Turbine Flow Sensors. Activa, Ultima, Classic and Quad. User Manual. SEN-UM EN-02 (March 2015)

Transcription

1 Turbine Flow Sensors ctiva, Ultima, Classic and Quad SEN-UM EN-02 () User Manual

2 Turbine Flow Sensors, ctiva, Ultima, Classic and Quad Page 2

3 User Manual CONTENTS Introduction Operating Principle Installation Installation Recommendations Electrical Connections for Standard Magnetic Pickup Electrical Connections for IFC (Intelligent Frequency Converter) Electrical Connections for Optional Pressure and Temperature Sensors Operation General Flow Sensors with IFC Option Maintenance Troubleshooting Dimensions ctiva Series Ultima Series Classic Series Quad Series Flow vs. Pressure Drop Charts ctiva and Ultima Series Classic Series Quad Series Specifications ctiva and Ultima Sensor rrays Classic Flow Sensor Quad Flow Sensors Model Numbers ctiva and Ultima Flow Sensors Classic Flow Sensors Quad Flow Sensors Page 3

4 Page 4 SEN-UM EN-02

5 Introduction INTRODUCTION Flo-tech turbine flow sensors measure the flow rate of hydraulic fluid and compatible liquids. uilt to withstand rigorous hydraulic applications, these flow sensors are available in anodized aluminum and zinc plated Stressproof steel bodies. Port types vary by body material, but include a choice of SE, SPP, Code 6 and Code 62, 4-bolt flanged options. Typical applications for the turbine flow sensors include: Fluid characteristic measurement on test stands Stationary hydraulic system monitoring Feedback for hydraulic system control dvance warning of impending component failure Mobile hydraulic system diagnosis Flo-tech offers four different flow sensor models. Each of these models is available in a wide selection of flow ranges and port sizes. ctiva Sensor rray Classic Flow Sensor Features: Four flow ranges Four port sizes ccuracy of ±% 32 cst Pressures up to 5800 psi (400 bar) Temperatures up to 300 F (50 C) 4 20 m or 0 5V DC output for flow 4 20 m output for pressure and temperature Ultima Sensor rray Features: Eight flow ranges Eight port sizes ccuracy of ±% full scale Pressures up to 6000 psi (44 bar) Temperatures up to 300 F (50 C) Frequency output for flow Quad Flow Sensor Features: Four flow ranges Four port sizes ccuracy of ±% full scale Pressures up to 5800 psi (400 bar) Temperatures up to 300 F (50 C) Frequency output for flow 4 20 m output for pressure and temperature Features: Four flow ranges Two port sizes ccuracy of ±% full scale Pressures up to 6000 psi (44 bar) Temperatures up to 300 F (50 C) Frequency output for flow SEN-UM EN-02 Page 5

6 Operating Principle OPERTING PRINCIPLE Housing 6 Signal Converter (analog output) 2 Turbine Rotor 7 Pressure Port dapter 3 Rotor Supports 8 Temperature Port dapter 4 Lock Nut 9 Retaining Rings 5 Magnetic Pickup (frequency output) Turbine flow sensors measure the flow rate of hydraulic fluid and compatible liquids. s fluid flows through the sensor it turns the turbine rotor, and as the turbine blades pass the magnetic pickup a frequency signal is generated. This frequency signal is proportional to the flow rate and can be transmitted to Flo-tech s digital displays or converted to an analog output. Optional sensors allow measurement of pressure and temperature. Page 6 SEN-UM EN-02

7 Installation INSTLLTION THIS PRODUCT SHOULD E INSTLLED ND SERVICED Y TECHNICLLY QULIFIED PERSONNEL TRINED IN MINTINING INDUSTRIL CLSS FLOW INSTRUMENTTION ND PROCESSING EQUIPMENT. RED INSTRUCTIONS THOROUGHLY EFORE INSTLLING THE FLOW SENSOR. IF YOU HVE NY QUESTIONS REGRDING PRODUCT INSTLLTION OR MINTENNCE, CLL YOUR LOCL SUPPLIER OR THE FCTORY FOR MORE INFORMTION. DO NOT USE MLE PIPE THREDS (NPT) INTO SE STRIGHT THRED PORTS. USING MLE PIPE THREDS (NPTF) WITH FLOW SENSOR POSSESSING SE STRIGHT THRED O-RING PORTS WILL NOT CRETE PROPER SEL ND IS POTENTILLY DNGEROUS. PIPE THREDS INSERTED INTO N SE STRIGHT THRED PORT ONLY LLOW THE ENGGEMENT OF ONE OR TWO THREDS. NO MOUNT OF TIGHTENING OR THRED SEL WILL STOP THE LEKING OR MKE THE INSTLLTION SFE. FILURE TO FOLLOW THESE INSTRUCTIONS COULD RESULT IN SERIOUS PERSONL INJURY OR DETH ND/OR DMGE TO THE EQUIPMENT. Installation Recommendations The in-line flow sensor is a simple device to install. However, the following measures are recommended for reliable, trouble-free operation:. Provide at least 0 port diameters of upstream straight pipe with no obstructions to the flow sensor and at least 5 diameters of downstream pipe. The pipe should be of the same diameter as the nominal port size. " PORT (25.4 mm) END VIEW 0 PORT DIMETERS 0" (254 mm) IN 5 PORT DIMETERS 5" (27 mm) Example: n FSC-000 has a in. (25.4 mm) port. The unobstructed upstream length should be at least 0 in. (254 mm) and the downstream length should be at least 5 in. (27 mm). 2. Choose a position for the flow sensor that is not at the lowest level in the system. Placing the flow sensor at a higher elevation in the system will avoid collection of debris, sediment and dirt in the flow sensor. 3. Use a filter. ll applications should be filtered to at least 40 micron. 4. Do not install a flow sensor directly in-line with the outlet of a pump, as pressure pulsations can react with the turbine. Install the sensor after another component, observing the 0 port diameter rule. 5. Do not adjust the magnetic pickup on the flow sensor. This is calibrated at the factory. Further adjustment will cause a decrease in performance or damage to the sensor. 6. Do not exceed the working temperature range of F ( C). Higher temperatures will damage the magnetic pickup and lower temperatures will limit the rotation of the turbine. SEN-UM EN-02 Page 7

8 Installation Electrical Connections for Standard Magnetic Pickup Standard Magnetic Pickup with Frequency Output, 2-pin Connector (RED) + (LCK) Cable ssembly F ft F ft (LCK) (RED) + (WHITE) N.C. Magnetic Pickup Male Connector Top of F2832 Cable Standard Magnetic Pickup with Frequency Output, 3-pin Connector 2 3 (WHITE) N.C. 2 (LCK) 3 (RED) Cable ssembly F ft F ft (LCK) (RED) + (WHITE) N.C. Magnetic Pickup Male Connector Top of F6234 Cable Page 8 SEN-UM EN-02

9 Installation Electrical Connections for IFC (Intelligent Frequency Converter) 3 IFC with 4 20 m Output (F to I), 5-pin Connector F to I Converter Male Connector m 4 20 m N.C. N.C. N.C. PIN PIN 2 PIN 3 PIN 4 PIN 5 RED LCK WHITE m (Sink) 4 20 m (Source) No Connection 2 Cable Connector 4 5 Cable ssembly F ft F ft (RED) + Loop (LCK) Loop (WHITE) N.C. The 4 20 m output can drive auxiliary devices (resistive loads) such as displays, recorders and computers, provided that the voltage supplied by the power supply is adequate. Devices must be wired in series with the F to I converter and power supply. The voltage drop across the load(s) and the 6V DC minimum needed to drive the F to I converter determine the minimum voltage required from the power supply. Determine the necessary voltage required to adequately drive the F to I converter and auxiliary device(s). The F to I converter acts as a current controlling device keeping the current output the same even if the power supply voltage fluctuates or the load resistance changes. The current varies only with respect to the flow rate from the turbine flow sensor, as long as the voltage drop across the F to I converter is at least 6V DC. The load(s) in the circuit will generally have some electrical resistance, 00 Ohms for this example. The 4 20 m loop current will produce a voltage drop across each load. The maximum voltage drop across a load(s) will exist when the loop current is 20 m. The power supply must provide enough voltage for the load(s) plus the 6V DC minimum insertion loss of the F to I converter. Example Sufficient Power Supply Voltage F to I Converter 50 Ohms 4 20 m 00 Ohms 50 Ohms 24V DC Power Supply Total Load Resistance = 300 Ohms t 20 m loop current, the voltage drop across the load(s) is 6 volts: 300 Ohms 20 m = 6000 mv or 6 volts Subtract 6 volts from the 24 volt source to determine that 8 volts is available to power the F to I converter. The 8 volts is within the specified 0 30 volt range and is sufficient to power the F to I converter. Example 2 Insufficient Power Supply Voltage F to I Converter 4 20 m 000 Ohms 24V DC Power Supply Total Load Resistance = 000 Ohms t 20 m loop current, the voltage drop across the load(s) is 4 volts: 000 Ohms 20 m = 20,000 mv or 20 volts Subtract 20 volts from the 24 volt source to determine that 4 volts is available to power the F to I converter. The 4 volts is below the specified 0 30 volt range and is not adequate to power the F to I converter. If for example, the power supply voltage was 30 volts instead of 24 volts, the voltage available to power the F to I converter would be 0 volts and within the specified range. SEN-UM EN-02 Page 9

10 Installation Loop Load (Ohm's) Operate in the Shaded Region Supply Voltage (VDC) IFC with 0 5V DC Output (F to V), 5-pin Connector F to V Converter Male Connector 0 26V DC SIGNL GND N.C. N.C. PIN PIN 2 PIN 3 PIN 4 PIN 5 RED LCK WHITE 0 26V DC SIGNL 0V Cable Connector 5 Cable ssembly F ft F ft (RED) 0 26V DC (LCK) SIGNL (WHITE) 0V Electrical Connections for Optional Pressure and Temperature Sensors Pressure Sensor, Optional, 3-pin Connector 3 2 N/C (WHITE) 2 Signal Output (LCK) 3 + Voltage (RED) 2 3 Cable ssembly F ft F ft (LCK) (RED) + (WHITE) N.C. Pressure Sensor Male Connector Top of F6234 Cable Temperature Sensor, Optional 3-pin Connector 2 3 Case Ground (WHITE) 2 Signal Output (LCK) 3 + Voltage (RED) 2 3 Cable ssembly F ft F ft (LCK) (RED) + (WHITE) N.C. Temperature Sensor Male Connector Top of F6234 Cable Page 0 SEN-UM EN-02

11 Operation OPERTION General DO NOT EXCEED LLOWLE PRESSURE RTINGS. PRESSURE IN EXCESS OF THE MXIMUM LLOWLE RTINGS MY CUSE THE TURINE ODY TO FIL. FILURE TO FOLLOW THESE INSTRUCTIONS COULD RESULT IN SERIOUS PERSONL INJURY OR DETH ND/OR DMGE TO THE EQUIPMENT.. llow fluids to warm to operating temperatures before critical measurements are taken. 2. Maintain a flooded condition in the flow sensor at all times. ir and turbulence will result in erroneous readings. 3. Do not exceed the working temperature range of F ( C). Higher temperatures will damage the magnetic pickup and lower temperatures will limit the rotation of the turbine. Flow Sensors with IFC Option s soon as power is applied, the IFC will begin to output an analog value representative of the measured frequency from the turbine meter. See the wiring diagram that corresponds to the IFC being used. MINTENNCE LWYS DISCONNECT THE PRIMRY POWER SOURCE EFORE INSPECTION OR SERVICE. FILURE TO FOLLOW THESE INSTRUCTIONS COULD RESULT IN SERIOUS PERSONL INJURY OR DETH ND/OR DMGE TO THE EQUIPMENT.. schedule for maintenance checks should be determined based on environmental conditions and frequency of use. Inspect the sensors at least once a year. 2. Perform visual, electrical and mechanical checks on all components. a. Visually check for undue heating evidenced by discoloration of wires or other components, damaged or worn parts, or excessive corrosion of the device. b. Electrically check to make sure that all connections are clean and tight and that the device is operating properly. SEN-UM EN-02 Page

12 Troubleshooting TROULESHOOTING Issue Possible Cause Remedy Sensor indicates higher than actual flow rate Cavitation Debris on straightening section uild-up of foreign material on sensor bore Gas in liquid Increase back pressure Clean sensor Clean sensor Install gas eliminator ahead of sensor Sensor indicates lower than actual flow rate Erratic indications on readout Readout shows flow when pumps are not running No flow indication at any flow rate Erratic indications at low flows, but good indications at high flows System works except readings are lower than expected No current output nalog output reads a constant reading all the time nalog output is not stable Debris on turbine Worn bearing ny of the above Ground loop problem Turbulence in fluid stream Mechanical vibration or pump dither causes turbine to oscillate even though there is no flow Foreign material stopping turbine rotation Damaged turbine and/or bearing Magnetic pickup stopping turbine rotation Magnetic pickup shorted or open Clean sensor and add filter Have sensor serviced and add filter ny of the above e sure only one system ground is present. Reroute cables away from electrical noise Redo plumbing per instructions Isolate flow sensor Clean sensor and add filter Have sensor serviced Readjust magnetic pickup away from turbine Have magnetic pickup replaced Foreign material wrapped around turbine Clean sensor and add filter Flow is being bypassed System has a leak Low or missing supply voltage roken / disconnected wires Incorrect wiring polarity Electrical noise in vicinity Damaged electronics Electrical noise in vicinity Entrained gas in liquid Damaged meter rotor Foreign matter lodged in turbine Repair or replace faulty valves Find and repair any system leaks Check polarity of the current loop connections for proper orientation Make sure receiving device is configured to provide loop current Make sure there is flow in the system Verify that the rotor inside the turbine meter turns freely Check shield Remove noise producing device External noise is being picked up by the sensor. Keep all C wires separate from DC wires. Check for radio antenna in close proximity. This usually indicates a weak signal. Clean meter Recalibrate meter Page 2 SEN-UM EN-02

13 Dimensions DIMENSIONS ctiva Series Signal Converter Pressure Port dapter Housing Magnetic Pickup Temperature Port dapter D Series C D Weight lbs (kg) F6202 / F (3.2) 4.72 (20.0).47 (37.3) 5.74 (45.6).60 (0.73) C F6204 / F (37.6) 5.08 (29.0).80 (45.7) 6.04 (53.0).90 (0.86) F6206 / F (50.3) 5.87 (49.0) 2.20 (56.0) 6.50 (64.0) 2.80 (.27) F6208 / F (62.5) 6.8 (73.0) 2.48 (63.0) 6.74 (7.0) 4.20 (.9) Ultima Series Pressure Port dapter Housing Magnetic Pickup Temperature Port dapter C D Series C D Weight lbs (kg) F6202 / F (3.2) 4.72 (20.0).47 (37.3) 5.74 (45.6).60 (0.73) F6204 / F (37.6) 5.08 (29.0).80 (45.7) 6.04 (53.0).90 (0.86) F6206 / F (50.3) 5.87 (49.0) 2.20 (56.0) 6.50 (64.0) 2.80 (.27) F6208 / F (62.5) 6.8 (73.0) 2.48 (63.0) 6.74 (7.0) 4.20 (.9) Classic Series FSC Magnetic Pickup FS Housing C D E Series C D W/Mag E W/IFC Weight lbs (kg) FSC (32) 5.00 (27).50 (38) 3.9 (99) 5.48 (39).25 (0.57) FSC (5) 6.50 (65) 2.00 (5) 4.6 (06) 5.84 (48) 2.75 (.25) Magnetic Pickup FSC (5) 6.50 (65) 2.00 (5) 4.25 (08) 5.93 (5) 2.87 (.30) Housing C D E FSC (64) 6.50 (65) 2.00 (5) 4.34 (0) 5.97 (52) 3.25 (.48) FSC (64) 6.50 (65) 2.00 (5) 4.34 (0) 5.97 (52) 3.25 (.48) FS (02) 7.00 (78) 3.00 (76) 4.94 (26) 6.43 (65) 7.75 (3.52) FSD Magnetic Pickup Housing D E FS (02) 7.00 (78) 3.00 (76) 5.0 (30) 6.59 (67) 7.40 (3.36) FSD (54) 7.50 (90) 2.25 (54) 4.50 (4) 5.7 (3) 6.2 (2.78) FSD (64) 7.50 (90) (64) 4.85 (23) 5.34 (35) 6.75 (3.06) FSD (79) 8.25 (209) 3.25 (79) 5.39 (37) 5.45 (38) 8.55 (3.88) C SEN-UM EN-02 Page 3

14 Flow vs. Pressure Drop Charts Quad Series Magnetic Pickup (2) Housing C D Series C D W/Mag E W/Mag Weight lbs (kg) FSC (5) 6.50 (65) 2.00 (5) 4.6 (06) 4.05 (02) 2.75 (.25) FSC (5) 6.50 (65) 2.00 (5) 4.25 (08) 4.05 (02) 2.87 (.30) E FSC (64) 6.50 (65) 2.00 (5) 4.34 (0) 4.59 (7) 3.25 (.47) FSC (64) 6.50 (65) 2.00 (5) 4.34 (0) 4.59 (7) 7.75 (3.52) FLOW VS. PRESSURE DROP CHRTS ctiva and Ultima Series 00 PRESSURE DROP PSI 0 F6202 F6206 F6208 F6204 PRESSURE DROP R F6222 F6226 F6228 F FLOW GPM FLOW LPM Classic Series PRESSURE DROP PSI 50 0 FSC-375 FSC-500 FSC-750 FSC-000 FSC-005 FS-250 FSD-005 FS-500 FSD-500 FSD-2000 PRESSURE DROP R 4 FSC-375 FSC-500 FSC-750 FSC-000 FSC-005 FS-250 FSD-005 FS-500 FSD-500 FSD FLOW GPM FLOW LPM Quad Series PRESSURE DROP PSI 50 0 FSC-2005 FSC-2075 FSC-200 FSC-250 PRESSURE DROP R 4 FSC-2005 FSC-2075 FSC-200 FSC FLOW GPM FLOW LPM Page 4 SEN-UM EN-02

15 Specifications SPECIFICTIONS ctiva and Ultima Sensor rrays Material Performance Electrical Calibration Housing 603-T65 nodized aluminum Turbine rotor T46 Stainless steel Rotor supports 606-T6 luminum C360 rass for /4 in. models Rotor shaft T303 Stainless steel all bearings 440 C Stainless steel Hub cones 606-T6 luminum alloy Retaining rings 606-T6 luminum alloy dapters/plugs 606-T6 nodized aluminum Seals una N standard Viton and EPR optional Magnetic pickup ody T303 Stainless Steel Nut T303 Stainless Steel IFC (Intelligent Frequency ody 606-T6 luminum, nickel plate Converter) ctiva only Connector rass, nickel plate Temperature probe 2L4 Steel, electroless nickel finish Pressure Sensor Case 300 Series stainless steel Diaphragm 7-4 PH stainless steel Ports SE Straight thread O-ring boss, female, J926/; ISO79 (SPP) Flow accuracy ctiva ±% of 32 cst Ultima ±% of full scale Repeatability ±0.2% Pressure rating 5800 psi (400 bar) maximum, 5000 psi (345 bar) maximum for -/4 in. models Turbine response 200 ms Fluid temperature F ( C) mbient temperature 4 3 F ( C) Power Loop-powered, 6V insertion loss max, 0 30V DC supply Frequency Hz Mag Inputs Trigger sensitivity 30 mv p-p pickup Frequency measure accuracy ±% 4 20 m Resolution :4000 nalog out Temp Drift 50 ppm/ C max ctiva mbient temp F ( C) Environmental Humidity 0 90% non-condensing Power 0 26V DC Frequency Hz Mag Inputs Trigger sensitivity 30 mv p-p pickup Frequency measure accuracy ±% 0 5V DC Resolution :4000 nalog out Temp. drift 50 ppm/ C max Environmental mbient temp F ( C) Humidity 0 90% non-condensing Ultima Magnetic Self-generating alternating pulse; 00 mv RMS (00 Hz) minimum. Pickup F6202 & F6222 only 0 mv RMS (200Hz) minimum Flow sensors are calibrated with specific gravity, 40 SUS (32 cst) hydraulic oil. Standard calibration is done using 3-points and is traceable to NIST, ISO 900/NSI Z540- & MIL-STD SEN-UM EN-02 Page 5

16 Specifications Classic Flow Sensor Materials Performance Electrical Calibration Housing FSC, FS 603-T65 nodized aluminum FSD Stressproof steel, zinc plated Turbine rotor T46 Stainless steel FSC-375, 500, 750 C360 rass Rotor supports FSC-000, T6 luminum FSD Tungsten carbide Rotor shaft FSC, FS T303 Stainless steel FSD Tungsten carbide earings FSC, FS 440 C Stainless steel ball bearings FSD Tungsten carbide Hub cones FSC, FS 606-T6 luminum alloy Retaining rings FSC T303 Stainless steel FSC-500, 750, 000, 005; FS; FSD Steel, zinc plate dapters/plugs 606-T6 nodized aluminum Seals una N standard, Viton and EPR optional Magnetic pickup ody T303 Stainless Steel Nut T303 Stainless Steel IFC (Intelligent ody 606-T6 luminum, nickel plate Frequency Converter): Connector rass, nickel plate Ports: SE Straight thread O-ring boss, female, J926/; Code 6 and Code 62: SE J58 Flow accuracy Standard magnetic pickup ±% of full scale IFC converter option ±% of 32 cst Repeatability ±0.2% Pressure rating FSC, FS 5000 psi (345 bar) maximum, FSD 6000 psi (44 bar) maximum Pressure drop See Flow vs. Pressure Drop Charts on page 4 Turbine response 200 ms Fluid temperature F ( C) mbient temperature 4 3 F ( C) Magnetic Pickup Self-generating alternating pulse; 00 mv RMS (00 Hz) minimum. FSC-375 only 0 mv RMS (200 Hz) minimum Power Loop-powered, 6V insertion loss max 0 30V DC supply Frequency Hz Inputs Mag pickup Trigger sensitivity 30 mv p-p Frequency measure accuracy ±% 4 20 m 4 20 m Resolution :4000 nalog out current loop Temp. drift 50 ppm/ C max mbient temp F ( C) Environmental IFC Humidity 0 90% non-condensing Converter Power 0 26V DC Frequency Hz Inputs Mag pickup Trigger sensitivity 30 mv p-p Frequency measure accuracy ±% 0 5V DC Resolution :4000 nalog out 0 5V DC Temp drift. 50 ppm/ C max Environmental mbient temp F ( C) Humidity 0 90% non-condensing Flow sensors are calibrated with specific gravity, 40 SUS (32 cst) hydraulic oil. Standard calibration is done using 3-points and is traceable to NIST, ISO 900/NSI Z540- & MIL-STD Page 6 SEN-UM EN-02

17 Specifications Quad Flow Sensors Material Performance Housing Turbine rotor Rotor supports Rotor shaft earings Hub cones Retaining rings Seals Magnetic pickup 603-T65 nodized aluminum T46 Stainless steel 606-T6 luminum T303 Stainless steel 440 C Stainless steel ball bearings 606-T6 luminum alloy Steel, zinc plate una N standard, Viton and EPR optional ody Nut T303 Stainless Steel T303 Stainless Steel Ports SE Straight thread O-ring boss, female, J926/ Flow accuracy Repeatability ±0.2% Pressure rating ±% of full scale 5000 psi (345 bar) maximum Pressure drop See Flow vs. Pressure Drop Charts on page 4 Turbine response 200 ms Fluid temp F ( C) mbient temp. 4 3 F ( C) Electrical Magnetic Pickup Self-generating alternating pulse; 00 mv RMS (00 Hz) minimum Calibration Flow sensors are calibrated with specific gravity, 40 SUS (32 cst) hydraulic oil. Standard calibration is done using 3-points and is traceable to NIST, ISO 900/NSI Z540- & MIL-STD SEN-UM EN-02 Page 7

18 Model Numbers MODEL NUMERS ctiva and Ultima Flow Sensors Nominal Port Size Flow Rate Model SE gpm F6202 SE gpm F6204 SE gpm F6206 SE gpm F6208 G / lpm F6222 G 3/ lpm F6224 G lpm F6226 G -/ lpm F6228 * Not available with Models F6208 or F6228 Example F6204-I-T6 = SE 2 ports, 2 40 gpm flow range una N seals, Temperature sensor 6000 psi (44 bar) pressure sensor Classic Flow Sensors IFC Converter or Mag Pickup ctiva Models: I 4 20 m Out V 0 5V DC Out Ultima Models: F Frequency Out Sensor Ports Seals Temperature Pressure 000 psi T with Sensor psi N /4 NPT(F) psi una N Plugged psi * V Viton S SE 2 Plugged N /4 NPT(F) E EPR G G /4 Plugged Plugged D SE 4 Plugged S SE 2 Plugged F G /4 Plugged F6208-FV-TN = SE 20 ports, 8 60 gpm flow range Viton seals, Temperature sensor /4 NPT (F) plugged pressure port Nominal Port Size Flow Rate Series Model with Frequency Out Model with 4 20 m Out Model with 0 5V DC Out SE gpm FSC-375 F2945-SCM F2945-SCI F2945-SCV SE 2 5 gpm FSC-500 F2082-SCM F2082-SCI F2082-SCV SE gpm FSC-750 F2083-SCM F2083-SCI F2083-SCV SE gpm FSC-000 F2084-SCM F2084-SCI F2084-SCV SE gpm FSC-005 F2084-SCM8 F2084-SCI8 F2084-SCV8 SE 20, Code gpm FS-250 F2085-SM F2085-SI F2085-SV SE 24, Code gpm FS-500 F2086-SM F2086-SI F2086-SV SE 20, Code gpm FSD-250 F2085-SCDM F2085-SCDI F2085-SCDV SE 24, Code gpm FSD-500 F2086-SDCM F2086-SCDI F2086-SCDV SE 32, Code gpm FSD-2000 F2998-SCDM F2998-SCDI F2998-SCDV Quad Flow Sensors Nominal Port Size Flow Rate Series Model SE 2 5 gpm FSC-2005 F2082-SCQ4 SE gpm FSC-2075 F2083-SCQ4 SE gpm FSC-200 F2084-SCQ4 SE gpm FSC-250 F2085-SCQ4 Page 8 SEN-UM EN-02

19 User Manual INTENTIONL LNK PGE SEN-UM EN-02 Page 9

20 Turbine Flow Sensors, ctiva, Ultima, Classic and Quad Control. Manage. Optimize. FLO-TECH is a registered trademarks of adger Meter, Inc. Other trademarks appearing in this document are the property of their respective entities. Due to continuous research, product improvements and enhancements, adger Meter reserves the right to change product or system specifications without notice, except to the extent an outstanding contractual obligation exists. 205 adger Meter, Inc. ll rights reserved. The mericas adger Meter 4545 West rown Deer Rd PO ox Milwaukee, WI México adger Meter de las mericas, S.. de C.V. Pedro Luis Ogazón N 32 Esq. ngelina N 24 Colonia Guadalupe Inn CP 0050 México, DF México Europe, Middle East and frica adger Meter Europa GmbH Nurtinger Str Neuffen Germany Europe, Middle East ranch Office adger Meter Europe PO ox Dubai Silicon Oasis, Head Quarter uilding, Wing C, Office #C209 Dubai / UE Czech Republic adger Meter Czech Republic s.r.o. Maříkova 2082/ rno, Czech Republic Slovakia adger Meter Slovakia s.r.o. Racianska 09/ ratislava, Slovakia sia Pacific adger Meter 80 Marine Parade Rd 2-06 Parkway Parade Singapore China adger Meter Hangzhong Road Minhang District Shanghai China Legacy Document Number: 05-TUR-UM-0094