Standard Features and Options

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Page 1 of 7 For: Digital Electronics Model: Promass 63, 83, 84, and 100 Sensor Models: Promass F and M Series Flow Rate: See Model Designation on Pages 3 & 4 Submitted By: 2330 Endress Place

1 Page 1 of 7 For: Digital Electronics Model: Promass 63, 83, 84, and 100 Sensor Models: Promass F and M Series Flow Rate: See Model Designation on Pages 3 & 4 Submitted By: 2330 Endress Place Greenwood, IN Tel: (970) Mobile: (317) Contact: Michael Keilty michael.keilty@us.endress.com Website: Standard Features and Options Standard Features: Dual tube design using Alloy C, 904L stainless steel, or titanium flow tubes Pressure rated secondary containment NEMA 4X enclosures Class 1 Division 1, CD, Class I Division 2 Ni 10 khz frequency/pulse output (mass and volume flow) 4-20 ma DC output Alphanumeric backlit display with touch controls Remote communication (read only see Sealing on Page 2): Communication protocols supported are: FOUNDATION Fieldbus, Hart, Modbus, Profibus Options: Model 414 indicator Model 1010 indicator Wall mount hardware Printer Heater This device was evaluated under the National Type Evaluation Program and was found to comply with the applicable technical requirements of NIST Handbook 44: Specifications, Tolerances and Other Technical Requirements for Weighing and Measuring Devices. Evaluation results and device characteristics necessary for inspection and use in commerce are on the following pages. *Editorial changes, not affecting the type or metrological content, corrected this certificate. Ronald Hayes Chairman, NCWM, Inc M Street, Suite 110 / Lincoln, Nebraska John Gaccione Committee Chair, National Type Evaluation Program Committee Issued: August 18, 2014 The National Conference on Weights and Measures (NCWM) does not approve, recommend or endorse any proprietary product or material, either as a single item or as a class or group. Results shall not be used in advertising or sales promotion to indicate explicit or implicit endorsement of the product or material by the NCWM.

2 Page 2 of 7 Application: For use in vehicle mounted and/or stationary applications. The Promass device may be configured with mass or volume assigned to the pulse output. The meter may be used to measure normal liquids and compressed natural gas (see Model Designation: *) with a specific gravity as listed in the table below. In addition, the meter may be used to measure compressed liquids or cryogenic liquids when used with an approved and compatible indicating element that measures compressed liquids in units of volume and temperature compensated volume during retail sales. This meter may be used to measure multiple normal liquids with specific gravities between 0.7 and 1.6 where variations in specific gravities do not exceed 0.3 specific gravity units. Products: Product Groups Typical Products Specific Gravity Normal Liquids Water, Alcohols, Glycols, Water Mixes Thereof, Agriculture Liquids, Fertilizers, Chemicals, Petroleum Solvents, Herbicides, and Suspensions 0.6 to 1.7 Compressed Liquids LPG, Propane, Butane, Ethane, Freon 11, Freon 12, Freon 22, etc. 0.3 to 0.65 NH to 0.68 Compressed Gases CNG 0.6 to 0.8 Cryogenic Liquids N2, Liquefied Natural Gas NOTE: Not all typical products listed in this table are covered by this Certificate. Only those products falling within the specific gravity listed in the last column are covered. Some products may have a specific gravity that falls into more than one product group. This Certificate covers only products, which fall into the product group and specific gravity, listed in the table above. Identification: In the standard configuration, described as compact, identification badges are located on the side of the electronic transmitter housing and on the neck support attaching the electronic housing to the sensor. The self-destructive badges contain the required information including: Model Number, Approval Number, Accuracy Class, Minimum and Maximum Flow Rate, and Minimum Measured Quantity. In the remote configuration, the identification badges are located on the electronic transmitter housing and on the sensor-wiring compartment. The self-destructive badges contain additional required information: Model Number, Approval Number, Accuracy Class, Minimum and Maximum Flow Rate, and Minimum Measured Quantity. Sealing: The remote access feature (used with remote Communication protocols) must be set for write protection when used in the operating mode. This allows information to be read but not changed in the device. Models Promass 63 and Promass 83: A cover plate is installed disabling the controls, then a wire seal shall be applied through the electronic housing and the display cover preventing the removal of the cover plate. Model Promass 84: When the device is in the secure mode (bottom of the display screen will show SECUR. ON ) no changes to calibration and configurations can be made. To allow changes the device must be removed from the secure mode by the removal of a chip located inside the electronic housing. A wire security seal may be applied through the electronic housing and the display cover to prevent removal of the chip. When the device is not in the secure mode (bottom of the display screen will show SECUR. OFF ) the following procedure may be used to place the device in the secure mode. From the normal operation screen press, E button to enter the programming menu Press + or keys to highlight User Interface press E to select Press + or keys to highlight Control press E to select, Press + or keys to highlight Un/locking press E to select Press + or keys to highlight Access code press E to select Press + or keys to highlight Def. Private Code press E to select

3 Page 3 of 7 Enter the code 8400 (press the + or keys to increase or decrease the value of each digit and press E to advance to the next digit) after the last digit is set, press E to enter the secure mode. The device will return to the normal operation screen (the display screen should now show SECUR.ON ) Model 100: The device is secured by moving a write protect position switch located on the circuit board inside the electronic housing under the black program data chip. A wire security seal may be applied through the electronic housing and the housing cover to prevent access to the wiring compartment and security switch. A pressure sensitive seal may be used in place of a wire seal by applying it across the seam between the access cover and the electronic housing. Model Designation: Model Number 63MT15-XXXX9XXXXXX 83M15-XXXXX9XXXXXX 84M15-XXXXXXXXXXXX *63MP15-XXXX9XXXXXX *83M15-XXXX9XXXXXX *84M15-XXXXXXXXXXXX 63FX15-XXXX9XXXXXX 83F15-XXXXX9XXXXXX 84F15-XXXXXXXXXXXX 8F1X15-XXXXXXXXXXXX9 63MT25-XXXX9XXXXXX 83M25-XXXXX9XXXXXX 84M25-XXXXXXXXXXXX *63MP25-XXXX9XXXXXX *83M25-XXXX9XXXXXX 63FX25-XXXX9XXXXXX 83F25-XXXXX9XXXXXX 84F25-XXXXXXXXXXXX 8F1X25-XXXXXXXXXXXX9 63MT40-XXXX9XXXXXX 83M40-XXXXX9XXXXXX 84M40-XXXXXXXXXXXX 63FX40-XXXX9XXXXXX 83F40-XXXXX9XXXXXX 84F40-XXXXXXXXXXXX 8F1X40-XXXXXXXXXXXX9 63MT50-XXXX9XXXXXX 83M50-XXXXX9XXXXXX 84M50-XXXXXXXXXXXX 63FX50-XXXX9XXXXXX 83F50-XXXXX9XXXXXX 84F50-XXXXXXXXXXXX 8F1X50-XXXXXXXXXXXX9 Model Number Meter Size Flow Rate (lb/min) [gal/min] 1/2 inch 12 to 240 [1.4 to 41] *2 to 55 1 inch 33 to 660 [4 to 113] *4 to /2 inch 82 to 1653 [10 to 284] 2 inch 128 to 2573 [15 to 442] Meter Size Flow Rate (lb/min) [gal/min] Minimum Measured Quantity, MMQ (lb) [gal] 12 [1.4] *3 33 [41] *4 82 [10] 128 [15] Minimum Measured Quantity, MMQ (lb) [gal]

4 Page 4 of 7 63MT80-XXXX9XXXXXX 83M80-XXXXX9XXXXXX 84M80-XXXXXXXXXXXX 63FX80-XXXX9XXXXXX 83F80-XXXXX9XXXXXX 84F80-XXXXXXXXXXXX 8F1X80-XXXXXXXXXXXX9 63FX1H-XXXX9XXXXXX 83F1H-XXXXX9XXXXXX 84F1H-XXXXXXXXXXXX 8F1X1H-XXXXXXXXXXXX9 83F1F-XXXXX9XXXXXX 84F1F-XXXXXXXXXXXX 8F1X1F-XXXXXXXXXXXX9 83F2F-XXXXX9XXXXXX 84F2F-XXXXXXXXXXXX 8F1X2F-XXXXXXXXXXXX9 3 inch 300 to 6600 [36 to 1133] 4 inch 6 inch 10 inch 640 to [77 to 2198] to [154 to 4 121] to [190 to 3 434] 300 [36] 640 [77] [154] [190] Any Position within the model number designated by an X is not a metrological feature. The T in Model 63MT designates the low-pressure sensor, P designates high-pressure sensor version. Model number digit 9 (11 th or 19 th position from left) designates a custody transfer digital electronics version. Promass M sensor has titanium flow tubes. Promass F flow sensor has alloy C or stainless steel flow tubes. * For use with CNG only. Operation: For normal liquids, a complete system includes the Promass 63, 83, 84 or 100 digital electronics and Promass sensor Models F or M. A Contrec 414 indicator/batch controller (Certificate of Conformance Number ), Contrec 1010 indicator/batch controller (Certificate of Conformance Number ), an AccuLoad III (Certificate of Conformance Number A4), or an approved compatible device may be used for display of delivery total, system control, and to provide a printer interface. For compressed liquids, the MID:COM MCR-05 (Certificate of Conformance Number A1) indicating element, or an approved compatible device, provides system control, printer interface, and displays delivery totals. The Promass 63, 83, or 84 display and touch control is used to access the programming matrix. An access code must be used before any parameter may be changed with the Promass 63, 83, or 84 digital electronics. The Promass 63, 83, and 84 digital electronics pulse output is configured for mass or volume flow when used with an optional, approved indicator. The Promass 63, 83, or 84 digital electronics display may be used as a non-resettable primary display. The Promass 100 digital electronics has no display and it is programmed using a computer connected through the service connection or the RJ45 connector. Process temperature range for the F Sensor: -300 F to 400 F. Process temperature range for the M Sensor: -60 F to 300 F. Test Conditions: This Certificate supersedes Certificate of Conformance Number A7 and is issued to add the Promass 100 transmitter and add cryogenic liquids. One three inch Promass 84F80 electronic transmitter and sensor was tested gravimetrically while delivering liquefied nitrogen gas (0.8 specific gravity; 1= water) in a stationary system. in a cryogenic laboratory facility. The emphasis of the evaluation was on design, operation, and performance of the system. Multiple test drafts were conducted. Results of the same flow rates were compared for repeatability. An acceptance tolerance of 1.5% was applied as specified above. Tests were repeated with the three inch Promass F sensor with a Promass 8X1B digital electronics was tested gravimetrically while delivering water (1.0 specific gravity) in a stationary system. Multiple test drafts were conducted at the flow rates. An acceptance tolerance of 0.2% was applied as specified above. Additionally, requirements for power interruption were evaluated. Previous test conditions are listed below for reference. Certificate of Conformance Number A7: This Certificate supersedes Certificate of Conformance Number A6 and is issued to remove the limitation of meter size for compressed liquids. This amendment is based on recommendations made by the

5 Page 5 of 7 NTETC Measuring Sector to change Section F. of NCWM Publication 14, Measuring Devices, Liquid Measuring Devices. The NTEP Committee approved this recommendation. No further testing is required. Certificate of Conformance Number A6: This Certificate supersedes Certificate of Conformance Number A5 and is issued to include compressed liquids to the products table. A one inch diameter Promass F sensor and Promass 83 digital electronics, connected to a separate primary indicating element (Model: MCR-05, Certificate of Conformance Number A1) and installed on a vehicle dispensing liquefied petroleum gas (specific gravity 0.510) was submitted for evaluation. The primary indicating element was connected to a printer. The emphasis of the evaluation was on design, operation, interaction with the indicating element, and performance of the system. Four tests each, using temperature compensated and uncompensated deliveries, at five different flow rates 7 spanning from 10 gpm to 70 gpm were conducted. Tests mentioned above were repeated after 49 days and a throughput of approximately gallons. Acceptance tolerance of 0.6 percent was applied to flow rates of 30 gpm and greater, and acceptance tolerance 1.0 percent special tests to flow rates less than 30 gpm as specified in the Mass Flow Meter Code of National Institute of Standards and Technology Handbook 44, 2007 Edition. Certificate of Conformance Number A5: This Certificate superseded Certificate of Conformance Number A4 and was issued to include the Promass 84 digital electronics. The emphasis of the evaluation was on design, operation, and performance of the system. A Promass 84F25 electronic transmitter and sensor was tested using an Accuload III (Certificate of Conformance Number A4) as the primary indicator in a laboratory facility. Four tests were performed at each of the following flow rates using water (specific gravity 1.0) as the test liquid: 163 kg/min, 106 kg/min, 61kg/min, 31kg/min, and 16 kg/min. With no change to the calibration, the device was also tested with varsol (specific gravity 0.7). Four tests were run at the following flow rates: 198 L/min, 127 L/min, 76 L/min, 32 L/min, and 16 L/min. After 30 days the device was retested utilizing the same criteria. An acceptance tolerance of 0.2 percent was applied as specified in the Mass Flow Meter Code of the National Institute of Standards and Technology Handbook 44, 2005 Edition. Certificate of Conformance Number A4: This Certificate superseded Certificate of Conformance Number A3 and was issued to include the Promass 83F1F and the non-resettable totalizer of the Promass 83 transmitter. The emphasis of the evaluation was on device design, performance and operation of the system. The Promass 83F1H electronic transmitter and sensor was tested at the manufacturer s laboratory using water as the test liquid (specific gravity 1.0). The meter was tested in the mass indication mode with 5 test drafts at 4 flow rates ranging from 649 lb/min to lb/min. The Promass 83 electronic transmitter non-resettable totalizer was used as the primary indicator. A Contrec Model 1010 indicator (Certificate of Conformance Number ) was used as a secondary display to indicate in pound units. After a throughput of over lbs the tests were repeated. A tolerance of 0.2 percent was applied as specified in the Mass Flow Meter Code of National Institute of Standards and Technology Handbook 44, 2004 Edition. Certificate of Conformance Number A3: This Certificate superseded Certificate of Conformance Number A2 and was issued to add mass approval for normal liquids to1.6 specific gravity. The emphasis of the evaluation was on device design, performance and operation of the system. The Promass 83F25 electronic transmitter and sensor was tested at a field installation using magnesium hydroxide (specific gravity 1.6) to determine the performance of the meter. The meter was tested in the mass indication mode with 3 test drafts at 4 flow rates. A Contrec 414 indicator (Certificate of Conformance Number ) was used as a primary indicator during the testing. After a throughput of over lbs the tests were repeated on the Promass 83F25 electronic transmitter and sensor. An acceptance tolerance of 0.2 percent was applied, as specified in the Mass Flow Meter Code of National Institute of Standards and Technology Handbook 44, 2004 Edition. Certificate of Conformance A2: This Certificate superseded Certificate of Conformance Number A1 and was issued to add mass flow electronic transmitter Promass 83, add mass and volumetric approval for normal liquids (0.7 to 1.0 specific gravity), and to include multiple normal liquid products with density variation of 0.3 specific gravity. The emphasis of the evaluation was on device design, performance and operation of the system. The Promass 83F25 electronic transmitter and sensor was tested in a laboratory facility using water (specific gravity 1.0) and varsol (specific gravity 0.7) to determine the performance of the meter. The meter was tested in both the mass and volumetric indication mode, with multiple test drafts at normal, intermediate, and slow delivery flow rates on each of the two fluids without a change in calibration factor or flow meter zero reference. An AccuLoad III indicator (Certificate of Conformance Number ) was used as a primary indicator during the testing. After a throughput of KG and 45 days the tests were repeated on the Promass 83F25 electronic transmitter and sensor. The Promass 83M25 was also tested in

6 Page 6 of 7 mass on water and varsol. An acceptance tolerance of 0.2 percent was applied as specified in the Mass Flow Meter Code of National Institute of Standards and Technology Handbook 44, 2004 Edition. Certificate of Conformance Number A1: This certificate supersedes Certificate of Conformance Number and was issued to include additional devices. The Promass 63MP15 was tested gravimetrically while dispensing compressed natural gas (0.6 to 0.8 specific gravity) from a stationary dispenser. The emphasis of the evaluation was on device design, operation, and performance. Multiple test drafts were conducted at various flow rates ranging from 2.0 lb/min to 44 lb/min while results of the same flow rates were compared for repeatability. An acceptance tolerance of 1.5% was applied as specified above. Additionally, requirements for power interruption and low-flow cut-off were evaluated. The tests were repeated after approximately 60 days and lb of throughput. Certificate of Conformance Number : The following Promass M and F sensors were tested in the manufacturers facility interfaced with a Contrec batch controller model 414D (CC No ) and Promass 63 digital electronics: the 1/2 inch flow meter, Models 63MT15 and 63FX15; the 1 inch flow meter, Models 63MT25 and 63FX25; the 1 1/2 inch flow meter, Models 63MT40 and 63FX40; and the 3 inch flow meter, Models 63MT80 and 63FX80. The tests were performed using water (specific gravity: 1) as the test liquid. The 63FX flow meters were initially tested on water at flow rates of 80 percent, 60 percent, 40 percent, 20 percent, and 5 percent. The 63MT flow meters were initially tested on water at flow rates of 80 percent, 40 percent and 5 percent. The 63FX flow meters, after a throughput of 2000 times the maximum flow rate of each meter size, were subsequently tested using water over the same flow rates as on the initial. An acceptance tolerance of 0.2 percent as specified in the Mass Flow Meter Code of the National Institute of Standards and Technology Handbook 44, 2001 Edition. Type Evaluation Criteria Used: NIST Handbook 44, 2014 Edition, NCWM Publication 14, 2014 Edition Tested By: R. Norman Ingram (CA) A1, A6; R. W. Wotthlie (MD) , A2; Dan Reiswig (CA) A3; John Roach (CA) A3; Charles Nelson (CA) A4; Michael Frailer (MD) A5, R. Norman Ingram (CA) A6; Allen Katalinic, (NC) A8 Conclusion: The results of the evaluations and information provided by the manufacturer indicate the devices comply with applicable requirements. Information Reviewed By: S. Patoray (NCWM) , A1, A2, A3, A4, A5, A6, A7; L. Bernetich (NCWM) A1, A4, A5, A6; J. Truex (NCWM) A7, A8

7 Page 7 of 7 Examples of Device: Example of Promass 83 Electronics: Example of Promass F Sensor: Example of Promass 84: Example of Promass 100:

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