For technical assistance, phone the Micro Motion Customer Service department:
• In the U.S.A., phone 800-522-MASS (800-522-6277) (toll free)
• In Canada and Latin America, phone +1 303-527-5200 (U.S.A.)
•In Asia:
-In Japan, phone 3 5769-6803
-In other locations, phone +65 6777-8211 (Singapore)
•In Europe:
-In the U.K., phone 0870 240 1978 (toll-free)
-In other locations, phone +31 (0) 318 495 555 (The Netherlands)
Customers outside the U.S.A. can also email Micro Motion customer service at
International.MMISupport@EmersonProcess.com.
Troubleshooting
Refer to the transmitter configuration and use manual for troubleshooting help.
Sensor Installation: F-Series1
Before You Begin
Specifications
Full product specifications can be found in the F-Series Product Data Sheet, which is available from the
Micro Motion web site at www.micromotion.com.
Definitions
The term MVD
™
transmitter refers to the following transmitter models:
• Models 1500, 1700, 2500, and 2700
• Models 3500 and 3700
The term high-temperature sensor refers to the following F-Series models:
• F025A and F025B
• F050A and F050B
• F100A or F100B
The term extreme high-temperature sensor refer to the following F-Series models:
• F025C and F025E
• F050C and F050E
• F100C and F100E
European installations
This Micro Motion product complies with all applicable European directives when properly installed in
accordance with the instructions in this manual. Refer to the EC declaration of conformity for directives that
apply to this product.
The EC declaration of conformity, with all applicable European directives, and the complete ATEX Installation Drawings and Instructions are available on the internet at www.micromotion.com/atex or
through your local Micro Motion support center.
Information affixed to equipment that complies with the Pressure Equipment Directive can be found on the
internet at www.micromotion.com/library.
Installation options
The F-Series sensor makes up one part of a Coriolis flowmeter. The other part is a transmitter. F-Series
sensors are available with the following electronics interfaces:
• An integral core processor for connecting to a 4-wire remotely mounted transmitter or to a
user-supplied remote host (Figure 1).
• An integral Model 1700 or 2700 transmitter (Figure 2).
• A 9-wire junction box for connecting to a remotely mounted transmitter or a remotely mounted core
processor (Figure 3).
• An integrally mounted IFT9701 transmitter (Figure 4).
• High-temperature and extreme high-temperature models are equipped with a flexible conduit, on
which can be mounted a Model 1700/2700 transmitter, a core processor, or a junction box (Figure 5).
2Sensor Installation: F-Series
Figure 1F-Series sensor with core processor
Approval tag
Flow direction arrow
Core processor housing
Calibration tag
Process connection
Approval tag
Calibration tag
Core processor housing
Purge fitting
Purge fitting
Sensor with purge fittings
Before You Begin
Sensor Installation: F-Series3
Before You Begin
Model 1700/2700 transmitter
Approval tag
Flow direction arrow
Core processor housing
Calibration tag
Process connection
Calibration tag
Approval tag
Purge fitting
Purge fitting
Model 1700 or 2700 transmitter
Sensor with purge fittings
Figure 2F-Series sensor with integrally mounted Model 1700/2700 transmitter
4Sensor Installation: F-Series
Figure 3F-Series sensor with junction box
Junction box
Approval tag
Flow direction arrow
Approval tag
Process connection
Calibration tag
Purge fitting
Purge fitting
Junction box
Sensor with purge fittings
Calibration tag
Before You Begin
Sensor Installation: F-Series5
Before You Begin
Calibration tag
Flow direction arrow
Model IFT9701 transmitter
Approval tag
Process
connection
Model IFT9701 transmitter
Approval tag
Calibration tag
Purge fitting
Purge fitting
Sensor with purge fittings
Figure 4F-Series sensor with integrally mounted IFT9701 transmitter
6Sensor Installation: F-Series
Figure 5High-temperature or extreme high-temperature F-Series sensor with
Flow direction arrow
Transmitter, core processor, or
junction box (core processor
shown)
Calibration tag
Process
connection
Flexible conduit
Approval tag
flexible conduit
Before You Begin
Sensor Installation: F-Series7
Determining a Location
Step 1Determining a Location
Choose a location for the sensor based on the requirements described in this section. The following general
guidelines can help you select an appropriate location for the sensor.
Full flow tubes
For optimal performance, the sensor tubes should remain full of process fluid.
Hazardous area installations
Make sure the hazardous area specified on the sensor approval tag is suitable for the environment in which the
sensor is installed (see Figures 1–5). For installation in an area that requires intrinsic safety, refer to the
appropriate Micro Motion approval documentation, shipped with the sensor or available from the
Micro Motion web site at www.micromotion.com.
Improper installation in a hazardous area can cause an explosion. When installing in a hazardous area,
refer to Micro Motion approvals instructions, shipped with the product or available from the Micro
Motion web site. For hazardous installations in Europe, refer to standard EN 60079-14 if national
standards do not apply.
Environmental limits
The ambient and process temperature limits of the sensor are shown in Figures 6 and 7:
• For F-Series sensor models other than high-temperature and extreme-high temperature models, see
Figure 6.
• For high-temperature and extreme high-temperature F-Series sensors, see Figure 7.
8Sensor Installation: F-Series
Determining a Location
Maximum process temperature in °F (°C)
Mount electronics remotely; use junction box
–148 (–100)
–112 (–80)
–76 (–60)
–40 (–40)
–4 (–20)
32 (0)
68 (20)
104 (40)
140 (60)
176 (80)
–148 (–100)
–76 (–60)
–4 (–20)
68 (20)
140 (60)
248 (120)
91 (33)
Mount electronics remotely; use junction box
Notes:
1. When ambient temperature is below –40 °F (–40 °C), a core processor must be heated to bring its local ambient
temperature to between –40 °F (–40 °C) and +140 °F (+60 °C). Long-term storage of electronics at ambient
temperatures below –40 °F (–40 °C) is not recommended.
2. Temperature limits may be further restricted by hazardous area approvals.
3. The temperature extender option allows the sensor case to be insulated without covering the transmitter, core processor,
or junction box, but does not affect temperature ratings.
158 (70)
392 (200)
–112 (–80)
–40 (–40)
32 (0)
104 (40)
212 (100)
284 (140)
320 (160)
356 (180)
176 (80)
Ambient temperature of core processor or
transmitter in °F (°C)
Figure 6F-Series sensor ambient and process temperature limits (all models except
high-temperature and extreme high-temperature models)
Sensor Installation: F-Series9
Determining a Location
–148 (–100)
–112 (–80)
–76 (–60)
–40 (–40)
–4 (–20)
32 (0)
68 (20)
104 (40)
140 (60)
176 (80)
–150 (–100)
32 (0)
392 (200)
752 (400)
932 (500)
572 (300)
800 (427)
Mount electronics remotely; use junction box
212 (100)
High-temp. models
Extreme high-temp. models
Maximum process temperature in °F (°C)
Ambient temperature of core processor or
transmitter in °F (°C)
Notes:
1. When ambient temperature is below –40 °F (–40 °C), a core processor must be heated to bring its local ambient
temperature to between –40 °F (–40 °C) and +140 °F (+60 °C). Long-term storage of electronics at ambient
temperatures below –40 °F (–40 °C) is not recommended.
2. Temperature limits may be further restricted by hazardous area approvals.
662 (350)
Figure 7F-Series sensor ambient and process temperature limits (high-temperature and
extreme high-temperature models)
Hazardous area approvals may impose additional limits on ambient and process temperature. For the ATEX
“T” rating, refer to the ATEX documentation shipped with the sensor or available on the Micro Motion web
site at www.micromotion.com. IECEx and NEPSI approvals also use the ATEX “T” rating. UL and CSA
ambient temperature limits are listed in Table 1.
Table 1UL and CSA ambient temperature limits
ULF025, F050, F100, F200Junction box or
CSAAll models except
Sensor modelsElectronics°F°C
high-temperature or extreme
high-temperature models
High-temperature and extreme
high-temperature models
IFT9701 transmitter
Junction box
IFT9701 transmitter
Core processor or Model
1700/2700 transmitter
All options–40 to +140–40 to +60
–4 to +104–20 to +40
+140 maximum+60 maximum
–40 to +140–40 to +60
10Sensor Installation: F-Series
Determining a Location
Maximum wiring distances
If the transmitter is mounted remotely from the sensor, the maximum distance between the sensor and
transmitter depends on cable type. See Table 2.
For high-temperature and extreme high-temperature F-Series sensors, note the following:
• For sensors with a Model 1700/2700 transmitter, the transmitter is considered to be integrally mounted
on the sensor, so Table 2 does not apply.
• For sensors with a junction box or core processor, the limits in Table 2 apply only to the wiring
between the junction box or core processor and a remotely mounted transmitter. The length of the
flexible conduit on which the junction box or core processor is mounted does not need to be
considered.
Table 2Maximum cable lengths
Cable typeWire sizeMaximum length
Micro Motion 9-wire to an MVD
transmitter or core processor
Micro Motion sensors do not require a straight run of pipe upstream or downstream.
Valves
After the sensor and transmitter have been installed, you must perform the zeroing procedure. During the
zeroing procedure, flow through the sensor must be halted and the sensor tubes must be completely full of
process fluid. A shutoff valve, downstream from the sensor, is recommended to halt flow during the zeroing
procedure. For more information about zeroing, refer to the instruction manual shipped with the transmitter.
Sensor Installation: F-Series11
Orienting the Sensor
Liquids
Tubes down
Horizontal pipeline
Gases
Tubes up
Horizontal pipeline
Slurries and
self-draining applications
Flag mount
Vertical pipeline
Flow
Step 2Orienting the Sensor
The sensor will function properly in any orientation if the sensor tubes remain filled with process fluid.
Micro Motion recommends orienting F-Series sensors as shown in Figure 8.
Figure 8Recommended sensor orientations
Self-draining applications
The F-Series sensor is self-draining when it is installed in a vertical pipeline (see Figure 8). For CIP
applications it is recommended to use the generally accepted flow velocity of at least 1.5 m/sec for cleaning
the sensor.
Flow direction arrow
The sensor has a flow direction arrow (see Figures 1–5) to help you configure the transmitter for flow
direction. If possible, install the sensor so that the flow direction arrow matches actual process flow.
Vertical pipeline
If the sensor is installed in a vertical pipeline, liquids and slurries should flow upward through the sensor.
Gases may flow upward or downward.
12Sensor Installation: F-Series
Mounting the Sensor
Step 3Mounting the Sensor
Use your common practices to minimize torque and bending load on process connections. Figure 9 illustrates
how to mount the sensor. To reduce the risk of condensation or excessive moisture, the conduit opening
should not point upward (if possible). The conduit opening of the junction box or core processor can be
rotated freely to facilitate wiring.
Figure 9Mounting an F-Series sensor
Sensor Installation: F-Series13
Mounting the Sensor
Mounting
bracket
(wall mount)
Use 4 × 5/16″ (8 mm)
bolts to secure the
bracket to a wall
Slide the electronics into the
bracket groove.
Mounting
bracket
(instrument pole)
Use 2 × 5/16″ (8 mm)
U-bolts to secure the
bracket to an
instrument pole
Secure the electronics to the
bracket with the 4 #10 screws.
Mounting the electronics of high-temperature and extreme high-temperature sensors
High-temperature and extreme high-temperature F-Series sensors come with a 32″ (812 mm) pre-installed
flexible conduit. This conduit is required for agency approval.
A factory-supplied Model 1700/2700 transmitter, core processor, or junction box is connected to the end of
the flexible conduit. Mount the electronics to a wall or instrument pole using the supplied bracket (Figure 10).
Figure 10Electronics mounting for high-temperature F-Series sensors
14Sensor Installation: F-Series
Step 4Wiring
Improperly sealed housings can expose electronics to moisture, which can cause measurement error
or flowmeter failure. Inspect and grease all gaskets and O-rings. Fully close and tighten all housing
covers and conduit openings.
Installation options
The sensor has one of the following electronics configurations:
• An integral Model 1700/2700 or IFT9701 transmitter. No wiring is required between the sensor and
the transmitter. Skip to Grounding on page 19.
• A core processor to a 4-wire remote transmitter (requires 4-wire cable); see Core processor to a 4-wire remote transmitter, below.
• A core processor to a remote host (requires 4-wire cable); refer to the Micro Motion MVD
™
Connect
Flowmeter Installation Manual.
• A junction box to a 9-wire remote transmitter (requires 9-wire cable); see Junction box to a 9-wire
remote transmitter or remote core processor on page 18.
™
Wiring
Direct
Core processor to a 4-wire remote transmitter
Follow the steps below to connect the 4-wire cable between the core processor and the transmitter.
1. Use one of the following methods to shield the wiring from the core processor to the transmitter:
• If you are installing unshielded wiring in continuous metallic conduit that provides 360°
termination shielding for the enclosed wiring, go to page 17 (step 6 of the wiring procedure).
• If you are installing a user-supplied cable gland with shielded cable or armored cable, terminate
the shields in the cable gland. Terminate both the armored braid and the shield drain wires in the
cable gland. Never connect the drain wires to the internal ground screw of the core processor. Go
to page 17 (step 6 of the wiring procedure).
• If you are installing a Micro Motion-supplied cable gland at the core processor housing:
- Prepare the cable and apply shielded heat shrink as described below. The shielded heat shrink
provides a shield termination suitable for use in the gland when using cable whose shield
consists of foil and not a braid. Proceed to step 2 of the wiring procedure, below.
- With armored cable, where the shield consists of braid, prepare the cable as described below,
but do not apply heat shrink. Proceed to step 2 of the wiring procedure, below.
2. Remove the cover from the core processor housing.
3. Slide the gland nut and the clamping insert over the cable.
Sensor Installation: F-Series15
Wiring
4 1/2 in
(114 mm)
3/4 in
(19 mm)
7/8 in
(22 mm)
7/8 in
(22 mm)
Shielded heat shrink
Gland body
Gland nut
Gland clamping
insert
Figure 11Micro Motion cable gland and heat shrink
4. For connection at the core processor housing, prepare shielded cable as follows (for armored cable,
omit steps d, e, f, and g):
a. Strip 4 1/2 inches (114 mm) of cable jacket.
b. Remove the clear wrap that is inside the cable jacket, and remove the filler material between the
wires.
c. Remove the foil shield that is around the insulated wires, leaving 3/4 inch (19 mm) of foil or braid
and drain wires exposed, and separate the wires.
d. Wrap the shield drain wire(s) around the exposed foil twice. Cut off the excess wire.
Figure 12Wrapping the shield drain wires
e. Place the shielded heat shrink over the exposed shield drain wire(s). The tubing should completely
cover the drain wires.
f. Without burning the cable, apply heat (250 °F or 120 °C) to shrink the tubing.
16Sensor Installation: F-Series
Wiring
Figure 13Applying the heat shrink
g. Position gland clamping insert so the interior end is flush with the heat shrink.
h. Fold the cloth shield or braid and drain wires over the clamping insert and approximately 1/8 inch
(3 mm) past the O-ring.
Figure 14Folding the cloth shield
i. Install the gland body into the core processor housing conduit opening.
Figure 15Gland body and core processor housing
5. Insert the wires through the gland body and assemble the gland by tightening the gland nut. If desired,
leave sufficient wire length inside the core processor housing to allow the housing to rotate without
damaging the wires.
6. Identify the wires in the 4-wire cable. The 4-wire cable supplied by Micro Motion consists of one pair
of 18 AWG (0,80 mm
pair of 22 AWG (0,35 mm
2
) wires (red and black), which should be used for the VDC connection, and one
2
) wire (green and white), which should be used for the RS-485 connection.
Connect the four wires to the numbered slots on the core processor (Figure 16).
Sensor Installation: F-Series17
Wiring
Core processor housing internal ground screw
• For connections to earth ground (if core processor cannot be grounded via sensor piping
and local codes require ground connections to be made internally)
• Do not connect shield drain wires to this terminal
Terminal 1
Power supply + (Red wire)
Terminal 2
Power supply – (Black wire)
Terminal 3
RS-485A (White wire)
Ter mi nal 4
RS-485B (Green wire)
Figure 16Connecting the wires at the core processor
7. Reinstall and tighten the core processor housing cover.
8. Additional wiring instructions for the transmitter can be found in the transmitter manual.
Note: Never ground the 4-wire cable shield and shield drain wire(s) at the transmitter.
Junction box to a 9-wire remote transmitter or remote core processor
Follow the steps below to connect the 9-wire cable between the sensor and the transmitter or core processor.
1. Prepare and install the cable according to the instructions in Micro Motion’s 9-Wire Flowmeter Cable Preparation and Installation Guide.
2. Insert the stripped ends of the individual wires into the terminal blocks. No bare wires should remain
exposed.
3. Match the wires color for color. For wiring at the transmitter or remote core processor, refer to the
transmitter documentation.
4. Tighten the screws to hold the wires in place.
5. Ensure integrity of gaskets, then tightly close and seal the junction box cover and all housing covers on
the transmitter or core processor.
18Sensor Installation: F-Series
Grounding
Step 5Grounding
The sensor can be grounded via the piping if the joints in the pipeline are ground-bonded. If the sensor is not
grounded via the piping, connect a ground wire to the internal or external grounding screw, which is located
on the core processor housing or junction box.
Improper grounding can cause measurement error. Ground the flowmeter to earth, or follow ground
network requirements for the facility.
If national standards are not in effect, follow these guidelines to ground the sensor:
• Use copper wire, 14 AWG (2,0 mm²) or larger wire size for grounding.
• Keep all ground leads as short as possible, less than 1 ohm impedance.
• Connect ground leads directly to earth, or follow plant standards.
Pressure Ratings at High Temperatures
Table 3 shows the pressure ratings for F-Series sensors at high temperatures.
Table 3F-Series pressure ratings at high temperatures
EN-1092 flangePressure rating (bar)
≤
PNType Facing DescriptionASTM
material
4011
10011
100/
16011weld
4032/02
1. Pressure rating limited by flange (for 316 sensor tubes).
2. Pressure rating limited by sensor tube for sensor type F025S, F050S, F050A, F050C.
3. Pressure rating limited by flange for sensor type F025A, F025C, F025P, F050P.
If the sensor has purge fittings, they should remain sealed at all times. After a purge plug has been removed,
the sensor case should be purged with argon or nitrogen and resealed.
Purging the case protects internal components. The sensor is purged of all oxygen and sealed at the factory. If
the purge plugs are never removed, it is not necessary to purge or re-seal the sensor. For more information,
contact Micro Motion Customer Service.
Removing a purge plug
If a purge plug is removed from the sensor case, it will be necessary to repurge the case.
Removing a purge plug compromises the secondary containment of the sensor and could expose the
user to process fluid. Take all necessary precautions when removing purge plugs.
Improper pressurization of the sensor case could result in personal injury. Removing a purge plug will
require the sensor case to be repurged with a dry inert gas. Follow all instructions provided in the case
purging procedure.
Case purging procedure
Read all instructions before performing the case purging procedure. It is not necessary to perform this
procedure unless a purge plug has been removed.
1. Shut down the process, or set control devices for manual operation.
Performing the purge procedure while the flowmeter is operating could affect measurement accuracy,
resulting in inaccurate flow signals. Before performing the case purging procedure, shut down the
process, or set control devices for manual operation.
2. Remove both purge plugs from the sensor case. If purge lines are being used, open the valve in the
purge lines.
3. Prepare the purge plugs for reinstallation by wrapping them with 3–5 turns of Teflon
®
tape.
4. Connect the supply of nitrogen or argon gas to the inlet purge connection or open inlet purge line.
Leave the outlet connection open.
• Exercise caution to avoid introducing dirt, moisture, rust, or other contaminants into the sensor
case.
• If the purge gas is heavier than air (for example, argon), locate the inlet lower than the outlet, so the
purge gas will displace air from bottom to top.
• If the purge gas is lighter than air (such as nitrogen), locate the inlet higher than the outlet, so the
purge gas will displace air from top to bottom.
5. Make sure there is a tight seal between the inlet connection and sensor case, so air cannot be drawn by
suction into the case or purge line during the purging process.
6. The purge time is the amount of time required for full exchange of atmosphere to inert gas. For each
sensor size, the purge time is different. Refer to Table 4. If purge lines are being used, increase the
purge time to fill the additional volume of the purge line.
7. Avoid pressurizing the sensor case. At the appropriate time, shut off the gas supply, then immediately
seal the purge outlet and inlet connections with the purge plugs. If pressure inside the case elevates
above atmospheric pressure during operation, the flowmeter density calibration will be inaccurate.
20Sensor Installation: F-Series
Table 4Time required to purge F-Series sensor cases
Purge Fittings
Sensor model
F02520 (566)4 1/2
F05020 (566)4 1/2
F10020 (566)6
F20020 (566)15
F30020 (566)25
(1) If purge lines are being used, increase purge time to fill the additional volume.
Purge rate
ft3/hr (l/hr)
(1)
Time
minutes
8. Make sure the purge fitting seals are tight so air cannot be drawn by suction into the sensor case.
Sensor Installation: F-Series21
Return Policy
Return Policy
Micro Motion procedures must be followed when returning equipment. These procedures ensure legal
compliance with government transportation agencies and help provide a safe working environment for Micro
Motion employees. Failure to follow Micro Motion procedures will result in your equipment being refused
delivery.
Information on return procedures and forms is available on our web support system at
www.micromotion.com, or by phoning the Micro Motion Customer Service department.
New and unused equipment
Only equipment that has not been removed from the original shipping package will be considered new and
unused. New and unused equipment requires a completed Return Materials Authorization form.
Used equipment
All equipment that is not classified as new and unused is considered used. This equipment must be completely
decontaminated and cleaned before being returned.
Used equipment must be accompanied by a completed Return Materials Authorization form and a
Decontamination Statement for all process fluids that have been in contact with the equipment. If a
Decontamination Statement cannot be completed (e.g., for food-grade process fluids), you must include a
statement certifying decontamination and documenting all foreign substances that have come in contact with
the equipment.