Model 8800C. Vortex Flowmeter with FOUNDATION Fieldbus FOUNDATION FIELDBUS CAPABILITY. Product Data Sheet

Transcription

1 Product Data Sheet Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus FOUNDTION FIELDBUS CPBILITY Interoperable with other FOUNDTION fieldbus instruments bility to control from anywhere 60% reduced wiring costs... compared to traditional smart transmitters 3060% reduced time investment (installation, commissioning, operation, and maintenance)... compared to traditional smart transmitters SUPERIOR PERFORMNCE High accuracy Immune to ambient temperature Clean output in difficult applications Minimize vibration effects ROSEMOUNT RELIBILITY ll-welded design: - Requires no process seals - No fugitive emissions No ports or crevices to clog and decrease performance PRT OF THE PLNTWEB RCHITECTURE Proactive not reactive process control: - Detailed diagnostics - Real-time indication of instrument status bility to control from anywhere: - Uniform, flexible, solid control strategies The Model 8800C Vortex Flowmeter is now available with FOUNDTION fieldbus. The use of digital technology ensures that the Model 8800C Flowmeter provides imum accuracy and signal integrity. Read on to learn more about the features, benefits, and specifications that make the Model 8800C Flowmeter with FOUNDTION fieldbus a high-performance, flexible solution for vortex flow measurement. VISIT THE ROSEMOUNT PRODUCT PGES ON THE WORLD WIDE WEB

2 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus Designed for Process Control by Process Control Experts FOUNDTION fieldbus is an all digital, serial, two-way communication protocol that interconnects field equipment such as transmitters, valves, and controllers. Fieldbus is a Local rea Network (LN) for instruments used in process control with built-in capability to distribute the control application across the network. FOUNDTION fieldbus was designed from the ground up specifically for the process control industry by a group of process control experts. The technology is owned and maintained by the Fieldbus Foundation, a not-for-profit organization that consists of more than 100 of the world s leading control and instrumentation suppliers and end users. Cost Savings The savings begin with installation and wiring... Fewer hardware components Simplified wiring architecture Reduced need for I/O equipment Reduced central control requirements FOUNDTION fieldbus installation yields sizable labor and material savings compared to traditional non-fieldbus control strategies. New installations: You can connect up to 16 FOUNDTION fieldbus transmitters to a single pair of wires. Established installations: You can use existing wiring to connect up to 16 transmitters per measurement loop. You can easily save 60% in installation costs alone with a FOUNDTION fieldbus loop....continue with easy commissioning... Instrument technicians spend 30 to 60% less time commissioning FOUNDTION fieldbus instruments compared to traditional non-fieldbus instruments. To commission the instrument, enter the configuration parameters and download the data to all of the applicable devices....and end with simplified operation and maintenance. Gain greater access to the powerful diagnostic capabilities of the transmitters with FOUNDTION fieldbus. These capabilities help prevent costly, unscheduled process downtime by enabling maintenance personnel to quickly identify and solve problems. dvanced Functionality Location-Independent Control FOUNDTION fieldbus allows the implementation of PID control in the field device. Moving control closer to the process... Improves loop performance Reduces plant variability Reduces the necessary size of control rooms High Speed Communication Loop execution speed increases significantly through the regular scheduling of data transmission. Peer-to-peer communication improves the efficiency and reliability of the control system. Flexible Topology FOUNDTION fieldbus enables an extremely flexible topology, which is designed and optimized for process control. You can install FOUNDTION fieldbus devices using a tree configuration, a multidrop configuration, or any combination of both. True Compatibility FOUNDTION fieldbus-compliant instruments from different vendors operate with one another, allowing you to select the best instruments for each application without having to consider compatibility issues. Compatibility is achieved by standardized function blocks and Device Description Language (DDL) technology. Standardized function blocks (such as nalog Input, nalog Output, and PID) enable integrated, real-time control strategies. DDL technology ensures access to all available device features and provides support for future product upgrades. FOUNDTION fieldbus is the only all-digital communication protocol that uses both of these technologies. 2

3 Rosemount Inc. Why Rosemount Inc.? Proven Leadership in the Development of New Technologies Rosemount Inc. is a member of Fisher-Rosemount, a unique family of companies committed to helping you improve business results by managing the process better. Individually, each of these companies leads in providing better process performance: measurement, analysis, control, and integration. Together, we offer a complete range of best-in-class products, systems, and services, and we offer the engineering expertise to make them all work together. The Fisher-Rosemount group of companies has a long history of leading the industry with breakthrough technology. Fisher-Rosemount s long-term presence in the process measurement and control marketplace provides in-depth knowledge of the process industries. This knowledge allows each company to constantly develop, improve, and refine emerging and mature technologies. The result: companies within the Fisher-Rosemount group are consistently ahead of the competition in the development of emerging technologies. FOUNDTION fieldbus is no exception; products from Fisher-Rosemount were among the first to pass the Fieldbus Foundation s interoperability test. dvanced Implementation of FOUNDTION fieldbus Technology Control nywhere applies PID control algorithms consistently in each device to yield consistent, uniform, and predictable control strategies regardless of whether you implement control in the transmitter, the valve, or the DeltaV Fieldbus configuration tool. Control nywhere is a feature built into only FOUNDTION fieldbus devices from Fisher-Rosemount. Enhanced Measurement Features include industry-leading accuracy and stability to guarantee high-quality measurements, and advanced multiple-input features to enable multivariable measurement capabilities. dvanced Diagnostics Capabilities reduce costly unscheduled process downtime by providing more detailed information about the health and status of the device and the process. Breadth of Best-in-Class Products ensures the optimal solution for all of your measurement and control needs. World-Class Service and Support Doing business with Rosemount Inc. provides you access to Fisher-Rosemount world-wide service and support network. Our 24-hour response center and certified customer support solutions specialists assure that your needs are handled efficiently and effectively regardless of which Fisher-Rosemount division manufactured your instrument, and where in the world you are using the instrument. Fisher-Rosemount offers a broad range of services designed to keep your process up and running. The support network is staffed with highly trained and qualified technical and adistrative professionals, who will respond to your calls. Their support helps to achieve faster turnaround times on solutions, and enables your Fisher-Rosemount salesperson to dedicate more time assisting your company, before and after the installation. The Breakthrough Technologies of FISHER-ROSEMOUNT 1977 Solid-State Sensors Digital Valve Controllers HRT, Fieldbus, OPC Standards Scalable Process Systems Field-Based rchitecture Coriolis Flow Measurement nalytical Chemistry Multivariable Transmitters 1984 sset Management PERFORMNCE Software FOUNDTION fieldbus- Compliant Instruments 3

4 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus PPLICTION FLEXIBILITY The Model 8800C Flowmeter provides excellent application flexibility. One common set of electronics measures liquid, gas, and steam flows with a turndown of up to 38 to 1. The combination of these electronics with an optional extended-temperature sensor broadens the temperature range to 330 to 800 F (200 to 427 C). The option to mount the electronics remotely from the meter body allows flexibility in mounting location (Figure 1 and Figure 2). THE VON KRMN EFFECT The operating principle of a vortex flowmeter is based on the phenomenon of vortex shedding known as the von Karman effect. s fluid passes a bluff body, it separates and generates small eddies or vortices that are shed alternately along and behind each side of the bluff body. The vortices cause areas of fluctuating pressure that are detected by a sensor. The frequency of vortex generation is directly proportional to flow rate. The output of a vortex flowmeter depends on the K-factor. The K-factor relates the frequency of generated vortices to the flow rate. The formula for flow rate is as follows: Flow Rate = Vortex Frequency K-factor The K-factor varies with Reynolds number (1), but it is virtually constant over a broad flow range. The relationship between these two numbers is shown in Figure 3. Vortex flowmeters provide highly accurate linear flow rates when operated within this flat region. FIGURE 1. Model 8800C Remote Mount Flowmeter. 8800C-906 R D = VD m c K-Factor Linear Operating Range Reynolds Number FIGURE 3. Relationship Between K-factor and Reynolds Number. 8800C FIGURE 2. Modular Construction. (1) The Reynolds number equation combines the effects of density ( ), viscosity ( cp ), pipe inside diameter (D), and flow rate (V). 4

5 Rosemount Inc. The Vortex Meter Body/Sensor The meter body of the Model 8800C Flowmeter contains a patented shedder bar that acts as a bluff body in the flow stream. The unique shape of the shedder bar provides a wide linear and accurate operating range. Formation of vortices behind the shedder bar face causes alternating pressure to be exerted on the bar (see Figure 4) and results in alternating forces on a small flexure section of the bar at the same frequency as the formation of vortices. Vortex Forg (Higher Velocity, Lower Pressure) Bluff Body (Shedding Bar) FIGURE 4. Vortex Shedding. The alternating forces on the flexure section are transmitted to the sensor outside the flow stream via a rocking beam action (see Figure 5). piezoelectric crystal inside the sensor senses this ute movement of the flexure, creates an electrical signal, and transmits it to the smart electronics. The frequency is then converted to an output signal proportional to the volumetric flow rate E The Model 8800C Flowmeter is available with waferand flanged-style meter bodies for ½- to 8-in. (15 to 200 mm) line sizes and accepts SME B16.5 (NSI), DIN, or JIS flanges. Both wafer- and flanged-style meter bodies are available in 316L and optional Hastelloy C. lignment rings, provided with each wafer-style flowmeter, ensure that the meter body is properly centered with the adjacent piping. THE DUL-SENSOR VORTEX FLOWMETER The dual-sensor vortex flowmeter option is designed for special applications that require redundant flow measurement. The dual-sensor style flowmeter is constructed of two complete vortex meters sensor, electronics, and shedder bar (see Figure 6). The two flowmeters are welded together to provide one flowmeter with two independent flow measurements. The dual-sensor vortex flowmeter is ideally suited for critical applications requiring redundancy in plant-safety shutdown systems. pplications that require two flowmeters in the same process piping and have limited piping requirements are also good applications for the dual-sensor vortex flowmeter. Sensor Force on Sensor Pivoting xis Shedder Bar Flow Vortex Shedder Force B FIGURE 6. The Dual-Sensor Vortex Flowmeter. 8800C-911 FIGURE 5. Shedder Bar/Sensor Operation. 5

6 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus ELECTRONICS MODULE The Model 8800C Flowmeter uses one common electronics module for all fluids in 1 /2- to 8-in. (15 to 200 mm) line sizes. n optional LCD meter assembly easily plugs directly into the electronics module. The electronics module receives the piezoelectric sensor signal, digitizes it, and passes the digital information to the digital tracking filters. The digital filters dynamically adjust to track the frequency of the vortex signal. The tracking filter system provides better noise reduction than traditional filtering methods. The filtered output signal is a digital representation of the flow rate, based on a ratio of pulses per unit volume (the K-factor). The microprocessor receives the filtered data and converts them to the desired digital output. The electronics module consists of two circuit boards that incorporate application-specific integrated circuit (SIC) and surface-mount technologies. Configuration data are stored in nonvolatile EEPROM memory and are retained in the electronics when power is interrupted. Therefore, the flowmeter is functional immediately upon power-up. The electronics module has several features for troubleshooting and electronics verification (see Figure 7). Enhanced flow simulation capabilities aid in flowmeter troubleshooting. Internal flow simulation can be used to simulate a single-point or a varying flow based on engineering units or percentage of range. These simulations can be used for troubleshooting or to perform an electronics verification check. External frequency inputs, used with a frequency generator to perform the electronics verification (see Figure 7), are also available. Security and simulate enable functionality are easily accessible on the front of the electronics or LCD meter. LCD Meter The optional LCD meter connects to the electronics and displays the digital output in any of the following formats: Primary flow variable in engineering units Percent of range Vortex shedding frequency Rotating the indicator in 90-degree increments allows for convenient viewing in any flowmeter mounting position. SOFTWRE FUNCTIONLITY The software for the Model 8800C Flowmeter with FOUNDTION fieldbus permits remote testing and configuration using the any FOUNDTION fieldbus-compliant host, such as the DeltaV system with MS from Fisher-Rosemount. (See Figure 8 for Functional Block Diagram.) Transducer Block The transducer block calculates flow from sensor frequency. The calculation includes information about damping, shedding frequency, K-factor, service type, pipe ID, and diagnostics. Resource Block The resource block contains physical transmitter information, including available memory, manufacturer identification, device type, software tag, and unique identification. Backup Link ctive Scheduler (LS) The transmitter is classified as a device link master. device link master can function as a Link ctive Scheduler (LS) if the current link master device fails or is removed from the segment. The host or other configuration tool is used to download the schedule for the application to the link master device. In the absence of a primary link master, the transmitter will claim the LS and provide permanent control for the H1 segment. Diagnostics P03B The transmitter automatically performs continuous self-diagnostics. The user can perform on-line testing of the transmitter digital signal. dvanced simulation diagnostics are available. This enables remote verification of the electronics via a flow signal generator built into the software. The sensor strength value can be used to view the process flow signal and provide optimized filter settings. FIGURE 7. Model 8800C Flowmeter Electronics. 6

7 Rosemount Inc. FOUNDTION Fieldbus Compliant Communications Stack Function Blocks I PID Resource Block Physical Device Information Transducer Block Rerange Damping Diagnostics Engineering Units Vortex Shedding nalog-to-digital Signal Conversion Input-to-Output Galvanic Isolation FIGURE 8. Functional Block Diagram for the Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus. FOUNDTION Fieldbus Function Blocks nalog Input The I function block processes the measurement and makes it available to other function blocks. The I function block also allows filtering, alarg, and engineering unit changes. The Model 8800C Flowmeter with FOUNDTION fieldbus comes standard with one I function block. Proportional/Integral/Derivative The optional PID function block provides a sophisticated implementation of the universal PID algorithm. The PID function block features input for feed forward control, alarms on the process variable, and control deviation. The PID type (series or Instrument Society of merica [IS]) is user-selectable on the derivative filter. Setup Basic setup requires connecting the transmitter to a fieldbus network. The FOUNDTION fieldbuscompliant host will automatically establish communication with the device. The Model 8800C Flowmeter can be easily configured using any FOUNDTION fieldbus-compliant host, such as the DeltaV system with MS from Fisher-Rosemount. User-configurable parameters include: Tag Process density Range values Pipe internal and units diameter (ID) (1) Service type Process temperature (1) Damping (1) Process temperature and pipe ID have known effects on the K-factor. The Model 8800C software automatically accounts for these effects by compensating the K-factor. Tagging information can be entered into the transmitter to allow identification and a physical description. 32-character tags are provided for identification of the transmitter and each function block. 7

8 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus SPECIFICTIONS Functional Specifications Service Liquid, gas, and steam applications. Fluids must be homogeneous and single-phase. Line Sizes Wafer, Flanged, and Dual-Sensor Style 1 /2, 1, 1 1 /2, 2, 3, 4, 6, and 8 in. (DN 15, 25, 40, 50, 80, 100, 150, and 200). Pipe Schedules Process piping schedules 10, 40, and 80. The appropriate bore diameter of the process piping must be entered using any FOUNDTION fieldbus-compliant host, such as the DeltaV system with MS inside from Fisher-Rosemount. Meters will be shipped from the factory at the Schedule 40 default value unless otherwise specified. Measurable Flow Rates The Model 8800C flowmeter is capable of processing signals from flow applications that meet the appropriate flowmeter sizing requirements. To detere the appropriate flowmeter size for an application, process conditions must be within the Reynolds number and velocity limitations for the desired line size provided in Tables 1 through 3. Consult your local sales representative to obtain a computer-sizing program that describes in greater detail how to specify the correct flowmeter size for an application. The Reynolds number equation shown below combines the effects of density (ρ), viscosity (µ cp ), inside pipe diameter (D), and flow rate (V). Liquids Gases Liquids Gases TBLE 2. Minimum Measurable Velocities (Use the Larger of the Two Values). Feet Per Second The ρ in Tables 2 and 3 is the process fluid density at flowing conditions in lb/ft 3 for ft/s and kg/m 3 for m/s. Process Temperature Limits Standard 40 to 450 F (40 to 232 C). Extended 330 to 800 F (200 to 427 C). mbient Temperature Limits Meters Per Second 36/ρ or /ρ or /ρ or /ρ or 2.0 TBLE 3. Maximum Measurable Velocities (Use the Smaller of the Two Values). Feet Per Second Meters Per Second 90,000/ρ or ,000/ρ or ,000/ρ or ,000/ρ or 76 Operating 58 to 185 F (50 to 85 C). 4 to 185 F (20 to 85 C) for flowmeters with local indicator. Storage 58 to 250 F (50 to 121 C). 50 to 185 F (46 to 85 C) for flowmeters with local indicator. Output Signals Manchester-encoded digital signal that conforms to IEC and IS R D = TBLE 1. Minimum Measurable Reynolds Numbers. Line Sizes (in./mm) VD c Reynolds Number Limitations ½4 (15100) 10,000 imum 68 ( ) 20,000 imum TBLE 4. Water Flow Rate Limits in Schedule 40 Pipe. Line Size (inches/dn) Minimum and Maximum Measurable Water Flow Rates * Gallons/Minute Cubic Meters/Hour ½/ to to / to to ½/ to to / to to / to to 130 4/ to to 225 6/ to 2, to 511 8/ to 3, to 885 * Conditions: 77 F (25 C) and 14.7 psia (1.01 bar absolute) 8

9 Rosemount Inc. TBLE 5. ir Flow Rate Limits at 59 F (15 C) for 1 /2- through 2-inch (DN 15 through DN 50). Minimum and Maximum ir Flow Rates Process Pressure Flow Rate Limits ½ in./dn 15 1 in./dn 25 1½ in./dn 40 2 in./dn 50 CFM CMH CFM CMH CFM CMH CFM CMH 0 psig (0 bar gauge) psig (3.45 bar gauge) psig (6.89 bar gauge) psig (10.3 bar gauge) psig (13.8 bar gauge) psig (20.7 bar gauge) psig (27.6 bar gauge) psig (34.5 bar gauge) The Model 8800C Flowmeter measures the volumetric flow under operating conditions (i.e., the actual volume at the operating pressure and temperature acfm or acmh), as shown above. However, gas volumes are strongly dependent on pressure and temperature. Therefore, gas quantities are typically stated in standard or normal conditions (e.g., scfm or ncmh). (Standard conditions are typically 59 F and 14.7 psia. Normal conditions are typically 0 C and 1 bar abs.) The flow rate limits in standard conditions are found using the equations below. Standard Flow Rate = ctual Flow Rate X Density Ratio. Density Ratio = Density at ctual (Operating) Conditions/Density at Standard Conditions. 9

10 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus TBLE 6. ir Flow Rate Limits at 59 F (15 C) for 3- through 8-inch (DN 80 through DN 200). Minimum and Maximum ir Flow Rates Process Pressure Flow Rate Limits 3 in./dn 80 4 in./dn in./dn in./dn 200 CFM CMH CFM CMH CFM CMH CFM CMH 0 psig (0 bar gauge) , , , , , , , psig (3.45 bar gauge) , , , , , , , psig (6.89 bar gauge) , , , , , , , psig (10.3 bar gauge) , , , , , , , psig (13.8 bar gauge) , , , , , , , psig (20.7 bar gauge) , , , , , , , psig (27.6 bar gauge) , , , , , , , psig (34.5 bar gauge) , , , , , The Model 8800C Flowmeter measures the volumetric flow under operating conditions (i.e., the actual volume at the operating pressure and temperature acfm or acmh), as shown above. However, gas volumes are strongly dependent on pressure and temperature. Therefore, gas quantities are typically stated in standard or normal conditions (e.g., scfm or ncmh). (Standard conditions are typically 59 F and 14.7 psia. Normal conditions are typically 0 C and 1 bar abs.) The flow rate limits in standard conditions are found using the equations below. Standard Flow Rate = ctual Flow Rate X Density Ratio. Density Ratio = Density at ctual (Operating) Conditions/Density at Standard Conditions. 10

11 Rosemount Inc. TBLE 7. Saturated Steam Flow Rate Limits for 1 /2- through 2-inch (DN 15 through DN 50). Minimum and Maximum Saturated Steam (1) Flow Rates Process Pressure Flow Rate Limits ½ in./dn 15 1 in./dn 25 1½ in./dn 40 2 in./dn 50 lb/hr kg/hr lb/hr kg/hr lb/hr kg/hr lb/hr kg/hr 15 psig (1.03 bar gauge) , psig (1.72 bar gauge) , , psig (3.45 bar gauge) , , , psig (6.89 bar gauge) , , , , , psig (10.3 bar gauge) , , , , , psig (13.8 bar gauge) , , , , , , psig (20.7 bar gauge) 1, , , , , , , psig (27.6 bar gauge) 1, , , , , , , psig (34.5 bar gauge) 1, , , , , , , (1) ssumes Steam Quality is 100%. 11

12 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus TBLE 8. Saturated Steam Flow Rate Limits for 3- through 8-inch (DN 80 through DN 200). Minimum and Maximum Saturated Steam (1) Flow Rates Process Pressure Flow Rate Limits 3 in./dn 80 4 in./dn in./dn in./dn 200 lb/hr kg/hr lb/hr kg/hr lb/hr kg/hr lb/hr kg/hr 15 psig (1.03 bar gauge) 3, , , , ,037 1,166 5, ,533 2,015 10, psig (1.72 bar gauge) 4, , , , ,112 1,336 7, ,575 2,308 13,415 1, psig (3.45 bar gauge) 6, , , , ,070 1,680 12, ,786 2,903 21,222 1, psig (6.89 bar gauge) 11, , , , ,491 2,202 21, ,354 3,806 36,448 1, psig (10.3 bar gauge) 16, , ,865 1,150 13, ,632 2,615 29,770 1, ,436 4,520 51,454 2, psig (13.8 bar gauge) 21, , ,246 1,307 16, ,688 2,971 38,414 1, ,371 5,135 66,393 2, psig (20.7 bar gauge) 31, , ,049 1,574 24, ,894 3,579 55,744 1, ,405 6,186 96,346 2, psig (27.6 bar gauge) 41,228 1,072 18, ,044 1,848 32, ,536 4,200 73,272 1, ,192 7, ,639 3, psig (34.5 bar gauge) 51,259 1,333 23, ,330 2,297 40,066 1, ,840 5,222 91,100 2, ,124 9, ,453 4,094 (1) ssumes Steam Quality is 100%. 12

13 Rosemount Inc. Pressure Limits Flange and wafer rated for SME B16.5 (NSI) Class 150, 300, and 600; DIN PN 10, 16, 25, 40, 64, and 100; and JIS 10K, 20K, and 40K. Power Supply External power supply required. Flowmeter operates on 9 to 32 V dc, 17.8 m noal, 19.0 m imum. Optional LCD Indicator Displays flow variable, percent of range, and vortex shedding frequency. Enclosure Rating NEM Type 4X, CS Type 4X, IP66. Hazardous Locations Certifications Factory Mutual (FM) pprovals E5 Explosion Proof for Class I, Division 1, Groups B, C, and D. Dust-Ignition Proof for Class II/III, Division 1, Groups E, F, and G. Factory sealed. I5 Intrinsically safe for use in Class I, Division 1, Groups, B, C, and D. Class II/III, Division 1, Groups E, F, and G. Temp. Code T4 only when connected in accordance with Rosemount drawings and Non-incendive for Class I, Division 2, Groups, B, C, and D. Factory sealed. Entity Parameters: V = 30 V I = 300 m C i = 0.0 µf L i = 20 µh. K5 E5 and I5 combination. V = 30 V I = 300 m C i = 0.0 µf L i = 20 µh. BSEEF/CENELEC Intrinsic Safety Certification I1 EEx ia IIC T4 (T amb = -50 C to 60 C) Entity Parameters: UI= 30 V Ii (1) = 300 m PI (1) = 1.3 W C i = 0.0 µf L i = 20 µh. BSEEF Type N Certification N1 Ex nl IIC T5 (T amb = -40 C to 70 C) 42 Vdc. KEM/CENELEC Flameproof Certifications ED EEx d ia IIC T6 (T amb =70 C) Special Conditions When installing the instrument, particular precautions must be taken to ensure that the fluid temperature or the ambient temperature does not cause the temperature of the electrical parts to deviate from the proper temperature range (between -20 C and 70 C). Canadian Standards ssociation (CS) pprovals E6 Explosion Proof for Class I, Division 1, Groups B, C, and D; Dust-Ignition Proof for Class II, Division 1, Groups E, F, and G; Class III, Division 1 hazardous locations. Class I, Division 2, Groups, B, C, and D. Factory sealed. I6 Intrinsically Safe for Class I, Division 1, Groups, B, C, and D. Intrinsic safety approval only when connected in accordance with Rosemount drawing Temperature Code T3C. See Table 9. C6 E6 and I6 combination. See Table 9. Standards ssociation of ustralia (S) Certification E7 TBLE 9. CS Entity pprovals. Barrier Manufacturer/Model ny CS approved zener barrier 30 V, 330 or 28 V, 300 or 25 V, 200 or 22 V, 180 Foxboro Converters 2I-12V-CGB, 2I-13V-CGB 2S-I3I-CGB, 32-I2D-CGB 32-I3D-CGB, 3D-I3I-CGB 34-I2D-CGB, 2S-I2I-CGB 3F4-I2D ny CS approved zener barrier 30 V, 150 Flameproof: Ex d ia IIC T6 (T amb = 40 C) Ex d ia IIC T4 (T amb = 85 C) Class I, Zone I. IP66. US Ex 3012X CS pproved for Class I, Division 1, Groups B C D N N N (1) Total for transmitter. 13

14 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus Pressure Loss Equations to detere approximate pressure loss: English Metric where: ( Liquids) P ( Gases) P ( Liquids) P ( Gases) P ( ) ρ f ( Q gpm ) 2 = D 4 ( ) ρ f ( Q acfm ) 2 = D 4 ( 0.425) ρ f ( Q lpm ) 2 = D 4 ( 118) ρ f ( Q acmh ) 2 = D 4 P = Pressure loss (psi or kpa) f = Density at operating conditions (lb/ft 3 or kg/m 3 ) D = Flowmeter bore diameter (in. or mm) Q gpm or lpm = ctual volumetric flow rate (gallons/ute or liters/ute) Q acfm or acmh = ctual volumetric flow rate (cubic feet/ or cubic meters/hour) Pressure loss is 1.8 P for the dual-sensor meter. Minimum Back Pressure (Liquids) Cavitation, the release of vapor from a liquid, may be avoided by remaining within the proper flow range of the meter and by following appropriate system design. For some liquid applications, incorporation of a back pressure valve should be considered. To prevent cavitation, the imum back pressure should be: P = 2.9 P p v where: P = Line pressure, five pipe diameters downstream of the meter (psia or kpa) P = Pressure loss across the meter (psi or kpa) p v = Liquid vapor pressure at operating conditions (psia or kpa) Pressure loss is 1.8 P for the dual-sensor meter. Damping djustable between 0.2 and 255 seconds. Response Time Maximum time required to reach 63.2% of actual input flow with imum damping (0.2 seconds) shall be 0.2 seconds or three vortex shedding cycles, whichever is greater. Turn-on Time Performance within specifications no greater than 10.0 seconds after power is applied. larms The I block allows the user to configure the alarm to HI-HI, HI, LO, or LO-LO with a variety of priority levels. Security When the security jumper is on, the electronics will not allow you to modify parameters that affect flowmeter output. Low Flow Cutoff djustable over entire flow range. Below selected value, output damps to no flow. Humidity Limits Operates in 098% ±2% relative humidity. Tested to IEC 770, Section Overrange Capability For liquid service type, the transducer block digital output will continue to a noal value of 25 ft/s (7.6 m/s). fter that, the status associated with the transducer block output will go to UNCERTIN. bove a noal value of 30 ft/s (9.1 m/s), the status will go to BD. For gas/steam service, the transducer block digital output will continue to a noal value of 220 ft/s (67.1 m/s) for 0.5 and 1.0 in. (15 and 25 mm) line sizes and a noal value of 250 ft/s (76.2 m/s) for 1.58 in. line sizes. fter that, the status associated with the transducer block output will go to UNCERTIN. bove a noal value of 300 ft/s (91.4 m/s) for all line sizes, the status will go to BD. Flow Calibration Meter bodies are flow calibrated and assigned a unique calibration factor (K-factor) at the factory. The calibration factor is entered into the electronics, enabling interchangeability of electronics and/or meter bodies without calculations or compromise in accuracy. The K-factor is automatically compensated when changes are made to the pipe ID or process temperature. Status If self-diagnostics detect a transmitter failure, the status of the measurement will inform the control system. Status may also send the PID output to a safe value. 14

15 Rosemount Inc. FOUNDTION Fieldbus Specifications Schedule Entries Six (6). Links Twelve (12). Virtual Communications Relationships (VCRs) Two (2) predefined (F6, F7). Four (4) configurable (see Table 10). TBLE 10. Block Information. Block Performance Specifications ccuracy (Includes linearity, hysteresis, and repeatability.) Liquids for Reynolds Numbers over 20,000 ±0.65% of rate. Gas and Steam for Reynolds Numbers over 15,000 ±1.35% of rate. ccuracy limitations: - for 1 /2- and 1-in. (DN 15 and DN 25): velocity of 220 ft/s (67.06 m/s) - for Dual-style meters (all sizes): velocity of 100 ft/s (30.5 m/s) s the Reynolds number decreases below the stated limit to 10,000, the positive limit of the accuracy error band will increase to 2.1% (e.g., +2.1% to 0.65% for liquids). Stability ±0.1% of rate over one year. Base Index Execution Time (Milliseconds) Resource (RB) 300 Transducer (TB) 400 nalog Input (I) 1, Proportional/Integral/Derivative (PID) 10, Process Temperature Effect utomatic K-factor correction with user-entered process temperature. Table 11 indicates the percent change in K-factor per 100 F (50 C) in process temperature from reference temperature of 77 F (25 C) (for direct pulse) or user-entered process temperature. TBLE 11. Process Temperature Effect. Material mbient Temperature Effect No effect. Vibration Effect n output with no process flow may be detected if sufficiently high vibration is present. The meter design will imize this effect, and the factory settings for signal processing are selected to eliate these errors for most applications. If an output error at zero flow is still detected, it can be eliated by adjusting the low flow cutoff, trigger level, and/or low-pass filter. s the process begins to flow through the meter, most vibration effects are quickly overcome by the flow signal. t or near the imum liquid flow rates in a normal pipe mounted installation, the imum vibration should be in. (2.21 mm) double amplitude displacement or 1 g acceleration, whichever is smaller. t or near the imum gas flow rates in a normal pipe mounted installation, the imum vibration should be in. (1.09 mm) double amplitude displacement or 1 /2 g acceleration, whichever is smaller. Mounting Position Effect The meter will meet accuracy specifications when mounted in horizontal, vertical, or inclined pipelines. EMI/RFI Effect No effect on accuracy of digital output with twisted pair from 25 MHz to 1000 MHz for field strength of 10 V/m. Tested per EN Magnetic-Field Interference No effect on digital output accuracy at 30 /m (rms). Tested per EN Series Mode Noise Rejection No effect on digital output accuracy at 1 V rms, 60 Hz. Meets IEC , Section Common Mode Noise Rejection No effect on digital output accuracy at 250 V rms, 60 Hz. ccording to FF-830-PS-2.0 test case 8.2. Power Supply Effect No effect on accuracy. Percent Change in K-Factor per 100 F (50 C) < 77 F (25 C) (+0.20) > 77 F (25 C) 0.27 (0.24) Hastelloy < 77 F (25 C) (+0.20) Hastelloy > 77 F (25 C) 0.22 (0.20) 15

16 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus Physical Specifications NCE Compliance Meets the requirements of the National ssociation of Corrosion Engineers (NCE) Standard MR (96). Electrical Connections 1 /214 NPT, PG 13.5, or M conduit threads. Communicator connections permanently fixed to teral block. Nonwetted Materials Housing Low-copper aluum (NEM 4X, CS Type 4X, IP66). Paint Polyurethane. Cover O-rings Buna-N. Flanges 316/316L lap joint. Process-Wetted Materials Meter Body 316L wrought stainless and CF-3M cast stainless or Hastelloy C-22 and C-276 wrought Hastelloy or CX2MW and CW12MW cast Hastelloy. Flanges 316/316L stainless steel. Collars Hastelloy C-22. Surface Finish of Flanges and Collars Standard: 125 to 250 in. (3.1 to 6.3 m) R a roughness. Smooth: 63 to 125 in. (1.6 to 3.1 m) R a roughness. Mounting Integral (Standard) Electronics are mounted on meter body. Remote (Optional) Electronics may be mounted remotely from the meter body. Interconnecting coaxial cable available in nonadjustable 10, 20, and 30 foot lengths (3.0, 6.1, and 9.1 m). Consult factory for nonstandard lengths up to 75 feet (22.9 m). Remote mounting hardware includes a polyurethane-painted, carbon steel pipe mount bracket with one carbon steel u-bolt. Pipe Length Requirements The vortex meter may be installed with a imum of ten straight pipe diameters (D) upstream and five downstream. Rated accuracy is based on the number of pipe diameters from an upstream disturbance. n additional 0.5% shift in K-factor may be introduced between 10 D and 35 D, depending on disturbance. For more information on installation effects, see Technical Data Sheet Tagging stainless steel tag is permanently attached to each flowmeter at no charge. Character height is 1 /16 in. (1.6 mm). wired-on tag is available on request. commissioning tag, attached to each flowmeter, will aid in the commissioning of the flowmeter on the fieldbus network by specifying the identification number and the location of the flowmeter. Flow Calibration Information Flowmeter calibration and configuration information is provided with every flowmeter. For a certified copy of flow calibration data, an Option Q4 must be ordered in the model number. Process Connections Mounts Between the Following Flange Configurations SME B16.5 (NSI): Class 150, 300, and 600. DIN: PN 10, 16, 25, 40, 64, and 100. JIS: 10K, 20K, and 40K. 16

17 Rosemount Inc. FIGURE 9. Flanged-Style Flowmeter Dimensional Drawings ( 1 /2- through 8-in. / 15 through 200 mm Line Sizes) (81) 2.56 (65) 1.10 (28) Teral Cover 2.85 (72) Electrical Connection SME B16.5 (NSI) ½14 NPT (2 places) 2.00 (51) 2.00 (51) 3.06 (78) 1.00 (25) Display Option C Dimensions are in inches (millimeters). B B, 0002B02B Noal Size ½(15) 1 (25) 1½(40) 2 (50) TBLE 12. Flanged-Style Flowmeter ( 1 /2- through 2-in. / 15 through 50 mm Line Sizes). Flange Rating Class 150 PN 16/40 JIS 10K/20K Class 150 PN 16/40 JIS 10K/20K Class 150 PN 16/40 JIS 10K/20K Class 150 PN 16/40 PN 64 JIS 10K JIS 20K (1) dd 0.2 lb (0.1 kg) for display option. Face-to-face 6.87 (174.5) 7.23 (183.6) 7.73 (196.3) 6.11 (155.2) 6.65 (168.9) 6.3 (160) 7.3 (185) 7.51 (190.8) 8.01 (203.5) 8.51 (216.2) 6.27 (159.3) 7.69 (195.3) 6.5 (165) 7.9 (200) 8.24 (209.3) 8.74 (222.0) 9.36 (237.7) 6.90 (175.3) 8.24 (209.3) 7.3 (185) 8.5 (215) 9.26 (235.2) 9.76 (247.9) (267.2) 8.04 (204.2) 9.15 (232.3) 9.62 (244.3) 7.7 (195) 8.3 (210) 9.8 (250) NSI RTJ 7.66 (194.7) 7.66 (194.7) 8.01 (203.5) 8.51 (216.2) 8.51 (216.2) 8.74 (222.0) 9.24 (234.8) 9.36 (237.8) 9.76 (248.0) (263.9) (270.5) B 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) C 7.63 (194) 7.63 (194) 7.63 (194) 7.63 (194) 7.63 (194) 7.63 (194) 7.63 (194) 7.74 (197) 7.74 (197) 7.74 (197) 7.74 (197) 7.74 (197) 7.74 (197) 7.74 (197) 8.14 (207) 8.14 (207) 8.14 (207) 8.14 (207) 8.14 (207) 8.14 (207) 8.14 (207) Weight (1) lb (kg) 9.3 (4.2) 10.8 (4.9) 10.8 (4.9) 9.5 (4.3) 11.0 (5.0) 10.1 (4.5) 13.5 (6.1) 15.5 (7.0) 18.5 (8.4) 19.0 (8.6) 13.9 (6.3) 22.5 (10.2) 13.7 (6.2) 17.4 (7.9) 20.8 (9.5) 26.3 (11.9) 29.3 (13.3) 22.8 (10.3) 30.7 (13.9) 18.6 (8.4) 25.6 (11.6) 23.0 (10.4) 27.0 (12.3) 31.5 (14.3) 23.7 (10.8) 31.3 (14.2) 38.0 (17.2) 19.5 (8.8) 20.1 (9.1) 28.3 (12.8) 17

18 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus Noal Size 3 (80) 4 (100) 6 (150) 8 (200) TBLE 13. Flanged-Style Flowmeter (3- through 8-in. / 80 through 200 mm Line Sizes). (1) (1) Refer to Figure 9. Flange Rating Class 150 PN 16/40 PN 64 JIS 10K JIS 20K Class 150 PN 16 PN 40 PN 64 JIS 10K JIS 20K Class 150 PN 16 PN 40 PN 64 JIS 10K JIS 20K Class 150 PN 10 PN 16 PN 25 PN 40 PN 64 JIS 10K JIS 20K (2) dd 0.2 lb (0.1 kg) for display option. Face-to-face 9.87 (250.7) (269.5) (288.8) 8.93 (226.8) (259.9) (266.9) 7.9 (200) 9.3 (235) 11.0 (280) (260.1) (279.4) (323.6) 8.34 (211.8) 9.36 (237.7) (264.2) (287.5) 8.7 (220) 8.7 (220) 11.8 (300) (294.4) (313.7) (364.0) 8.93 (226.8) (266.5) (306.6) (346.7) 10.6 (270) 10.6 (270) 14.2 (360) (344.9) (364.2) (421.1) (265.7) (265.7) (301.8) (317.5) (361.7) (401.8) 12.2 (310) 12.2 (310) 16.5 (420) NSI RTJ (263.5) (285.5) (292.1) (273.3) (295.8) (327.2) (307.1) (329.5) (367.1) (357.6) (380.1) (424.3) B C Weight (2) lb (kg) 41.5 (18.8) 49.5 (22.4) 55.0 (24.9) 37.9 (17.2) 46.5 (21.1) 56.9 (25.8) 27.6 (12.5) 35.0 (15.9) 50.0 (22.7) 55.5 (25.2) 74.0 (33.5) (45.8) 41.3 (18.7) 49.9 (22.6) 63.7 (28.9) 82.3 (37.3) 37.0 (16.8) 44.9 (20.4) 75.3 (34.2) 89.0 (403) (58.5) (84.8) 73.9 (33.5) 92.2 (41.8) (62.0) (79.5) 79.8 (36.2) 97.7 (44.3) (79.8) (63.9) (88.4) (126.5) (49) (48.4) (60.4) (69.8) (96.6) (133.8) (49.9) (60.9) (116.0) 18

19 Rosemount Inc. FIGURE 10. Wafer-Style Dimensional Drawings ( 1 /2- through 1 1 /2-in. / 15 through 40 mm Line Sizes) (51) Electrical Connection SME B16.5 (NSI) ½14 NPT (2 places) 2.00 (51) 3.20 (81) Teral Cover 2.56 (65) 2.85 (72) 1.10 (28) 3.06 (78) 1.00 (25) Display Option C D Dimensions are in inches (millimeters). E Electronics housing may be rotated in 90 degree increments. B D01D, 0002C01C Noal Size Face-to-face (1) dd 0.2 lb (0.1 kg) for display option. TBLE 14. Model 8800C - Stainless Steel Wafer. B C D E Weight lb (kg) (1) ½ (15) 2.56 (65) 0.54 (13.7) 7.63 (194) 1.38 (35.1) 0.23 (5.8) 7.3 (3.31) 1 (25) 2.56 (65) 0.95 (24.1) 7.74 (197) 1.98 (50.3) 0.23 (5.8) 7.6 (3.45) 1½ (40) 2.56 (65) 1.49 (37.8) 8.14 (207) 0.18 (4.6) 9.8 (4.45) Noal Size Face-to-face TBLE 15. Model Hastelloy Wafer. B C D E Weight lb (kg) (1) ½ (15) 2.44 (62.0) 0.54 (13.7) 7.63 (194) 1.38 (35.1) 0.17 (4.3) 7.2 (3.3) 1 (25) 2.44 (62.0) 0.95 (24.1) 7.74 (197) 1.98 (50.3) 0.17 (4.3) 7.6 (3.4) 1½ (40) 3.11 (79.0) 1.49 (37.8) 8.08 (205) 0.47 (11.9) 10.8 (4.9) (1) dd 0.2 lb (0.1 kg) for display option. 19

20 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus FIGURE 11. Wafer-Style Dimensional Drawings (2- through 8-in. / 50 through 200 mm Line Sizes). Electrical Connection SME B16.5 (NSI) ½14 NPT (2 places) 2.00 (51) 2.00 (51) 3.20 (81) 2.56 (65) 1.10 (28) Teral Cover 2.85 (72) 1.00 (25) 3.06 (78) Display Option C D Dimensions are in inches (millimeters). Electronics housing may be rotated in 90 degree increments. E B B01C,000201D Noal Size TBLE 16. Model 8800C - Stainless Steel Wafer. Face-to-face (1) dd 0.2 lb (0.1 kg) for display option. B C D E Weight lb (kg) (1) 2 (50) 2.56 (65) 1.92 (49) 8.85 (225) 3.86 (98) 0.12 (3) 10.6 (4.81) 3 (80) 2.56 (65) 2.87 (73) 9.62 (244) 5.00 (127) 0.25 (6) 13.7 ( (100) 3.42 (87) 3.79 (96) (266) 6.20 (158) 0.44 (11) 21.4 (9.71) 6 (150) 4.99 (127) 5.70 (145) (273) 8.50 (216) 1.11 (28) 49.2 (22.3) 8 (200) 6.60 (168) 7.55 (192) (296) (270) 0.89 (23) 85 (38.6) Noal Size Face-to-face TBLE 17. Model Hastelloy Wafer. B C D E Weight lb (kg) (1) 2 (50) 3.81 (97) 1.92 (49) 8.45 (215) 3.86 (98) 0.86 (22) 10.8 (4.9) 3 (80) 3.92 (100) 2.87 (73) 9.10 (231) 5.00 (127) 0.76 (19) 15.0 (6.8) 4 (100) 4.47 (114) 3.79 (96) 9.56 (243) 6.20 (158) 0.82 (21) 23.0 (10.4) 6 (150) 4.99 (127) 5.70 (145) (273) 8.50 (216) 1.11 (28) 49.2 (22.3) 8 (200) 6.60 (168) 7.55 (192) (296) (270) 0.89 (23) 85 (38.6) (1) dd 0.2 lb (0.1 kg) for display option. 20

21 Rosemount Inc. FIGURE 12. Vortex Dual-Sensor Style Flowmeter Dimensional Drawings ( 1 /2- through 8-in. / 15 through 200 mm Line Sizes). Teral Cover 3.20 (81) 2.56 (65) 2.85 (72) 1.10 (28) Electrical Connection SME B16.5 (NSI) ½14 NPT (2 places) 2.00 (51) 2.00 (51) 3.06 (78) 1.00 (25) Display Option C B Dimensions are in inches (millimeters). C ,0006B01 Noal Size Flange Rating ½ (15) Class 150 PN 16/40 JIS 10K/20K 1 (25) Class 150 PN 16/40 JIS 10K/20K 1 ½ (40) Class 150 PN 16/40 JIS 10K/20K (1) dd 0.4 lb (0.2 kg) for display option. TBLE 18. Vortex Dual-Sensor Style Flowmeter ( 1 /2 through 1 1 /2-in. / 15 through 40 mm Line Sizes). Face-to-face (304) (313) (326) (285) (299) 11.4 (290) 12.4 (315) (385) (397) (410) 13.9 (353) (389) 14.1 (358) 15.5 (394) (288) (301) (316) 9.99 (254) (288) 10.4 (264) 11.5 (292) NSI RTJ (324.4) (324.4) (397.4) (410.1) (410.1) (300.5) (313.2) (316.2) B 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.54 (13.7) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 0.95 (24.1) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) 1.49 (37.8) C 7.63 (194) 7.63 (194) 7.63 (194) 7.63 (194) 7.63 (194) 7.63 (194) 7.63 (194) 7.74 (197) 7.74 (197) 7.74 (197) 7.74 (197) 7.74 (197) 7.74 (197) 7.74 (197) 8.08 (205) 8.08 (205) 8.08 (205) 8.08 (205) 8.08 (205) 8.08 (205) 8.08 (205) Weight lb (kg) (1) 16.3 (7.4) 17.3 (7.9) 17.6 (8.0) 15.7 (7.1) 16.6 (7.6) 17.1 (7.8) 20.6 (9.3) 26.0 (11.8) 29.2 (13.3) 29.5 (13.4) 22.1 (10.0) 33.3 (15.1) 22.1 (10.0) 25.8 (11.7) 33.3 (15.1) 38.4 (17.4) 41.6 (18.9) 35.3 (16.0) 43.4 (19.7) 27.9 (12.6) 34.9 (15.8) 21

22 Rosemount Model 8800C Vortex Flowmeter with FOUNDTION Fieldbus Noal Size Flange Rating 2 (50) Class 150 PN 16/40 PN 64 JIS 10K JIS 20K 3 (80) Class 150 PN 16/40 PN 64 JIS 10K JIS 20K 4 (100) Class 150 PN 16 PN 40 PN 64 JIS 10K JIS 20K 6 (150) Class 150 PN 16 PN 40 PN 64 JIS 10K JIS 20K 8 (200) Class 150 PN 10 PN 16 PN 25 PN 40 PN 64 JIS 10K JIS 20K (1) dd 0.4 Lb (0.2 kg) for display option. TBLE 19. Vortex Dual-Sensor Style Flowmeter (2- through 8-in. / 50 through 200 mm Line Sizes). (Refer to Figure 12) Face-to-face (332) (344) (364) (301) (329) (341) 11.5 (292) 12.1 (307) 13.6 (345) (363) (382) (401) (339) (367) (380) 12.3 (312) 13.7 (348) 15.5 (394) (387) (406) (451) (339) (365) (391) (415) 13.6 (345) 13.6 (345) 16.8 (427) (493) (513) (563) (426) (465) (505) (546) 18.5 (470) 18.5 (470) 22.0 (559) (610) (629) (686) (531) (531) (567) (582) (627) (667) 22.6 (574) 22.6 (574) 27.0 (686) NSI RTJ (344.4) (357.1) (363.7) (375.9) (397.9) (401.3) (399.8) (422.2) (450.6) (506.0) (528.4) (562.9) (622.6) (645.0) (689.2) B C Weight lb (kg) (1) 34.0 (15.4) 37.3 (16.9) 42.5 (19.3) 35.0 (15.9) 43.3 (19.7) 49.6 (22.5) 29.1 (13.2) 29.7 (13.5) 37.9 (17.2) 58.0 (26.3) 66.0 (29.9) 71.5 (32.4) 52.2 (24.9) 64.4 (29.2) 74.3 (33.7) 41.0 (18.6) 48.4 (22.0) 63.4 (28.8) 76.0 (34.5) 94.5 (42.9) (55.1) 62.2 (28.2) 71.1 (32.2) 86.4 (39.2) (47.3) 55.4 (25.1) 63.2 (28.7) 93.7 (42.5) (58.1) (76.2) (102.5) (48.8) (60.0) (81.9) (98.5) (56.2) (64.4) (99.8) (86.8) (114.3) (152.4) (75.3) (74.7) (86.7) (96.6) (126) (162) (80.8) (91.9) (147.0) 22

23 Rosemount Inc. FIGURE 13. Dimensional Drawings for Remote Mount Transmitters. Teral Cover 3.20 (81) Electrical Connection SME B16.5 (NSI) ½14 NPT (2 places) 3.06 (78) 2.56 (65) 1.10 (28) 2.85 (72) 1.00 (25) 2.00 (51) 2.00 (51) 1.80 (46) Display Option 2.65 (68) 4.90 (124) 2.81 (71) 4.50 (114) 2.81 (71) 4.50 (114) Dimensions are in inches (millimeters). ½14 NPT (For Remote Cable Conduit) 5.50 (140) B, 0002B04B FIGURE 14. Dimensional Drawings for Remote Mount Wafer-Style Flowmeters ( 1 /2- through 8-in. / 15 through 200 mm Line Sizes). ½14 NPT (For Remote Cable Conduit) Dimensions are in inches (millimeters). E TBLE 20. Model 8800C - Stainless Steel Wafer. E Noal Size Wafer Style ½ (15) 6.4 (163) 1 (25) 6.5 (165) 1½ (40) 6.9 (175) 2 (50) 7.6 (193) 3 (80) 8.3 (211) 4 (100) 9.2 (234) 6 (150) 9.5 (241) 8 (200) 10.4 (264) TBLE 21. Model Hastelloy Wafer. E Noal Size Wafer Style ½ (15) 6.4 (163) 1 (25) 6.5 (165) 1½ (40) 6.8 (173) 2 (50) 7.2 (183) 3 (80) 7.8 (198) 4 (100) 8.3 (211) 6 (150) 9.5 (241) 8 (200) 10.4 (264) C04B 23