button to store te current measuring value. To sow te ongoing calibration process, P is blinking in te Start and Menu Screen if te related cannel is selected in te display. After determining te ph value of te sample, press te calibration icon in te Menu Screen again. Enter te ph value of te sample. Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (press button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed.

Transmitter M800 44 7.5 ORP Calibration of ph Sensors PATH: H \ Cal \ Calibrate Sensor For ph sensors wit solution ground based on ISM tecnology te M800 transmitter gives te option to make in addition to te ph calibration an ORP calibration. NOTE: In case of coosing ORP calibration te parameters defined for ph (see capter 8.1.4.2 ph Settings ) will not be considered. For ph sensors, te M800 transmitter features one-point calibration for ORP. Te following menus can be called up: Unit: Select ORP troug pressing te corresponding field. Metod: 1-Point calibration is displayed. Press te button Cal for starting calibration. Enter te value for calibration point 1 (Point1). Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. 7.6 Calibration of Amperometric Oxygen Sensors PATH: H \ Cal \ Calibrate Sensor Te M800 provides te ability to perform a one-point or process calibration for amperometric oxygen sensors. NOTE: Before air calibration, for igest accuracy, enter te barometric pressure and relative umidity, as described in capter 8.1.4.3 Settings for Oxygen Measurement Based on Amperometric Sensors. Te following menus can be called up: Unit: Metod: Options: Between several units for DO and O2gas can be cosen. Select te desired calibration procedure, 1-point or process calibration. In case te metod 1-point as been cosen te calibration pressure, relative umidiy and - for slope calibration - te stability mode for te sensor signal during te calibration can be selected. For te metod Process te values for te process pressure, calibration pressure and te parameter ProcCalPress can be modified. See also capter 8.1.4.3 Settings for Oxygen Measurement Based on Amperometric Sensors. Te canges are valid until te calibration mode as been escaped. After te values defined in te configuration menu are valid again.

Transmitter M800 45 7.6.1 One-Point Calibration A one-point calibration of oxygen sensors is always eiter a one point slope (i.e. wit air) or a zero (offset) calibration. A one point slope calibration is done in air and a one point offset calibration is done at 0 ppb oxygen. A one-point zero dissolved oxygen calibration is available but not normally recommended since zero oxygen is very ard to acieve. A zero-point calibration is only recommended if ig accuracy at low oxygen level (below 5% air) is needed. Coose Slope or Offset calibration troug pressing te corresponding field. Press te button Cal for starting calibration. NOTE: If te polarization voltage for te measuring mode and calibration mode is different, te transmitter will wait 120 seconds before starting te calibration. In tis case te transmitter will also go after te calibration for 120 seconds to te HOLD Mode, before returning to te measuring mode again. Place te sensor in air or te calibration gas and press Next button Enter te value for te calibration point (Point1). Te M800 cecks te stability of te measuring signal and proceeds as soon as te signal is sufficiently stable. NOTE: If option Stability is set to Manual press Next after te measuring signal is stable enoug to go on wit te calibration. NOTE: For an offset calibration te Auto mode is not available. If Auto mode as been cosen and afterwards slope calibration as been canged to offset calibration, te transmitter will perform te calibration in Manual mode. Te transmitter sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. 7.6.2 Process Calibration A process calibration of oxygen sensors is always eiter a slope or an offset calibration. Coose Slope or Offset calibration troug pressing te corresponding field. Press te Cal button to start calibration. Take a sample and press te e button to store te current measuring value. To sow te ongoing calibration process, P is blinking in te Start and Menu screen if te related cannel is selected in te display. After determining te oxygen value of te sample, press te calibration icon in te Menu Screen again.

Transmitter M800 46 Enter te oxygen value of te sample. Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. 7.7 Calibration of Optical Oxygen Sensors PATH: H \ Cal \ Calibrate Sensor Oxygen calibration for optical sensors can be performed as a two-point, process or, depending on te sensor model connected to te transmitter, also as a one-point calibration. NOTE: Before air calibration, for igest accuracy, enter te barometric pressure and relative umidity, as described in capter 8.1.4.4 Settings for Oxygen Measurement Based on Optical Sensors. Te following menus can be called up: Unit: Metod: Options: Between several units can be cosen. Te units are displayed during te calibration. Select te desired calibration procedure, 1-point, 2-point or process calibration. In case te metod 1-point as been cosen te calibration pressure, relative umidity and te stability mode for te sensor signal during te calibration can be selected. For te metod Process te values for te process pressure, calibration pressure, te parameter ProcCalPress and te mode of te process calibration can be modified. See also capter 8.1.4.4 Settings for Oxygen Measurement Based on Optical Sensors. Te canges are valid until te calibration mode as been escaped. After te values defined in te configuration menu are valid again. 7.7.1 One-Point Calibration Typically a one point calibration is done in air. Neverteless oter calibration gases and solutions are possible. Te calibration of an optical sensor is always a calibration of te pase of te fluorescence signal towards te internal reference. During a one point calibration te pase in tis point is measured and extrapolated over te measuring range. Press te button Cal for starting calibration. Place te sensor in air or te calibration gas and press Next button Enter te value for te calibration point (Point1). Te M800 cecks te stability of te measuring signal and proceeds as soon as te signal is sufficiently stable. NOTE: If option Stability is set to Manual press Next after te measuring signal is stable enoug to go on wit te calibration.

Transmitter M800 47 Te transmitter sows te value for te pase of te sensor at 100% air (P100) and at 0% air (P0) as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. 7.7.2 Two-Point Calibration Te calibration of an optical sensor is always a calibration of te pase of te fluorescence signal towards te internal reference. A two-point calibration is a combination of first a calibration in air (100%) were a new pase P100 is measured and ten a calibration in nitrogen (0%) were a new pase P0 is measured. Tis calibration routine gives te most accurate calibration curve over te wole measuring range. Press te Cal button to start calibration. Place te sensor in air or te calibration gas and press Next button Enter te value for te first calibration point (Point1). Te M800 cecks te stability of te measuring signal and proceeds as soon as te signal is sufficiently stable. NOTE: If option Stability is set to Manual press Next after te measuring signal is stable enoug to go on wit te calibration. Te transmitter prompts you to cange te gas. Press Next button to proceed wit te calibration. Te M800 cecks te stability of te measuring signal and proceeds as soon as te signal is sufficiently stable. NOTE: If option Stability is set to Manual press Next after te measuring signal is stable enoug to go on wit te calibration. Te transmitter sows te value for te pase of te sensor at 100% air (P100) and at 0% air (P0) as te result of te calibration. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor.

Transmitter M800 48 7.7.3 Process Calibration Press te Cal button to start calibration. Take a sample and press te e button to store te current measuring value. To sow te ongoing calibration process, P is blinking in te start and Menu Screen if te related cannel is selected in te display. After determining te oxygen value of te sample, press te calibration icon in te Menu Screen. Enter oxygen value of te sample. Press te Next button to start te calculation of te calibration results. Te display sows now te values for te pase of te sensor at 100% air (P100) and at 0% (P0) air. Te calibration values are stored in te calibration istory and taken over (button Adjust), stored in te cal istory and not taken over (button Calibrate) or discarded (button Cancel). NOTE: If for process calibration Scaling as been cosen (see capter 8.1.4.4 Settings for Oxygen Measurement Based on Optical Sensors ) te calibration values are not stored in te calibration istory. If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. 7.8 Calibration of O3 Sensors Te M800 provides te ability to perform a 1-Point or process calibration for O3 sensors. Dissolved Ozone must be performed quickly because O3 decays rapidly into oxygen, especially at warm temperatures. Enter te menu Calibrate Sensor (see capter 7.1 Sensor Calibration ; PATH: H\Cal\Calibrate Sensor) and coose te desired cannel for calibration. Te following menus can be called up: Unit: Metod: Several units for dissolved O3 can be cosen. Select te desired calibration procedure, 1-Point or process calibration. 7.8.1 One-Point Calibration Select te 1-Point calibration metod. A 1-Point calibration of O3 sensors is always a zero (offset) calibration Press te button Cal for starting calibration.

Transmitter M800 49 Place te sensor in te calibration gas, suc as air, and press te Next button. Te second value displayed on te screen is te value being measured by te transmitter and sensor in te units selected by te user. Press te input field for Point1 to enter te value for te calibration point. Te M800 displays a keypad for modifying te value. Press te e button to accept value. Te screen sows te entered value for te reference solution (1st line) and te measured value of te M800 (2nd line). Wen te measuring signal is stable, press Next to continue wit te calibration Te display sows te value for te slope and te offset as result of te calibration. Press Adjust to perform te calibration and store te calibration values. Press Calibrate to calculate te calibration factors and view te results witout saving tem. Press Cancel to terminate te calibration. Use te Back button to go one step back in te calibration procedure If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. In eiter case you will see te message Please re-install sensor. After pressing te Done button te M800 returns to te calibration menu. 7.8.2 Process Calibration Select te Process calibration metod. A Process calibration of O3 sensors can be performed as a slope or offset calibration. Select te desired calibration Metod. Press Cal to start te calibration.

Transmitter M800 50 Take a sample and press te e button to store te current measuring value. P will blink In te measurement screen indicating a Process calibration is active. After determining te O3 value of te sample, press te calibration icon to complete te Process calibration. Press te input field for Point1 and enter te O3 value of te sample. Press te e button to accept te value. Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as te result of te calibration. Press Adjust to perform te calibration and store te calibration values. Press Calibrate to calculate te calibration factors and view te results witout saving tem. Press Cancel to terminate te calibration. Use te Back button to go one step back in te calibration procedure. If Adjust or Calibrate are cosen, te message Calibration Saved Successfully! is displayed. After pressing te Done button te M800 returns to te Menu Screen 7.9 Calibration of Flow Sensors Te M800 transmitter provides te ability to perform a 1-Point or 2-Point Sensor calibration for flow, Edit of saved calibration constants, and Verify of te flow signal. Te most common metod of calibration for flow sensors is to enter te calibration constants appropriate for te sensor using te Edit function. Some users may coose to perform an in-line calibration using a 1-point or 2-point Sensor flow calibration. Tis requires an external reference system. Wen performing an in-line calibration on a flow sensor, results will vary depending on te metods and calibration apparatus used to perform te calibration. Enter te menu Calibrate Sensor (see capter 7.1 Sensor Calibration ; PATH: H\Cal\Calibrate Sensor) and coose te desired cannel for calibration. NOTE: Te cannel for Flow Type 2 can not be selected. Te M800 transmitter allows during te Guided Setup (see capter 6 Guided Setup ) to enter a table of K and F factors Select te cannel (four cannel models only) and te desired calibration option. Coices are GPM, liters/minute meters3/our, ft/sec, or meters/sec (for a 1-Point or 2-Point flow calibration), Edit and Verify. Press [ENTER].

Transmitter M800 51 Te following menus can be called up: Unit: Metod: Several units for Flow can be cosen. Select te desired calibration procedure, 1-point or 2-point calibration. 7.9.1 One-Point Calibration Select calibration metod 1-Point. A 1-Point calibration of a Flow sensor is always a slope calibration. Press Cal to start te calibration. Set te desired flow rate and press Next. Te second value displayed on te screen is te value being measured by te transmitter and sensor in te units selected by te user. Press te input field for Point1 to enter te value for te calibration point. Te M800 displays a keypad for modifying te value. Press te e button to accept te value. Te screen sows te entered value for te reference system (1st line) and te measured value of te M800 (2nd line). Press te Next button to start te calculation of te calibration results. Te display sows te value for te slope and te offset as result of te calibration. Selecting Cancel will discard te entered values and te M800 will return to te calibration menu. Use te Back button to go one step back in te calibration procedure. Press SaveCal to save te calibration factors. If SaveCal is cosen, Calibration Saved Successfully and Please re-install sensor is displayed. After pressing te Done button te M800 returns to te calibration menu.

Transmitter M800 52 7.9.2 Two-Point Calibration Select calibration metod 2-Point. A 2-point calibration of a Flow sensor calculates a new slope and offset. Press Cal to start te calibration Set te desired flow rate for te first point and press Next. Te second value displayed on te screen is te value being measured by te transmitter and sensor in units selected by te user. Press te input field for Point1 to enter te value for te calibration point. Te M800 displays a keypad for modifying te value. Press te e button to accept te value. Te screen sows te entered value for te reference system (1st line) and te measured value of te M800 (2nd line). Press Next to continue te calibration. Set te desired flow rate for te second point and press Next. Te second value displayed on te screen is te value being measured by te transmitter and sensor in units selected by te user. Press te input field for Point2 to enter te value for te calibration point. Te M800 displays a keypad for modifying te value. Press te e button to accept te value. Te screen sows te entered value for te reference systme (1st line) and te measured value of te M800 (2nd line). Press te Next button to start te calculation of te calibration results.

Transmitter M800 53 Te display sows te value for te slope and te offset as result of te calibration. Selecting Cancel will discard te entered values and te M800 will return to te calibration menu. Use te Back button to go one step back in te calibration procedure. Press SaveCal to save te calibration factors. If SaveCal is cosen, Calibration Saved Successfully and Please re-install sensor is displayed. After pressing te Done button te M800 returns to te calibration menu. 7.10 Sensor Verification Enter te menu Calibrate Sensor (see capter 7.1 Sensor Calibration ; PATH: H \ Cal \ Calibrate Sensor) and coose te desired cannel for verification Press te Verify button to start verification. Te measured signal of te primary and te secondary measurement in basic (mostly electrical) units are sown. Te meter calibration factors are used wen calculating tese values. Press te e button and te transmitter returns to te calibration menu. 7.11 Edit Calibration Constants for Flow Sensors Tis function is te most commonly used calibration metod for flow sensors Enter te menu Calibrate Sensor (see capter 7.1 Sensor Calibration ; PATH: H \ Cal \ Calibrate Sensor) and coose te desired cannel. Press te Edit button. Press te input field for Slope to modify te slope value. Te M800 displays a keypad for modifying te value. Press te e button and to accept te value. Press te input field for Offset to modify te offset value. Te M800 displays a keypad for modifying te value. Press te e button to accept te value. Selecting Cancel will discard te entered values and te M800 will return to te calibration menu. Press Save to save te calibration factors.

Transmitter M800 54 If Save is cosen Calibration Saved Successfully and Please re-install sensor is displayed. After pressing te Done button te M800 returns to te calibration menu. Exit Menu Calibrate Sensor. Press p. To return to te Menu Screen press H. 7.12 UniCond2e Electronics Calibration Te M800 provides te ability to calibrate or verify te electronic circuits of Unicond2e conductivity sensors. Unicond2e sensors ave 3 resistance range circuits tat require individual calibration. Tese measuring circuits are calibrated using te Tornton ISM Conductivity Sensor Calibration Module part number 58 082 305 and supplied Y-connector. Before calibration, remove te sensor from te process, rinse wit deionized water and allow to completely dry. Power te transmitter and sensor at least 10 minutes prior to calibration to assure stable operating temperature of te circuitry. Press te Cal button. Enter menu Calibrate Electronics. Press button Can_x and select te desired cannel for calibration. Coose Verify or Cal. Reference Tornton ISM Conductivity Sensor Calibration Module (part number 58 082 305) for detailed calibration and verification instructions. 7.13 Flow Meter Calibration Altoug it is not normally necessary to perform meter re-calibration unless extreme conditions cause an out of spec operation sown by Calibration Verification, periodic verification/re-calibration may be necessary to meet Q.A. requirements. Te frequency calibration requires a 2-point calibration. It is recommended tat point one be at te low end of te frequency range and point two at te ig end. Press te Cal button. Enter menu Calibrate Meter. Press button Can_x and select te desired cannel for calibration.

Transmitter M800 55 Press Cal to start te calibration process. Connect a frequency generator to te xin and xgnd terminals and press Next. Adjust te frequency generator to te first calibration point and press Next. Press te input field for Point1 and enter te value for te calibration point. Te M800 displays a keypad for modifying te value. Press e to accept te value. NOTE: To select anoter unit for te entered value on te keypad press te U button, to return to te keypad press 0 9. Press Next Adjust te frequency generator to te second calibration point and press Next. Press te input field for Point2 and enter te value for te second calibration point. Te M800 displays a keypad for modifying te value. Press e to accept te value. Te display sows te slope and offset values as te result of te calibration. SaveCal: save new calibration values and store in te calibration istory Cancel: cancel te calibration procedure and return to Calibrate Sensor Menu. Back: go one step back in te calibration procedure. Press Done to return to Calibrate menu. 7.14 Flow Meter Verification Enter Calibration Mode as described in capter 7 Enter Calibration Mode Enter menu Calibrate Meter. Press button Can_x and select te desired cannel for calibration. Press Verify to start te verification process. Connect a frequency generator to xin and xgnd and press Next. Te measured frequency is displayed. Press e to return to te calibration menu.

Transmitter M800 56 7.15 Analog Output Calibration PATH: H \ CAL \ Calibrate Analog Outputs Eac analog output can be calibrated at 4 and 20 ma. Select te desired output signal for calibration by pressing te #1 button for output signal 1, #2 for output signal 2, etc. Connect an accurate milliamp meter to te analog output terminals and ten adjust te five digit number in te display until te milliamp meter reads 4.00 ma and repeat for 20.00 ma. As te five digit number is increased te output current increases and as te number is decreased te output current decreases. Tus coarse canges in te output current can be made by canging te tousands or undreds digits and fine canges can be made by canging te tens or ones digits. After adjusting bot values press Next button to start te calculation of te calibration results. Te display sows te calibration slope and zero point as te result of te output signal calibration. Selecting Cancel will discard te entered values. Pressing SaveCal will making te entered values te current ones. If SaveCal is cosen, Calibration Saved Successfully is displayed. 7.16 Analog Input Calibration PATH: H \ CAL \ Calibrate Analog Outputs Eac analog input can be calibrated at 4 and 20 ma. Select te input signal for calibration by pressing te #1 button. Connect an 4 ma signal to te analog input terminals. Press next button. Enter te rigt value for te input signal (Point1). Press te Next button go on wit te calibration. Connect an 20 ma signal to te analog input terminals. Press next button. Enter te rigt value for te input signal (Point2) Press te Next button go on wit te calibration. Te display sows te calibration slope and zero point as te result of te input signal calibration. Selecting Cancel will discard te entered values. Pressing SaveCal will making te entered values te current ones. If SaveCal is cosen, Calibration Saved Successfully is displayed.

Transmitter M800 57 7.17 Maintenance PATH: H \ CAL \ Calibrate Analog Outputs Te different cannels of te transmitter M800 can be switced manually into Hold state. Furtermore a cleaning cycle can be started / stopped manually. Select te cannel, wic sould be set to Hold manually. Press Start button for Manual Hold to activate te Hold state for te selected cannel. To deactivate te Hold state again, press te Stop button, wic is now displayed instead of te Start button. Press te Start button for Manual Clean to switc te cleaning relay to te state for starting a cleaning cycle. To switc back te relay press te Stop button, wic is now displayed instead of te Start button.

Transmitter M800 58 8 Configuration C Configuration Guided Setup Measurement Clean Cannel Setup Display Setup Display Mode Digital Inputs Parameter Setting System Analog Outputs PID Controller Set Points Service ISM Setup Tec Service General Alarm User Management ISM/Sensor Alarm Reset 8.1 Measurement PATH: H \ CONFIG \ Meas 8.1.1 Cannel Setup PATH: H \ CONFIG \ Meas \ Cannel Setup Select te Cannel for te setup troug pressing te button #1 for cannel 1, #2 for cannel 2 etc.. Press te rigt input field in te line of te setting for Cannel. A parameter for te corresponding cannel is cosen troug pressing te according field. If Auto is selected, M800 transmitter automatically recognizes te type of sensor. Te cannel can also be fixed to a certain measurement parameter (parameter = ph / ORP, UniCond2e, Cond4e, O2 i, 02 lo, O2 Trace, O2 opt, O3 and Flow i, Flow low, Flow Type2), depending on te type of trans mitter.

Transmitter M800 59 Measurement parameter Type ph / ORP = ph and ORP Water, Process UniCond2e = 2 electrode conductivity Water, Process Cond4e = 4 electrode conductivity Water, Process O2 i = Dissolved oxygen or oxygen in gas (ppm) Process O2 lo = Dissolved oxygen or oxygen in gas (ppb) Process O2 Trace = Dissolved oxygen or oxygen in gas Process O2 Opt = Dissolved oxygen optical Process O2 lo Tornton = Dissolved oxygen Water O3 = Dissolved O3 Water Flow i, low, Type2 = Flow Water Enter te name wit a maximum lengt of 6 caracters for te cannel troug pressing te input field in te line Descriptor. Te name of te cannel will always be displayed, if te cannel as to be selected. Te name will also be displayed on te in te Start Screen and Menu Screen if te Display Mode (see capter 8.1.3 Display Mode ) as been set to 1-Cannel or 2-Cannel. Coose one of te measurements M1 to M6 (e.g. for measuring value M1 te left button, for measuring M2 te rigt button in te corresponding line). Select in te input field for Measurement te desired parameter to sow. NOTE: Beside te parameters ph, O2, T, etc. also te ISM values DLI, TTM and ACT can be linked to te measurements. Coose Range factor of te measuring value. Not all parameters allow a modification of te range. Te menu Resolution allows te setting of te resolution for te measurement. Te accuracy of te measurement is not effected by tis setting. Possible setting are 1, 0.1, 0.01, 0.001. Selected te menu Filter. Te averaging metod (noise filter) for te measurement can be selected. Te options are None (default), Low, Medium, Hig and Special. None = no averaging or filtering Low = equivalent to a 3 point moving average Medium = equivalent to a 6 point moving average Hig = equivalent to a 10 point moving average Special = averaging depending on signal cange (normally Hig averaging but Low averaging for large canges in input signal) 8.1.2 Derived Measurements Tere are tree derived measurements available for configuration wit two conductivity sensors: %Rej (% Rejection), ph Cal (Calculated ph) and CO 2 Cal (Calculated CO 2 ). To set up any of te derived measurements, first set up te two primary conductivity measurements, wic will be used to calculate te derived measurement. Define te primary measurements as if tey were stand-alone readings. Ten cose te corresponding unit for te derived measurement for te first cannel. Te transmitter M800 will displays an additional menu Oter Cannel to select te second cannel.

Transmitter M800 60 8.1.2.1 % Rejection measurement For reverse osmosis (RO) applications, percent rejection is measured wit conductivity to determine te ratio of impurities removed from product or permeate water to te total impurities in te incoming feed water. Te formula for obtaining Percent Rejection is: [1 (Product/Feed)] X 100 = % Rejection Were Product and Feed are te conductivity values measured by te respective sensors. Figure a sows a diagram of an RO installation wit sensors installed for Percent Rejection. Conductivity Sensor B Reverse Osmosis Membrane Conductivity Sensor A Feed Product Reject Figure a: % Rejection NOTE: Te product monitoring sensor must be on te cannel tat will measure percent rejection. If te product conductivity sensor is installed in cannel 1, ten percent rejection must be measured in cannel 1. 8.1.2.2 Calculated ph (Power Plant Applications only) Calculated ph may be obtained very accurately from specific and cation conductivity values on power plant samples wen te ph is between 7.5 and 10.5 due to ammonia or amines and wen te specific conductivity is significantly greater tan te cation conductivity. Tis calculation is not suitable were significant levels of pospates are present. Te M800 uses tis algoritm wen ph Cal is selected as a measurement. Te calculated ph must be configured on te same cannel as specific conductivity. For example, set up measurement M1 on CHAN_1 to be specific conductivity, measurement M1 on CHAN_2 to be cation conductivity, measurement M2 on CHAN_1 to be calculated ph and measurement M3 on CHAN_1 to be temperature. Set te temperature compensation mode to Ammonia for measurement M1 on CHAN_1 and to Cation for measurement M1 on CHAN_2. NOTE: If operation goes outside te recommended conditions, a glass electrode ph measurement is needed to obtain an accurate value. On te oter and, wen sample conditions are witin te ranges noted above, te calculated ph provides an accurate standard for one-point trim calibration of te electrode ph measurement.

Transmitter M800 61 8.1.2.3 Calculated CO 2 (Power plant applications only) Carbon dioxide may be calculated from cation conductivity and degassed cation conductivity measurements on power plant samples using tables from ASTM Standard D4519. Te M800 as tese tables stored in memory, wic it uses wen units of CO 2 CAL are selected. Te calculated CO 2 measurement must be configured to te same cannel as cation conductivity. For example, set up measurement M1 on CHAN_1 to be cation conductivity, measurement M1 on CHAN_2 to be degassed cation conductivity, measurement M2 on CHAN_1 to be calculated CO 2 and measurement M2 on CHAN_2 to be temperature. Set te temperature compensation mode to Cation for bot conductivity measurements. 8.1.3 Display Mode PATH: H \ CONFIG \ Meas \ Display Mode Press te input field in te line of te setting for Disp Mode and cose te measuring values, wic are displayed on te Start Screen and Menu Screen. Coose between te display of te measuring values for one cannel, te measuring values for two cannels, 4 measuring values (4-meas) or 8 measuring values (8-meas). NOTE: If 1-Cannel or 2-Cannel as been cosen te measuring values, tat will be displayed are defined in te menu Cannel Setup (see capter 8.1.1 Cannel Setup ). If 1-Cannel as been cosen, M1 to M4 of every cannel will be displayed. In case of 2-Cannel M1 and M2 of every cannel will be displayed. Additional settings can be done if 4-meas or 8-meas as been selected. Select te Page of te Start Screen or Menu Screen te measuring value will be displayed. Coose te Line of te according page te measuring value will be displayed. Select te Cannel wic sould be displayed in te according line of te page troug pressing te corresponding field. Coose te measured value of te selected cannel wic sould be displayed troug te parameter Measure. NOTE: Beside te measurement values ph, O2, T, etc. also te ISM values DLI, TTM and ACT can be displayed.

Transmitter M800 62 8.1.4 Parameter related Settings PATH: H \ CONFIG \ Meas \ Parameter Setting Measuring and calibration parameters can be set for te parameters ph, conductivity, oxygen, and flow Access te menu Cannel and select te cannel. Depending on te selected cannel and assigned sensor te measuring and calibration parameters are displayed. See te following explanation to get more details about te different parameter settings. 8.1.4.1 Conductivity Settings Select measurement (M1-M6). For more information regarding measurements see capter 8.1.1 Settings for Cannel Setup. If te selected measurement can be temperature compensated, te compensation metod may be selected. NOTE: During calibration, te compensation metod must also be selected. (see capter 7.2 Calibration of UniCond2e Sensors and capter 7.3 Calibration of Cond4e Sensors ). Press Compen. to select te desired temperature compensation metod. Coices are None, Standard, Ligt 84, Std 75 C, Linear 25 C, Linear 20 C, Glycol.5, Glycol1, Cation, Alcool and Ammonia. None does not make any compensation of te measured conductivity value. Te uncompensated value will be displayed and proceeded. Standard compensation includes compensation for non-linear ig purity effects as well as conventional neutral salt impurities and conforms to ASTM standards D1125 and D5391. Ligt 84 compensation matces te ig purity water researc results of Dr. T.S. Ligt publised in 1984. Use only if your institution as standardized on tat work. Std 75 C compensation is te Standard compensation algoritm referenced to 75 C. Tis compensation may be preferred wen measuring Ultrapure Water at an elevated temperature (Resistivity of ultrapure water compensated to 75 C is 2.4818 Mom-cm.) Linear 25 C compensation adjusts te reading by a coefficient or factor expressed as %/ C (deviation from 25 C). Use only if te solution as a well-caracterized linear temperature coefficient. Te factory default setting is 2.0% / C. Linear 20 C compensation adjusts te reading by a coefficient or factor expressed as %/ C (deviation from 20 C). Use only if te solution as a well-caracterized linear temperature coefficient. Te factory default setting is 2.0% / C. Glycol.5 compensation matces te temperature caracteristics of 50% etylene glycol in water. Compensated measurements using tis solution may go above 18 Mom-cm. Glycol1 compensation matces te temperature caracteristics of 100% etylene glycol. Compensated measurements may go well above 18 Mom-cm. Cation compensation is used in power industry applications measuring te sample after a cation excanger. It takes into account te effects of temperature on te dissociation of pure water in te presence of acids.

Transmitter M800 63 Alcool compensation provides for te temperature caracteristics of a 75% solution of isopropyl alcool in pure water. Compensated measurements using tis solution may go above 18 Mom-cm. Ammonia compensation is used in power industry applications for specific conductivity measured on samples using ammonia and/or ETA (etanolamine) water treatment. It takes into account te effects of temperature on te dissociation of pure water in te presence of tese bases. NOTE: If compensation mode Linear 25 C or Linear 20 C as been cosen, te coefficient for te adjustment of te reading can be modified. In tis case an additional input field will be displayed. Press te input field for Coef. and adjust te coefficient or factor for te compensation. 8.1.4.2 ph Settings If a ph sensor is connected to te selected cannel wile during te cannel setup (see capter 8.1.1 Cannel Setup ) Auto as been cosen te parameters Buffer Tab, Stability, IP, STC and calibration temperature as well as te displayed units for slope and/or zero point can be set or adjusted. Te same parameters will be displayed if during te cannel setup not Auto but ph/orp as been set. Select te buffer troug te parameter Buffer Tab. For automatic buffer recognition during calibration, select te buffer solution set tat will be used: Mettler-9, Mettler-10, NIST Tec, NIST Std = JIS Std, HACH, CIBA, MERCK, WTW or None. See capter 16 Buffer tables for buffer values. If te auto buffer feature will not be used or if te available buffers are different from tose above, select None. Select te required Stability of te measuring signal during te calibration procedure. Coose manual if te user will decide wen a signal is stable enoug to complete te calibration. Select Low, Medium or Strict if an automatic stability control of te sensor signal during calibration troug te transmitter sould be done. If te parameter stability is set to medium (default) te signal deviation as to be less tan 0.8 mv over a 20 second interval to be recogniced by te transmitter as stable. Te calibration is done using te last reading. If te criteria is not met witin 300 seconds ten te calibration times out and te message Calibration Not Done is displayed. Adjust te parameter IP ph. IP is te isotermal point value (Default = 7.000 for most applications). For specific compensation requirements or non standard inner buffer value, tis value can be canged. Adjust te value of te parameter STC ph/ C. STC is te solution temperature coefficient in units of ph / C referenced to te defined temperature. (Default = 0.000 ph/ C for most applications). For pure waters, a setting of 0.016 ph / C sould be used. For low conductivity power plant samples near 9 ph, a setting of 0.033 ph / C sould be used. If te value for STC is 0.000 ph/ C an additional input field for te reference temperature will be displayed. Te value for ph Ref Temperature indicates to wic temperature te solution temperature compensation is referenced. Te displayed value and te output signal is referenced to tis temperature. Most common reference temperature is 25 C.

Transmitter M800 64 8.1.4.3 Settings for Oxygen Measurement Based on Amperometric Sensors If an amperometric oxygen sensor is connected to te selected cannel wile during te cannel setup (see capter 8.1.1 Cannel Setup ) Auto as been cosen te parameters CalPressure, ProcPressure, ProcCalPress, Stability, Salinity, RelHumidity, UpolMeas and UpolCal can be set or adjusted. Te same parameters will be displayed if during te cannel setup not Auto but O2 i, O2 lo or O2 trace as been set. Enter te value for te calibration pressure troug te parameter CalPressure. NOTE: For a modification of te unit for te calibration pressure press 'u' on te displayed keypad. Press te button Option for te parameter ProcPressure and select te ow to get applying process pressure troug coosing te Type. Te applied process pressure can be entered by coosing Edit or measured over te analog input of te M800 by coosing Ain_1. If Edit as been cosen an input field for entering te value manually is displayed on te screen. In case tat Ain_1 as been selected two input fields are displayed to enter te start value (4 ma) and te end value (20 ma) of te range for te 4 to 20 ma input signal. For te algoritm of te process calibration te applied pressure as to be defined. Select te pressure troug te parameter ProcCalPress. For te process calibration te value of te process pressure (ProcPress) or te calibration pressure (CalPress) can be used. Select te required Stability of te measuring signal during te calibration procedure. Coose Manual if te user will decide wen a signal is stable enoug to complete te calibration. Select Auto and an automatic stability control of te sensor signal during calibration troug te transmitter will be done. Additional settings can be done by navigating to te next page of te menu. Te Salinity of te measured solution can be modified. In addition te relative umidity (button Rel.Humidity) of te calibration gas can also be entered. Te allowed values for relative umidity are in te range 0% to 100%. Wen no umidity measurement is available, use 50% (default value). Te polarization voltage of amperometric oxygen sensors in te measuring mode can be modified troug te parameter UpolMeas. For entered values 0 mv to 550 mv te connected sensor will be set to a polarization voltage of 500mV. If te entered value is less ten 550 mv, te connected sensor will set to a polarization voltage of 674 mv. Te polarization voltage of amperometric oxygen sensors for calibration can be modified troug te parameter UpolCal. For entered values 0 mv to 550 mv te connected sensor will be set to a polarization voltage of 500mV. If te entered value is less ten 550mV, te connected sensor will set to a polarization voltage of 674mV. NOTE: During a process calibration, te polarization voltage UpolMeas, defined for te measuring mode, will be used. NOTE: If a one point calibration is executed, te transmitter sends te polarization voltage, valid for te calibration, to te sensor. If te polarization voltage for te measuring mode and calibration mode is different, te transmitter will wait 120 seconds before starting te calibration. In tis case te transmitter will also go after te calibration for 120 seconds to te HOLD Mode, before returning to te measuring mode again.

Transmitter M800 65 8.1.4.4 Settings for Oxygen Measurement Based on Optical Sensors If an optical oxygen sensor is connected to te selected cannel wile during te cannel setup (see capter 8.1.1 Cannel setup ) Auto as been cosen te parameters CalPressure, Proc- Pressure, ProcCalPress, Stability, Salinity, RelHumidity, Sample Rate, LED Mode and Toff can be set or adjusted. Te same parameters will be displayed if during te cannel setup not Auto but Optical O2 as been set. Enter te value for te calibration pressure troug te parameter CalPressure. Press te button Option for te parameter ProcPress and select te ow to get applying process pressure troug pressing te according button in te line Type. Te applied process pressure can be entered by coosing Edit or measured over te analog input of te M800 by coosing AIN_1. If Edit as been cosen an input field for entering te value manually is displayed on te screen. In case tat AIN_1 as been selected two input fields are displayed to enter te start value (4mA) and te end value (20 ma) of te range for te 4 to 20 ma input signal. For te algoritm of te process calibration te applied pressure as to be defined. Select te pressure troug te parameter ProcCal. For te process calibration te value of te process pressure (ProcPress) and te value of te calibration pressure (CalPress) can be used. Select between Scaling and Calibration for te process calibration. If Scaling as been cosen, te calibration curve of te sensor will be untouced, but te output signal of te sensor will be scaled. In case of calibration value <1%, te offset of te sensor output signal will be modified during scaling, for value >1% te slope of te sensor output will be adjusted. For furter information about scaling refer to te sensor manual. Selecting te required Stability of te measuring signal during te calibration procedure. Coose Manual if te user will decide wen a signal is stable enoug to complete te calibration. Select Auto and an automatic stability control of te sensor signal during calibration troug te transmitter will be done. Additional settings can be done by navigating to te next page of te menu. Te Salinity of te measured solution can be modified. In addition te relative umidity (button Rel.Humidity) of te calibration gas can also be entered. Te allowed values for relative umidity are in te range 0% to 100%. Wen no umidity measurement is available, use 50% (default value). Adjust te required Sample Rate of te optical sensor during measurement. Te time interval from one measuring cycle of te sensor to te next can be adjusted i.e. adapted to te application. A iger value will increase te life time of te OptoCap of te sensor. Select te LED Mode of te sensor. Tere are te following options. Off: LED is permanently switced off. On: LED is permanently switced on. Auto: Te LED is switced on as long as te measured media temperature is smaller ten Toff (see next value) or switced off troug a digital input signal (see capter 8.9 Digital Inputs ). NOTE: If te LED is switced off, no oxygen measurement is performed. Enter te limit for te measuring temperature to switc off te LED of te sensor automatically by te M800 troug te parameter Toff.

Transmitter M800 66 If te media temperature is iger ten Toff, te LED will switced off. Te LED will be switced on as soon as te media temperature falls below Toff 3K. Tis function give te option to increase te lifetime of te OptoCap by switcing off te LED during SIP or CIP cycles. NOTE: Tis function is only active if te LED Mode is set to Auto. 8.1.4.5 Settings for Flow Measurement For te dedicated flow cannels, Pipe ID and Flow Cut can be adjusted Press te input field for te value of te parameter Pipe ID. Te M800 displays a keypad for modifying te value. Flow velocity measurements in ft/sec require te inside diameter of te pipe (in wic te sensor is installed) for calculations. Enter te precise inside diameter in inces.. Press e to accept te value. To select te low flow cutoff, select Flow Cut. Te M800 displays a keypad for modifying te value. If te measured value is less ten te entered value for Flow Cut, te M800 transmitter sets te measured value for flow to 0. Press e to accept te value. 8.2 Analog Outputs PATH: H \ CONFIG \ Analog Outputs See te following explanation to get more details about te different settings for te analog outputs. Press te input field in te line of te setting for Aout and select te desired output signal for configuration by pressing button #1 for output signal 1, #2 for output signal 2 etc. Press te related button for te assignment of te cannel (Can). Select te cannel, wic as to be linked to te output signal. Press te button for te assignment of te measuring parameter based on te selected cannel tat as be linked to te output signal. NOTE: Beside te measurement values ph, O2, T, etc. also te ISM values DLI, TTM and ACT can be linked to te output signal. Select te Range for te output signal. To adjust te value for te analog output signal if an alarm occurs, press te input field in te line for te setting of Alarm. Off means, tat an alarm as now influence on te output signal. NOTE: Not only te alarms occurred on te assigned cannel will be considered, but every alarm coming up on te transmitter.

Transmitter M800 67 Te value for te output signal if te transmitter goes into old mode can be defined. It can be cosen between te last value (i.e. te value before te transmitter switced to te old mode) or an fixed value. Press te input field in te line for te setting of te Hold Mode and select te value. If a fixed value is cosen, te transmitter sows an additional input field. Additional settings can be done by navigating to te next page of te menu. Te Aout Type can be Normal, Bi-Linear, Auto-Range or Logaritmic. Te range can be 4 20 ma or 0 20 ma. Normal provides linear scaling between te minimum and maximum scaling limits and is te default setting. Bi-Linear will also prompt for a scaling value for te mid-point of te signal and allows two different linear segments between te minimum and maximum scaling limits. Press te button for te Min Value, tat corresponds wit start point of te analog output range. Press te button for te Max Value, tat corresponds wit end point of te analog output signal. Depending on te cosen Aout type additional values can be entered. Bi-Linear will also prompt for a scaling value for te Mid Value of te signal and allows two different linear segments between te defined Min and Max Values. Auto-Range scaling provides two ranges of output. It is designed to work wit a PLC to provide a wide measurement range at te ig end of te scale, and a narrower range wit ig resolution at te low end. Two separate settings are used, one for te maximum limit of te ig range and one for te maximum limit of te low range, for te single 0/4-20 ma signal. Max1 is te maximum limit of te low range on auto-range. Te maximum value for te ig range on auto-range is set wit te Max Value. Bot ranges ave te same minimum value tat is set troug Min Value. If te input value is iger ten value of Max1, te transmitter switces automatically to te second range. To indicate te currently valid range a relay can be assigned. Te relay will be switced if te transmitter canges from on range to te oter. If Logaritmic Range was selected, it will prompt for te Max Value and also for te number of decades. 8.3 Set Points PATH: H \ CONFIG \ Set Points See te following explanation to get more details about te different settings for te set points. Press te input field in te line of te setting for Set Point and select te desired set point for configuration troug pressing te button #1 for set point 1, #2 for set point 2 etc.. Press te related button for te assignment of te cannel (Can). Select te cannel, wic as to be linked to te set point. Press te button for te assignment of te measuring parameter based on te selected cannel tat as be linked to te set point. Mx in te display indicates te measurement assigned to te set point. (see capter 8.1.1 Cannel Setup ).

Transmitter M800 68 NOTE: Beside te parameters ph, O2, T, ms/cm, %EP WFI etc. also te ISM values DLI, TTM and ACT can be linked to te set point. Te Type of te setpoint can be Hig, Low, Between, Outside or Off. An Outside setpoint will cause an alarm condition wenever te measurement goes above its ig limit or below its low limit. A Between setpoint will cause an alarm condition to occur wenever te measurement is between its ig and low limits. NOTE: If te type of set point is not Off additional settings can be done. See te following description. According to te selected type of setpoint, value(s) regarding te limit(s) can be entered. Additional settings can be done by navigating to te next page of te menu. Once configured a relay could be activated if a sensor Out of Range condition is detected on te assigned input cannel. To select te desired relay tat will be activated if te defined conditions are reaced press te input field in te line for te setting of SP Relay. If te cosen relay is used for anoter task, te transmitter sows te message on te screen tat tere is a Relay Conflict. Te operation mode of te relay can be defined. Relay contacts are in normal mode until te associated setpoint is exceeded, ten te relay is activated and te contact states cange. Select Inverted to reverse te normal operating state of te relay (i.e. normally open contacts are in a closed state, and normally closed contacts are in an open state, until te setpoint is exceeded). Enter te Delay time in seconds. A time delay requires te setpoint to be exceeded continuously for te specified lengt of time before activating te relay. If te condition disappears before te delay period is over, te relay will not be activated. Enter te Hysteresis as a percentage-value. A ysteresis value requires te measurement to return witin te setpoint value by a specified percentage before te relay is deactivated. For a ig setpoint, te measurement must decrease more tan te indicated percentage below te setpoint value before te relay is deactivated. Wit a low setpoint, te measurement must rise at least tis percentage above te setpoint value before te relay is deactivated. For example, wit a ig setpoint of 100, wen tis value is exceeded, te measurement must fall below 90 before te relay is deactivated. Enter te relay Hold Mode of Off, Last Value or On. Tis is te state of te relay during old status. 8.4 ISM Setup PATH: H \ CONFIG \ ISM Setup See te following explanation to get more details about te different parameter settings for te ISM Setup.

Transmitter M800 69 8.4.1 Sensor Monitor If a ph/orp, O2 i, O2 lo, O2 trace, O3 or O2 optical sensor is connected to te selected cannel wile during te cannel setup (see capter 8.1.1 Cannel Setup ) Auto as been cosen te parameter Sensor Monitor can be set or adjusted. Te menu Sensor Monitor will also be displayed if during te cannel setup not Auto but one of te mentioned sensors as been set. Press te button Sensor Monitor. Enter te value for te initial Time To Maintenance interval (TTM Initial) in days. Te initial value for TTM can be modified according to te application experience. For ph/orp sensor te timer estimates wen te next cleaning cycle sould be performed to keep te best possible measurement performance. Te timer is influenced by significant canges on te DLI parameters. For amperometric oxygen and ozone sensors, te time to maintenance indicates a maintenance cycle for te membrane and electrolyte. Press te input field for TTM Reset. Select Yes if Time To Maintenance (TTM) for te sensor sould be reset to te initial value. Time To Maintenance needs to be reset after te following operations. ph sensors: manual maintenance cycle on te sensor. Oxygen or ozone sensor: manual maintenance cycle on te sensor or excanging of te membrane of te sensor NOTE: Te menu TTM Initial and TTM Reset is for O2 optical sensors not available. NOTE: By connecting a sensor, te actual value for TTM of te sensor is read out from te sensor. Enter te ACT Initial value in days. Te new value will be loaded down to te sensor after saving te canges. Te Adaptive Calibration Timer (ACT) estimates wen te next calibration sould be performed to keep te best possible measurement performance. Te timer is influenced by significant canges on te DLI parameters. Te ACT will be reset to is initial value after a successful calibration. Te initial value for te ACT can be modified according to te application experience and loaded down to te sensor. NOTE: By connecting a sensor, te actual value for te ACT of te sensor is read out from te sensor. Press te input field for DLI Reset. Select Yes if Dynamic Lifetime Indicator (DLI) for te sensor sould be reset to te initial value. Te reset will be done after saving te canges. Te DLI allows an estimation, wen te ph electrode, te inner body of an amperometric oxygen or ozone sensor or te OptoCap of an optical oxygen sensor is at te end of is lifetime, based on te actual stress e is exposed to. Te sensor permanently takes te averaged stress of te past days into consideration and is able to increase / decrease te lifetime accordingly.

Transmitter M800 70 Te following parameters affect te lifetime indicator: Dynamic parameters: Static parameters: Temperature Calibration istory ph or oxygen value Zero and Slope Glass impedance (only ph) Pase 0 and pase 100 (only optical DO) Reference impedance (only ph) Illumination time (only optical DO) Sampling rate (only optical DO) CIP / SIP / Autoclaving cycles Te sensor keeps te information stored in te built in electronics and can be retrieved via a transmitter or te isense asset management suite. For amperometric oxygen sensors, te DLI is related to te inner-body of te sensor. After excanging te inner-body perform DLI Reset. For optical DO sensors te lifetime indicator is related to te OptoCap. After excanging te OptoCap perform DLI Reset. NOTE: By connecting a sensor, te actual values for te DLI of te sensor are read out from te sensor. NOTE: Te menu DLI Reset for ph sensors not available. If te actual value for te DLI of a ph sensor is 0 te sensor as to be replaced. 8.4.2 CIP Cycle Limit If a ph/orp, oxygen or conductivity sensor is connected to te selected cannel wile during te cannel setup (see capter 8.1.1 Cannel Setup ) Auto as been cosen te parameter CIP Cycle Limit can be set or adjusted. Te menu CIP Cycle Limit will also be displayed if during te cannel setup not Auto but one of te mentioned sensors as been set. Press te button CIP Cycle Limit. Press te button in te input field for te parameter Max Cycles and enter te value for te maxmum CIP cycles. Te new value will be written to te sensor after saving te canges. Te CIP cycles are counted by te transmitter. If te limit (value for Max Cycles) is reaced, an alarm can be indicated and set to a certain output relays. If te Max Cycles setting is on 0, te counter functionality is turned off. NOTE: In case of an optical oxygen sensor, te value for Max Cycles will also be written to te sensor. Te transmitter M800 uploads te value Max Cycles from an optical oxygen sensor after te connection. Press te button in te input field for te parameter Temp and enter te temperature, wic as to be exceeded, tat te a CIP cycle will be counted. CIP Cycles will be automatically recognized by te transmitter. Since CIP cycles will vary in intensity (duration and temperature) for eac application te algoritm of te counter recognizes an increase of te measurement temperature above te level defined troug te value for Temp. If te temperature does not decrease below te defined temperature level - 10 C witin te next 5 minutes after te first temperature was reaced, te counter in question will be incremented by one and also locked for te next two ours. In te case te CIP would last longer tan two ours te counter would be incremented by one once more.

Transmitter M800 71 Press te input field for Reset. Select Yes if CIP counter for te sensor sould be reset to 0. Te reset will be done after saving te canges. If an oxygen sensor is connected, te reset sould be performed after te following operations. optical sensor: excanging of te OptoCap amperometric sensor: excanging of te inner-body of te sensor. NOTE: For ph/orp sensor te menu Reset is not available. A ph/orp sensor sould be replaced if te number for Max Cycles as been exceeded. 8.4.3 SIP Cycle Limit If a ph/orp, oxygen or conductivity sensor is connected to te selected cannel wile during te cannel setup (see capter 8.1.1 Cannel Setup ) Auto as been cosen te parameter SIP Cycle Limit can be set or adjusted. Te menu SIP Cycle Limit will also be displayed if during te cannel setup not Auto but one of te mentioned sensors as been set. Press te button SIP Cycle Limit. Press te button in te input field for te parameter Max Cycles and enter te value for te maxmum SIP cycles. Te new value will be written to te sensor after saving te canges. Te SIP cycles are counted by te transmitter. If te limit (value for Max Cycles) is reaced, an alarm can be indicated and set to a certain output relays. If te Max Cycles setting is on 0, te counter functionality is turned off. NOTE: In case of an optical oxygen sensor, te value for Max Cycles will also be written to te sensor. Te transmitter M800 uploads te value Max Cycles from an optical oxygen sensor after te connection. Press te button in te input field for te parameter Temp and enter te temperature, wic as to be exceeded, tat te a SIP cycle will be counted. SIP Cycles will be automatically recognized by te transmitter. Since SIP cycles will vary in intensity (duration and temperature) for eac application te algoritm of te counter recognizes an increase of te measurement temperature above te level defined troug te value for Temp. If te temperature does not decrease below te defined temperature level - 10 C witin te next 5 minutes after te first temperature was reaced, te counter in question will be incremented by one and also locked for te next two ours. In te case te SIP would last longer tan two ours te counter would be incremented by one once more. Press te input field for Reset. Select Yes if SIP counter for te sensor sould be reset to 0. Te reset will be done after saving te canges. If an oxygen sensor is connected, te reset sould be performed after te following operations. Optical sensor: excanging of te OptoCap Amperometric sensor: excanging of te inner-body of te sensor. NOTE: For ph/orp sensor te menu Reset is not available. A ph/orp sensor sould be replaced if te number for Max Cycles as been exceeded.

Transmitter M800 72 8.4.4 AutoClave Cycle Limit If a ph/orp, amperometric oxygen or, depending on te model, optical oxygen sensor is connected to te selected cannel wile during te cannel setup (see capter 8.1.1 Cannel Setup ) Auto as been cosen te parameter AutoClave Cycle Limit can be set or adjusted. Te menu AutoClave Cycle Limit will also be displayed if during te cannel setup not Auto but one of te mentioned sensors as been set. Press te button AutoClave Cycle Limit. Press te button in te input field for te parameter Max Cycles and enter te value for te maxmum AutoClave cycles. Te new value will be written to te sensor after saving te canges. If te Max Cycles setting is on 0, te counter functionality is turned off. Since during te autoclaving cycle te sensor is not connected to te transmitter, you will be asked after every sensor connection, weter te sensor was autoclaved or not. According to your selection, te counter will be incremented or not. If te limit (value for Max Cycles) is reaced, an alarm can be indicated and set to a certain output relay. NOTE: In case of an optical oxygen sensor, te value for AutoClave Max will be written to te sensor. Te transmitter M800 uploads te value Max Cycles from an optical oxygen sensor after plugging in. Press te input field for Reset. Select Yes if te AutoClave counter for te sensor sould be reset to 0. Te reset will be done after saving te canges. If an oxygen sensor is connected, te reset sould be performed after te following operations. Optical sensor: excanging of te OptoCap Amperometric sensor: excanging of te inner-body of te sensor. NOTE: For ph/orp sensor te menu Reset is not available. A ph/orp sensor sould be replaced if te number for Max Cycles as been exceeded. 8.4.5 SAN Cycle Parameters If an ozone sensor is connected, values for te following SAN Cycle Parameters can be set, Max Cycles (te maximum number of sanitization cycles), Conc. Max (te maximum allowed O3 concentration), Conc. Min (te minimum allowed O3 concentration), Cycle Time (lengt of cycle), and Reset. Press te button SAN Cycle Parameters. Press te input field next to Max Cycles and enter te value for te maximum SAN cycles. Press e to accept te value. Te new value will be written to te sensor after saving te canges. Te SAN cycles are counted by te transmitter. If te limit (value for Max Cycles) is reaced, an alarm can be configured. If te Max Cycles setting = 0, te counter functionality is turned off. Press te input field next to Conc. Max and enter te ozone concentration above wic a sanitization cycle is to be detected. Press e to accept te value. Press te input field next to Conc. Min. Enter te value for te ozone concentration below wic a sanitization cycle is no longer detected. Press e to accept te value

Transmitter M800 73 Press te input field next to Cycle Time. Enter te value for te time, te ozone concentration as to be iger ten te Conc. Min value after te Conc. Max value as been exceeded to count a sanitization cycle. Press e to accept te value. Press te input field next to Reset. Select Yes to reset te sanitization counter to zero. Tis is typically performed after sensor replacement. Te reset will be done after saving te canges Press e to exit te menu SAN Cycle Parameters. 8.4.6 Reset Counters for UniCond2e Sensors For UniCond2e sensors, te following counters can be reset: Hig Temp and Hig Conductivity. Press te button Reset Counters. Select Yes for te desired counter to be reset and press enter. Te reset will be done after saving te canges. Press e to exit te menu Reset Counters. 8.4.7 Set Calibration Interval for UniCond2e Sensors For UniCond2e sensor te Cal Interval (calibration interval) can be set. Press te button Cal Interval. Press te input field next to Cal Interval and enter te value for te calibration interval. Based on tis value te Time To Calibration (TTCal) will be calculated by te transmitter. Press e to accept te value. Te new value will be written to te sensor after saving te canges. Press e to exit te menu Cal Interval.

Transmitter M800 74 8.5 General Alarm PATH: H \ CONFIG \ General Alarm See te following explanation to get more details about te different settings for General Alarm. Press te button Event in te line of te settings for Option and select te events, tat sould be considered for an alarm. To activate a relay if te defined conditions are reaced press te input field in te line for te settings of Relay. Only relay 1 can be assigned to general alarm. For general alarms te operation mode of te assigned relay is always inverted. Enter te Delay time in seconds. A time delay requires te setpoint to be exceeded continuously for te specified lengt of time before activating te relay. If te condition disappears before te delay period is over, te relay will not be activated. 8.6 ISM / Sensor Alarm PATH: H \ CONFIG \ ISM / Sensor Alarm See te following explanation to get more details about te different settings for ISM / Sensor Al Alarm. Select te cannel by pressing te related button in te line of te settings for Option. Depending on te selected cannel or assigned sensor te Events tat will be considered for generating an alarm can be selected. Some alarms will be considered in any case and not ave to be selected or deactivated. To select te desired relay tat will be activated if an event as taken place press te input field in te line for te settings for Relay. Te operation mode of te relay can be defined. Relay contacts are in normal mode until one of te selected events as taken place. Ten te relay is activated and te contact states cange. Select Inverted to reverse te normal operating state of te relay (i.e. normally open contacts are in a open state, and normally closed contacts are in a closed state if an event as taken place). Enter te Delay time in seconds. A time delay requires te event to be occurred continuously for te specified lengt of time before activating te relay. If te condition disappears before te delay period is over, te relay will not be activated.

Transmitter M800 75 8.7 Clean PATH: H \ CONFIG \ Clean See te following explanation to get more details about te different settings for Clean Enter te cleaning Interval time in ours. Te cleaning interval can be set from 0.000 to 99999 ours. Setting it to 0 turns te clean cycle off. Enter te Clean Time in seconds. Te clean time can be 0 to 9999 seconds and must be smaller tan te cleaning interval. Assign te cannel(s) for cleaning cycles. Te assigned cannels will be in HOLD state during te cleaning cycle. Coose a Relay. Relay contacts are in normal mode until te cleaning cycle starts, ten te relay is activated and te contact states cange. Select Inverted to reverse te normal operating state of te relay (i.e. normally open contacts are in a open state, and normally closed contacts are in a closed state wen te cleaning cycle starts). 8.8 Display Setup PATH: H \ CONFIG \ Display Setup See te following explanation to get more details about te different settings for Display Setup Enter te name for te transmitter M800 (Instrument Tag). Te instrument tag will also be displayed on te line at te top of te Start Screen and Menu Screen. Coose wit parameter BackLigt to switced off or dim te transmitter screen after a defined time period witout interaction. Te transmitter screen will automatically come back after pressing te display. Enter te Ligt Time in minutes. Te ligt time is te time period witout interaction before te transmitter screen will be dimmed or switced off. NOTE: In case of an unacknowledged warning or alarm te transmitter screen will not be dimmed or switced off even if te ligt time as been elapsed Te parameter Max allows te setting of te backligt during operation. Wit te parameter Dim te backligt of te transmitter screen during te dimmed state can be adjusted. Press te + or - buttons in te corresponding line to adjust te parameters.

Transmitter M800 76 8.9 Digital Inputs PATH: H \ CONFIG \ Digital Inputs See te following explanation to get more details about te different settings for te digital inputs Press te related button for te assignment of te Cannel (Can_). Select te cannel, wic as to be linked to te digital input signal. Press te input field in te line of te setting for Mode and select te impact of an active digital input signal. Coose Hold to lead te assigned cannel in old state. For flow sensor te digital input signal can be used to reset te totalized flow value (Reset T-flow) for te cannel. If an optical DO sensors is connected, te digital input signal can be used for LED controlling. Press te related button for te assignment of te Digital Inputs (#1 for DI1, #2 for DI2 etc.) and select te digital input signal, wic as to be linked to te cannel. An additional setting can be done, it an digital input signal as been selected. Press te input field in te line for te setting of te State and select if te digital input is active at ig or low level of te voltage input signal. 8.10 System PATH: H \ CONFIG \ System See te following explanation to get more details about te different settings for te System. Select te desired Language. Te following languages are available: Englis, Frenc, German, Italian, Spanis, Portuguese, Russian, Cinese, Korean or Japanese. Enter Date&Time. Te automatic cange-over from summertime to wintertime and vice-versa frees te users from aving to correct te time twice a year. Te winter to summer time-cange are carried out automatically using te 12-mont clock integrated in te transmitter. Te date for te time-cange can be set wit te parameter Summer. Provided it is a Sunday, te time-cange would take place on te day tat equates wit te value, oterwise on te following Sunday. Te winter/summer time-cange takes place at 02:00. Te summer to winter time-cange are carried out automatically using te 12-mont clock integrated in te transmitter. Te date for te time-cange can be set troug te parameter Winter. Provided it is a Sunday, te time-cange would take place on te day tat equates wit te value, oterwise on te following Sunday. Te winter/summer time-cange takes place at 03:00. Te number of ours, te clock will be sifted troug te winter to summer and summer to winter time-cange can be cosen. Press te related button for te setting of te Sift Hour.

Transmitter M800 77 8.11 PID Controller PATH: H \ CONFIG \ PID Controller PID control is proportional, integral and derivative control action tat can provide smoot regulation of a process. Before configuring te transmitter, te following process caracteristics must be identified. Identify te control direction of te process Conductivity: Dilution direct acting were increasing measurement produces increasing control output suc as controlling te feed of low conductivity diluting water to rinse tanks, cooling towers or boilers Concentrating reverse acting were increasing measurement produces decreasing control output, suc as controlling cemical feed to attain a desired concentration Dissolved Oxygen: Deaeration direct acting were increasing DO concentration produces increasing control output suc as controlling te feed of a reducing agent to remove oxygen from boiler feedwater Aeration reverse acting were increasing DO concentration produces decreasing control output, suc as controlling an aerator blower speed to maintain a desired DO concentration in fermentation or wastewater treatment ph / ORP: Acid feed only direct acting were increasing ph produces increasing control output, also for ORP reducing reagent feed Base feed only reverse acting were increasing ph produces decreasing control output, also for ORP oxidizing reagent feed Bot acid and base feed direct and reverse acting Identify te control output type based on te control device to be used: Pulse frequency used wit pulse input metering pump Pulse lengt used wit solenoid valve Analog used wit current input device suc as electric drive unit, analog input metering pump or current-to-pneumatic (I / P) converter for pneumatic control valve Default control settings provide linear control, wic is appropriate for conductivity, dissolved oxygen. Terefore, wen configuring PID for tese parameters (or simple ph control) ignore settings of deadband and corner points in te tuning parameter section below. Te non-linear control settings are used for more difficult ph / ORP control situations. If desired, identify te non-linearity of te ph / ORP process. Improved control can be obtained if te non-linearity is accommodated wit an opposing non-linearity in te controller. A titration curve (grap of ph or ORP vs. reagent volume) made on a process sample provides te best information. Tere is often a very ig process gain or sensitivity near te setpoint and decreasing gain furter away from te setpoint. To counteract tis, te instrument allows for adjustable non-linear control wit settings of a deadband around te setpoint, corner points furter out and proportional limits at te ends of control as sown in te figure below.

Transmitter M800 78 Determine te appropriate settings for eac of tese control parameters based on te sape of te ph process titration curve. YP Error (%) Controller wit Corner Points Proportional limit +100% value 120% 100% 80% 60% Direct corner point (value, %) 40% Set point value 20% Deadband + value 0% Deadband - value 20% Reverse corner point (value, %) 40% 60% 80% 100% Proportional limit 100% value 120% 0 2 4 6 8 10 12 14 Process Variable See te following explanation to get more details about te different settings for PID Controller. Te M800 provides to 2 PID controllers. Press te input field in te line of te setting for PID and select te desired PID controller for configuration troug pressing te button #1 for PID controller 1 and #2 for PID controller 2. Press te related button for te assignment of te cannel (Can). Select te cannel, wic as to be linked to te PID Controller. To deactivate te PID controller press None. Press te button for te assignment of te measuring parameter based on te selected cannel tat as be linked to te PID controller. Cose te measuring parameter troug pressing te according field. Mx in te display indicates te measurement assigned to te PID Controller. (see capter 8.1.1 Cannel Setup ). Te M800 offers te display of control output (%PID) of te PID controller in te Start Screen and Menu Screen. Press te related button for Display For and select te line, te control output sould be displayed troug pressing te corresponding field. NOTE: Te control output of te PID controller will be displayed instead of te measurement, tat as been defined to be sown in te corresponding line (see capter 8.1.1 Cannel Setup ). Select wit te parameter PID Hold te state of te control output for te PID controller if te transmitter M800 is in old mode. Off means tat te control output will be 0%PID if te transmitter is in old mode. If Last Value as been cosen, te value for te control output signal before te transmitter went into old mode will be used. Te parameter PID A/M allows selection of auto or manual operation for te PID controller. If auto as been cosen, te transmitter calculates te output signal based on te measured value and te settings of te parameters for te PID controller. In case of manual te transmitter sows in te Menu Screen at te line were te output signal is displayed two additional arrow buttons. Press te arrows buttons to increase or decrease te PID output signal.

Transmitter M800 79 NOTE: If Manual as been cosen te values for te time constants, gain, corner points, proportional limits, setpoint and deadband do not ave any influence on te output signal. Additional settings can be done by navigating to te next page of te menu. Te PID Mode assigns a relay or analog output for PID control action. Based on te control device being used, select one of te tree options Relay PL, Relay PF and Aout troug pressing te corresponding field Relay PL: If using a solenoid valve, select Relays PL (Pulse Lengt). Relay PF: If using a pulse input metering pump, select Relays PF (Pulse Frequency) Aout: For using an analog control select Aout. Link te output signal Out1,2 of te PID controller to te desired output of te transmitter. Press te related button for Out 1 and Out 2 and select te corresponding number for te output troug pressing te according field. #1 means relay 1 or Aout 1, #2 means relay 2 our Aout 2 etc. NOTE: Take care if reed type relays are linked to te controlling function. Te reed type relays could be used for pulse frequency control devices and ligt duty applications. Te current is limited to 0.5 amps and 10 watts (see also capter 14.2 Electrical Specifications ). Do not connect to tis relays iger current devices. If te PID Mode is set to Relay PL, te Puls Lengt for te output signal of te transmitter can be adjusted. Press te button for Pulse Lengt and te M800 displays a keypad for modifying te value. Enter te new value in te unit seconds according to te table below and press e. NOTE: A longer pulse lengt will reduce wear on te solenoid valve. Te % on time in te cycle is proportional to te control output. 1 st Relay Position (Out 1) 2 nd Relay Position (Out 2) Pulse Lengt (PL) Conductivity Controlling concentrating reagent feed Controlling dilution water Sort (PL) provides more uniform feed. Suggested start point = 30 sec ph / ORP Feeding base Feeding acid Reagent addition cycle: sort PL provides more uniform addition of reagent. Suggested start point = 10 sec Dissolved Oxygen Reverse control action Direct acting control action Feed cycle time: sort PL provides more uniform feed. Suggested start point = 30 sec If te PID Mode is set to Relay PF, te Puls Frequency for te output signal of te transmitter can be adjusted. Press te button for Pulse Freq and enter te new value in te unit pulse / minute according to te table below. a NOTE: Set te pulse frequency to te maximum frequency allowed for te particular pump being used, typically 60 to 100 pulses / minute. Control action will produce tis frequency at 100% output. CAUTION: Setting te pulse frequency too ig may cause te pump to overeat.

Transmitter M800 80 1 st Relay Position = #3 2 nd Relay Position = #4 Pulse Frequency (PF) Conductivity Controlling concentrating cemical feed Controlling dilution water Max allowed for te pump used (typically 60 100 pulses / minute) ph / ORP Feeding base Feeding acid Max allowed for te pump used (typically 60 100 pulses / minute) Dissolved Oxygen Reverse control action Direct acting control action Max allowed for te pump used (typically 60 100 pulses / minute) If te PID Mode is set to Aout, te type for te analogue output signal of te transmitter can be selected. Press te corresponding button and coose between 4 to 20 ma and 0 to 20 ma for te output signal troug pressing te according field. For te assignment of te analogue output signal consider te table below. 1 st Analogout Position = Out 1 2 nd Analogout Position = Out 2 Conductivity Controlling concentrating cemical feed Controlling dilution water ph / ORP Feeding base Feeding acid Dissolved Oxygen Reverse control action Direct acting control action Press te input field for te parameter Gain to enter te gain of te PID controller as a unitless value. Gain represents te maximum value of te output signal of te PID controller in per cent (value 1 corresponds to 100%). Press te corresponding input field in te line of min to adjust te Parameter integral or reset time Tr (left button) and/or rate of derivate time Td (rigt button). NOTE: Gain, integral and derivate time are usually adjusted later by trial end error on process response. It is recommended to start wit te value Td = 0. Furter settings can be done by navigating to te next page of te menu. Te display sows PID controller curve wit input buttons for te corner points, setpoint and proportional limit for 100%. Press te button CP to enter te menu for adjusting te corner points. Page 1 sows te Corner Limit Low settings. Press te corresponding button to modify te value for te process parameter and te related output signal in %. Browse to page 2 and te Corner Limit Hig settings are displayed. Press te corresponding button to modify te value for te process parameter and te related output signal in %. Press te button SP to enter te menu for adjusting te setpoint and te dead band. Press te button Lim to enter te menu for adjusting te proportional limit ig and te proportional limit low, te range over wic control action is required.

Transmitter M800 81 8.12 Service PATH: H \ CONFIG \ Service Tis menu is a valuable tool for troublesooting and provides diagnostic functionality for te following items: Calibrate ToucPad, Set Analog Outputs, Read Analog Outputs, Read Analog Inputs, Set Relays, Read Relays, Read Digital Inputs, Memory, Display and optical DO sensors. Select troug te paramenter System te desired item for diagnostic by pressing te according field. Select troug Can te cannel for diagnostic information of te optical DO sensor. Tis menu is only displayed if an optical DO sensor is connected. Te provided diagnostic functionality can now be called up troug pressing te button Diagnostic. 8.12.1 Set Analog Outputs Te menu enables te user to set all analog outputs to any ma value witin te 0 22 ma range. Use te + and button to adjust te ma output signal. Te transmitter will adjust te output signals according to te measurement and configuration of te analog output signals. 8.12.2 Read Analog Outputs Te menu sows te ma value of te analog outputs. 8.12.3 Read Analog Inputs Te menu sows te ma value of te analog input signals. 8.12.4 Set Relay Te menu allows te user to open or close eac relay manually. If te menu will be exited, te transmitter will switc te relay according configuration. 8.12.5 Read Relay Te menu sows state of every relay. On indicates te relay is closed, Off indicates tat te relay is open. 8.12.6 Read Digital Inputs Te menu sows te state of te digital input signals.

Transmitter M800 82 8.12.7 Memory If Memory is selected te transmitter will perform a memory test of all connected transmitter boards and ISM sensors. 8.12.8 Display Te transmitter sows every 5 seconds red, green, blue, grey and dark grey display and returns afterwards to te menu Service. If witin te 5 seconds for every color te screen will be pressed te transmitter goes to te next step. 8.12.9 Calibrate ToucPad Press during te 4 calibrations steps always te center of te sown circle in te 4 corner of te display. Te transmitter sows te calibration result. 8.12.10 Cannel Diagnostic If errors as been occurred on te optical DO sensor, te corresponding messages are displayed. 8.13 Tecnical Service PATH: H \ CONFIG \ Tecnical Service Wit tis menu te calibration factors for te analog input and output signals can be sown. Select troug te parameter Options te signal(s), te calibration factors sould be displayed for.

Transmitter M800 83 8.14 User Management PATH: H \ CONFIG \ User Management Tis menu allows for te configuration of different user and administrator passwords, as well as setting up a list of allowed menus for te different users. Te administrator as rigts to access all menus. All default passwords for new transmitters are 00000. Press te input field in te line of Protection and select te desired kind of protection. Available are te following options Off: no protection Active: Activation of te Menu Screen (see capter 3.2.2 Activation Menu Screen ) as to be confirmed Password: Activation of te Menu Screen is only possible wit a password Press te according button for Option to select te profile for te administrator (Admin) or one of te users. NOTE: Te administrator as always te rigts to access all menus. For different users te access rigts can be defined. Press te input button for UserID to enter te name for te user or administrator. Te name for te user or administrator will be displayed if te protection via password is selected for activation of te Menu Screen. For canging te password of te selected user or administrator press te input field for Password. Enter te old password in te field Old PW, te new one in te field New PW and confirm it in te field confirm PW. Te default password is 00000000 for te administrator and all users. If te profile for an user as been selected an additional input field to define te access rigts will be displayed. To assign access rigts te according button for te menu as to pressed. In case of an assignment of te access rigts, is displayed in te related button. 8.15 Reset PATH: H \ CONFIG \ Reset) Depending on te transmitter version and configuration different options for a reset are available. See te following explanation to get more details about te different option to reset data and / or configurations. 8.15.1 System Reset Tis menu allows te reset of te transmitter M800 to te factory default settings (setpoints off, analog outputs off, passwords, etc.). Furtermore te calibration factors for analog in- and outputs, meter etc. can be set to te last factory values. Press te input field for Options and select System. Press te input field for Items (Configure button) and select te different parts of te configuration tat will be reset. If an item as been selected te Action menu is displayed. Press te Reset button.

Transmitter M800 84 8.15.2 Reset Sensor Calibration for Optical DO Sensors If an optical oxygen sensor is connected to te transmitter, a menu is available tat allows te reset of te calibration data of te sensor to te factory settings. Press te input field for Options and select te cannel te optical DO sensor is connected to. Press te input field for Items (Configure button). Select SensorCal to Factory troug pressing te according button. If SensorCal to Factory as been selected te Action menu is displayed. Press te Reset button. NOTE: Troug a reset of te calibration data te Adaptive Calibration Timer (see capter 9.1 imonitor ) will set to 0. NOTE: To ensure best measuring results, a new calibration of te sensor is recommended after a reset of te calibration data to factory settings. Depending on te application and sensor, te calibration sould be performed as a one point calibration or two point calibration (see capter 7.7 Calibration of Optical Oxygen Sensors ). 8.15.3 Reset Sensor Calibration for UniCond2e Sensors For UniCond2e sensors, te SensorCal (sensor calibration) and ElecCal (sensor electronics calibration) can be restored to factory settings. Press te input field for Options and select te cannel te UniCond2e sensor is connected to. Press te input field for Item (Configure button). Select SensorCal to Factory and/or ElecCal to Factory by cecking te adjacent box. Press e enter to accept te value. If an item as been selected te Action menu is displayed. Press te Reset button. Te M800 will bring up te confirmation dialog. Select Yes and te reset will be executed. Press No to go back to menu Reset witout performing te reset. 8.15.4 Reset Total Flow For models of te M800 transmitter tat accept flow signals te totalized flow value for eac cannel can be reset. Press te input field for Options and select te cannel for wic te totalized flow value sould be reset. Press te input field for Items (Configure button). Select Total Flow by cecking te adjacent box. Press e to accept te value. If Total Flow as been selected te Action menu is displayed. Press te Reset button. Te M800 will bring up te confirmation dialog. Select Yes and te reset will be executed. Press No to go back to menu Reset witout performing te reset.

Transmitter M800 85 9 ISM PATH: H \ ISM i imonitor Sensor Info Messages HW/SW Version ISM Diagnostics Log Book Calibration Data 9.1 imonitor PATH: H \ ISM \ imonitor Te imonitor gives an overview of te current state of te complete loop at a glance. Te imonitor of te first cannel is displayed on te screen. To browse troug te imonitor for te different cannels press > at line at te bottom of te display. Te values DLI, TTM and ACT as well as TTCal in combination wit UniCond2e sensors are sown as bar grap. If te values falls below 20% of te initial value te bar grap canges from green to yellow color. If te value falls below 10% te color canges to red. For Cond4e sensors te days in operation of te sensor are displayed. Furtermore SIP-, CIP-, AutoClave-, SAN-cycles as well as te values for Rg and Rref can be displayed and assigned to a colored button if te values are provided by te sensor. Te color for te related button of SIP-, CIP-, Autoclave- and SAN-cycles will cange from green to yellow if less ten 20% of te defined maximum quantity for te cycle remain and to red if less ten 10% remain. For configuration of te maximum quantity see capter 8.4 ISM Setup Te buttons for Rg and Rref cange to yellow if te conditions for a warning messages are fulfilled and to red if te conditions for a alarm message are fulfilled. Te buttons remain grey if te corresponding ISM alarm is not configured (see capter 8.6 ISM / Sensor Alarm ).

Transmitter M800 86 Depending on te measured parameter (connected sensor) te following data are available in te menu imonitor: ph: DLI, TTM, ACT, CIP, AutoClave, SIP*, Rg**, Rref** Amperometric O2: DLI, TTM, ACT, CIP, AutoClave, SIP*, Electrolyte*** Optical O2: DLI, ACT, CIP, AutoClave, SIP* O3: DLI, TTM, ACT, SAN Cond: Days in operation, TTCal****, CIP, SIP * if AutoClave as not been activated (see capter 8.6 ISM / Sensor Alarm ) ** if te alarm for Rg and/or Rref as been activated (see capter 8.6 ISM / Sensor Alarm ) *** if te alarm for Electrolyte Level Error as been activated (see capter 8.6 ISM / Sensor Alarm ) **** if UniCond2e sensor is connected 9.2 Messages PATH: H \ ISM \ Messages Te messages for occurred warnings and alarms are listed in tis menu. Up to 100 entries will be listed. 5 messages per page are listed. If more ten 5 messages are available additional pages can be accessed. Not acknowledged alarms or warming will be listed at te beginning. Ten te acknowledged but still existing alarm or warning are listed. At te end of te list te already solved warning and alarms are described. Between tis groups te messages are listed cronological. Te state of te warning or alarm is indicated troug te following signs: Red button blinking Alarm exists and as not been acknowledged Red button not blinking Alarm exists and as been acknowledged Yellow button blinking Warning exists and as not been acknowledged Yellow button not blinking Warning exists and as been acknowledged Grey button not blinking Warning or alarm as been solved A unacknowledged warning or alarm will be acknowledged by pressing te Info button in te corresponding line. For every message te corresponding Info button can be pressed. Message information, date and time te warning or alarm as been occurred and te status of te alarm or message are displayed. If warning or alarm as already been solved te pull up window for te message sows an additional button to clear te message i.e. to delete it from te message list.

Transmitter M800 87 9.3 ISM Diagnostics PATH: H \ ISM \ ISM Diagnostics Te transmitter M800 provides for all ISM sensors a diagnostic menu. Access te menu Cannel and select te cannel by pressing te related input field. Depending on te selected cannel and assigned sensor different diagnostic menus are displayed. See te following explanation to get more details about te different diagnostic menus. 9.3.1 ph/orp, Oxygen, O3 and Cond4e Sensors If an ph/orp, oxygen, O3 or Cond4e sensor is connected to te selected cannel, te diagnostic menus cycles, sensor monitor and max. temperature are available. Press te Cycle button and te information for CIP, SIP and Autoclave cycles of te connected sensor are displayed. Te displayed information sows te amount of cycles te sensor as been exposed and te max. limitation for te corresponding cycle as defined in te menu ISM Setup (see capter 8.4 ISM Setup ). NOTE: For Cond4e and optical DO sensors, wic are not autoclavable te menu AutoClave Cycles is not displayed. NOTE: For O3 sensors te SAN cycles are displayed. Press te Sensor Monitor button and te information for DLI, TTM and ACT of te connected sensor are displayed. Te values DLI, TTM and ACT are sown as bar grap. If te values falls below 20% of te initial value te bar grap canges from green to yellow color. If te value falls below 10% te color canges to red. NOTE: For Optical DO sensors TTM does not exist. NOTE: For Cond4e sensors te operating ours are displayed. Press te Max. Temperature button and te information about te maximum temperature, tat te connected sensor as ever seen, togeter wit a time stamp of tis maximum is displayed. Tis value is stored on te sensor and cannot be canged. During autoclaving te max. temperature is not recorded. NOTE: For Optical DO sensors te max. temperature of te board and of te spot are displayed. 9.3.2 UniCond2e Sensors For UniCond2e sensors, te following diagnostic Items can be viewed: Excursion Counters including Hig Temp and Hig Conductivity, Higest Measured including Higest Temp and Higest Cond, Cycles including CIP cycles and SIP Cycles.

Transmitter M800 88 9.4 Calibration Data PATH: H \ ISM \ Calibration Data Te transmitter M800 provides for all ISM sensors a calibration istory. Depending on te selected cannel and assigned sensor different data of te calibration istory are available. See te following explanation to get more details about te different data of te calibration istory. 9.4.1 Calibration Data for All ISM Sensors excluding UniCond2e If an ISM sensor - excluding UniCond2e - is connected to te selected cannel between te calibration data set of Actual (Actual adjustment): Tis is te actual calibration dataset wic is used for te measurement. Tis dataset moves to Cal1 position after te next adjustment. Factory (Factory calibration): 1.Adjust (First adjustment): Tis is te original dataset, determined in te factory. Tis dataset remains stored in te sensor for reference and cannot be overwritten. Tis is te first adjustment after te factory calibration. Tis dataset remains stored in te sensor for reference and cannot be overwritten Cal1(last calibration / adjustment): Tis is te last executed calibration / adjustment data set. Tis dataset moves to Cal2 and ten to Cal3 wen a new calibration / adjustment is performed. Afterwards, te dataset is not available anymore. Cal2 and Cal3 acting in te same way as Cal1. Cal2 and Cal3 can be cosen. For te selection of te calibration data set press te corresponding field. NOTE: Te amperometric oxygen sensor of THORNTON and te O3 sensor do not provide te data set Cal1, Cal2, Cal3 and 1.Adjust. Press te Cal Data button and te corresponding calibration data set is displayed. Furtermore te time stamp for te calibration and te User ID is listed. NOTE: Tis function requires te correct setting of date and time during calibration and / or adjustment tasks (see capter 8.10 System ). 9.4.2 Calibration Data for UniCond2e Sensors For UniCond2e sensors te following tree sets of calibration data may be selected: Actual (Actual calibration): Tis is te actual calibration dataset wic is used for te measurement. Factory (Factory calibration): Tis is te original dataset, determined in te factory. Tis dataset remains stored in te sensor for reference and cannot be overwritten.

Transmitter M800 89 Cal1(last calibration / adjustment): Tis is te last executed calibration / adjustment data set. Press te Cal Data button and te corresponding calibration data set is displayed. If te data set of te actual calibration as been cosen, on page 1, te date and time of te calibration, User ID, conductivity calibration constants, and reference conductivity values to calibrate are displayed. On page 2 te As-found conductivity values and te deviation from te reference are sown. On page 3 and 4 te same information for temperature is displayed. On page 5 te calibration cycles applied to te sensor and te next calibration date for conductivity (C) and temperature (T) are displayed. If te data set of te factory calibration as been cosen, on page 1, te date and time of te calibration, te conductivity calibration constants, and reference conductivity values used to calibrate are displayed. On page 2, te same values for temperature are sown. Press e to exit te menu Cal Data. NOTE: Tis function requires te correct setting of date and time during calibration and / or adjustment tasks (see capter 8.10 System ). 9.5 Sensor Info PATH: H \ ISM \ Sensor Info Te model, ardware and software version, last calibration date as well as te product and serial number of te ISM sensors, tat are connected to te M800 transmitter can be displayed on te screen. Enter Sensor Info. Te data of te first cannel, a sensor is connected, are displayed on te screen. Press te input field in te line of Can. To get te data of te desired sensor select te corresponding cannel troug pressing te according field. Te data Model, Cal Date (date of last adjustment), S/N (serial number), P/N (product number), SW Ver (software version) and HW Ver (ardware version) of te select sensor are displayed. NOTE: If a UniCond2e sensor is connected te following data is also displayed, Temp Sens. (temperature sensor) Electrode (electrode material), Body/Ins Mat: (body and/or insulator material), Inner: (inner electrode material), Outer (outer electrode material) Fitting: (fitting material), Class VI (FDA Class VI material). To exit te menu Sensor Info press e. To return to te Menu Screen press H.

Transmitter M800 90 9.6 HW / SW Version PATH: H \ ISM \ HW/SW Version Te ardware and software version as well as te product number and serial number of te M800 transmitter itself or te different boards, tat are plugged can be displayed on te screen. Te data of te transmitter are displayed on te screen. Press te input field in te line of M800. To select te data of te desired board or te transmitter itself press te corresponding field. Te data S/N (serial number), P/N (product number), SW Ver (software version) and HW Ver (ardware version) of te select board or transmitter are displayed. 9.7 Log Book PATH: H \ ISM \ Sensor Info Te transmitter M800 provides a log book wit 250 entries. Te log book is managed as an ring buffer, i.e. entry 251 causes te erasing of entry no. 1 etc.. Te entries sow time stamp and action.

Transmitter M800 91 10 Wizards PATH: H \ WIZARD Te transmitter M800 allows to set up to 4 wizards / favorites to ensure a quick access for often used functions. 10.1 Set Wizard PATH: H \ WIZARD \ Set Wizard Te main menus are displayed. Coose te menu, tat contains te function, wic sould be defined as a wizard (favorite), e.g. ISM troug pressing te corresponding arrow c in te same line. Coose te function, tat sould be set as an wizard by pressing te according button. A function, wic is set as a wizard sows S icon. NOTE: To delete te link to wizards, press te according button for te function. Te wizard S icon is not sown any more. 10.2 Access to Wizards Access te menu Set Wizards. Te wizards defined are listed on tis page. Press te corresponding arrow c for te function in te same line.

Transmitter M800 92 11 Maintenance 11.1 Front panel cleaning Clean te front panel wit a damp soft clot (water only, no solvents). Gently wipe te surface and dry wit a soft clot.

Transmitter M800 93 12 Troublesooting If te equipment is used in a manner not specified by Mettler-Toledo, te protection provided by te equipment may be impaired. Review te table below for possible causes of common problems: Problem Display is blank. Incorrect measurement readings. Measurement readings not stable. Possible Cause No power to M800. Blown fuse. Hardware failure. Sensor improperly installed. Incorrect units multiplier entered. Temperature compensation incorrectly set or disabled. Sensor or transmitter needs calibration. Sensor or patc cord defective or exceeds recommended maximum lengt. Hardware failure. Sensors or cables installed too close to equipment tat generates ig level of electrical noise. Recommended cable lengt exceeded. Averaging set too low. Sensor or patc cord defective. Displayed red or yellow bar grap is flasing. Setpoint is in alarm condition (setpoint exceeded). Alarm as been selected (see capter 8.6 ISM / Sensor Alarm ) and occurred. Cannot cange menu settings. User locked out for security reasons. 12.1 Warning- and Alarm Indication 12.1.1 Warning Indication It will be indicated troug a yellow bar grap on te display if tere are conditions, tat ave generate a warning. If te corresponding cannel is sown on te current Menu Screen or Start Screen (see capter 3.2 Display ) te yellow bar grap is displayed in te line wit te name of te cannel. A warning message will be recorded and can be selected troug te menu Messages (PATH: H\ISM\Messages; see also capter 9.2 Messages ). If a cannel, tat is not sown on te current Menu Screen or Start Screen is concerned by a warning, a yellow bar grap is displayed on te ead line of te display. A warning message will be recorded and can be selected troug te menu Messages (PATH: H\ISM\Messages; see also capter 9.2 Messages ). NOTE: If te warning as not been acknowledged te bar grap is blinking. If te warning as already been acknowledged, te bar grap will be displayed continuously. See also capter 9.2 Messages. In case of an unacknowledged warning or alarm te transmitter screen will not be dimmed or switced off even if te ligt time as been elapsed (see capter 8.8 Display Setup NOTE: If at te same time for a cannel an alarm and a warning sould be indicated, te indication of te alarm will ave iger priority. Te alarm will be indicated (see capter 12.1 Warning and Alarm Indication ) on te Menu Screen or Start Screen, wile te warning will not be sown.

Transmitter M800 94 Pressing te yellow bar grap on te Menu Screen will lead to te Messages. Refer to capter 9.2 Messages for te description of te functionality for tis menu. NOTE: Te detection of some warnings can be activated/deactivated troug (de)activating te corresponding alarm. Refer terefore to capter 8.6 ISM / Sensor Alarm 12.1.2 Alarm Indication It will be indicated troug a red bar grap on te display if tere are conditions, tat ave generate an alarm. If te corresponding cannel is sown on te current Menu Screen or Start Screen (see capter 3.3 Display ) te red bar grap is displayed in te line wit te name of te cannel. An alarm message will be recorded and can be selected troug te menu Messages (PATH: H\ISM\Messages; see also capter 9.2 Messages ). If a cannel, tat is not sown on te current Menu Screen or Start Screen is concerned by an alarm, a red bar grap is displayed on te ead line of te display. An alarm message will be recorded and can be selected troug te menu Messages (PATH: H\ISM\Messages; see also capter 9.2 Messages ). NOTE: If te alarm as not been acknowledged te bar grap is blinking. If te alarm as already been acknowledged, te bar grap will be displayed continuously. See also capter 9.2 Messages. In case of an unacknowledged warning or alarm te transmitter screen will not be dimmed or switced off even if te ligt time as been elapsed (see capter 8.8 Display Setup NOTE: If at te same time for a cannel an alarm and a warning sould be indicated, te indication of te alarm will ave iger priority. Te alarm will be indicated (see capter 12.1 Warning and Alarm Indication ) on te Menu Screen or Start Screen, wile te warning will not be sown. Pressing te red bar grap on te Menu Screen will lead to te Messages. Refer to capter 9.2 Messages for te description of te functionality for tis menu. NOTE: Te detection of some alarms can be activated/deactivated. Refer terefore to capter 8.6 ISM / Sensor Alarm NOTE: Alarms wic are caused by a violation of te limitation of a setpoint or te range (PATH: H\CONFIG\Set Points; see also capter 8.3 Set Points ) will also be indicated on te display and recorded troug te menu Messages (PATH: H\ISM\Messages; see also capter 9.2 Messages ).