Rosemount™ DP Level Transmitters and
1199 Diaphragm Seal Systems
Read this manual before working with the product. For personal and system safety, and for optimum
product performance, make sure the contents are fully understood before installing, using, or
maintaining this product.
For technical assistance, contacts are listed below:
Customer Central
Technical support, quoting, and order-related questions
United States — 1-800-999-9307 (7:00 am to 7:00 pm CST)
Asia Pacific — 65 777 8211
Europe/Middle East/Africa — 49 (8153) 9390
North American Response Center
Equipment service needs
1-800-654-7768 (24 hours—includes Canada)
Outside of these areas, contact your local Emerson
™
representative.
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May 2017
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3
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May 2017
Reference Manual
00809-0100-4002, Rev DA
Failure to follow these installation guidelines could result in death or serious injury.
Make sure only qualified personnel perform the installation.
Explosions could result in death or serious injury.
Do not remove the transmitter cover in explosive atmospheres when the circuit is live.
Before connecting a communicator in an explosive atmosphere, make sure the instruments in the
loop are installed in accordance with intrinsically safe or non-incendive field wiring practices.
Both transmitter covers must be fully engaged to meet explosion-proof requirements.
Verify the operating atmosphere of the transmitter is consistent with the appropriate hazardous
locations certifications.
Electrical shock could cause death or serious injury.
If the sensor is installed in a high-voltage environment and a fault or installation error occurs, high
voltage may be present on the transmitter leads and terminals.
Use extreme caution when making contact with the leads and terminals.
Process leaks could result in death or serious injury.
Install and tighten all four flange bolts before applying pressure.
Do not attempt to loosen or remove flange bolts while the transmitter is in service.
Replacement equipment or spare parts not approved by Emerson for use as spare parts could reduce
the pressure retaining capabilities of the transmitter and may render the instrument dangerous.
Use only bolts supplied or sold by Emerson as spare parts.
Improper assembly of manifolds to traditional flange can damage sensor module.
For safe assembly of manifold to traditional flange, bolts must break back plane of flange web (i.e.,
bolt hole) but must not contact module housing.
Sensor module and electronics housing must have equivalent approval labeling in order to
maintain hazardous location approvals.
When upgrading, verify sensor module and electronics housing certifications are equivalent.
Differences in temperature class ratings may exist, in which case the complete assembly takes the
lowest of the individual component temperature classes (for example, a T4/T5 rated electronics
housing assembled to a T4 rated sensor module is a T4 rated transmitter.)
The products described in this document are NOT designed for nuclear-qualified applications. Using
non-nuclear qualified products in applications that require nuclear-qualified hardware or products may
cause inaccurate readings.
For information on Rosemount nuclear-qualified products, contact your local Emerson Sales
Representative.
Individuals who handle products exposed to a hazardous substance can avoid injury if they are informed
of and understand the hazard. If the product being returned was exposed to a hazardous substance as
defined by OSHA, a copy of the required Material Safety Data Sheet (MSDS) for each hazardous
substance identified must be included with the returned goods.
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Section 1Introduction
1.1Using this manual
This manual is designed to assist in installing, operating, and maintaining the Rosemount™ 1199
Diaphragm Seal Systems for Pressure Transmitters and diaphragm seal systems that are part of
Rosemount DP Level Transmitters including the Rosemount 3051SAL, Rosemount 3051L and
Rosemount 2051L. The manual contains information about the seal system assemblies that are not
covered in the corresponding transmitter manuals. For information regarding transmitter configuration,
operation, and maintenance, reference the appropriate transmitter manual.
The information is organized into the following categories:
Section 2: Understanding Remote Seal Systems provides an overview of Remote Seal Systems.
Section 3: Installation contains mechanical and electrical installation instructions.
Section 4: Configuration outlines how to range a DP Level Remote Seal System.
Section 5: Fill Fluids Specifications describes the offering of fill fluids available with Remote Seal
Systems.
Section 6: Maintenance and Troubleshooting provides techniques for cleaning and maintaining the
system as well as addressing the most common operating problems.
Introduction
May 2017
Appendix A: Specifications and Reference Data provides performance, functional, and physical
specifications, as well as dimensional drawings, and ordering information.
See Rosemount DP Level Transmitters and 1199 Seal Systems Product Data Sheet
information on specific Rosemount Remote Seals.
A remote seal system consists of a pressure transmitter, a remote diaphragm, and either a direct mount
or capillary style connection filled with a secondary fill fluid.
1.2Product recycling/disposal
Recycling of equipment and packaging should be taken into consideration and disposed of in
accordance with local and national legislation/regulations.
DP Level is a reliable measurement solution for measuring level, density, interface, or mass of a process
media inside a tank.
Remote seal system measurement is unaffected by agitation, foam, or internal obstacles. Remote
diaphragm seals extend limitations due to process conditions such as high and low temperatures,
corrosive processes, viscous mediums, and hygienic applications.
2.2Terminology of system components
Figure 2-1 lists the basic components for seal assemblies.
Figure 2-1. Components on a Two and Single Seal Assembly
Two seal assemblySingle seal assembly
Understanding Remote Seal Systems
A. Pressure, differential pressure, or multivariable transmitter
B. Process flange
C. Remote diaphragm
D. Capillary
E. Flushing connection
F. D ir ec t mou nt
3
Understanding Remote Seal Systems
A
B
C
D
May 2017
Figure 2-2. FFW Seal and Components
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00809-0100-4002, Rev DA
A. Process flange
B. Diaphragm
C. Gasket
D. Flushing connection
2.3Understanding seal system performance
2.3.1Volume temperature effects (process temperature effects)
Fill fluids expand or contract with temperature changes, creating a volume change that is absorbed by
the diaphragm seal and is seen as back pressure at the transmitter. This back pressure creates a shift in
the transmitter reading. For symmetrical or balanced systems, this error is usually minimal due to the
back pressure being equal on both sides. However, head temperature effect is still present.
Note
Other factors that affect seal temperature effect include diaphragm thickness, seal type and size,
capillary length and inner diameter.
Figure 2-3 on page 5 shows how diaphragm size can affect the measurement reading at the transmitter.
For smaller seal sizes, such as the 1
additional 12.1 inH
has 0.5 inH
stable reading.
O error. Using a larger diaphragm can drastically improve performance and provides a more
2
O error. Moving to the 2-in. size gives 1.7 inH2O and the largest 3-in. size shown only
2
1
/2-in. size, the amount of back pressure on the transmitter causes an
Note
Calculations done in Instrument Toolkit™ with Silicone 200 fill fluid with Rosemount™ 3051 Transmitter.
4
Understanding Remote Seal Systems
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Figure 2-3. Back Pressure on Diaphragm Causing Error
Understanding Remote Seal Systems
May 2017
1½-in.
diapraghm
12.1 inH2O
(307 mmH
HEAT
O)
2
diapraghm
(43 mmH
2-in.
1.7 inH2O
HEAT
O)
2
3-in.
diapraghm
0.5 inH2O
(13 mmH
HEAT
O)
2
Note
Diaphragm temperature effects decrease as seal size increases.
2.3.2Density temperature effects (head temperature effects)
Density temperature effect is due to the change in specific gravity of the fill fluid caused by a change in
ambient temperature. When installed, the weight of the fill fluid will produce an initial pressure read by
the transmitter, equaling the height between the high and low connection taps multiplied by the fill
fluid's specific gravity. As ambient temperature changes, the fill fluid specific gravity will change causing
the weight of the fill fluid to change, thus changing the pressure read by the transmitter. Density effect
will be seen in both
Tu ne d- S ys te m
transmitter regardless of where the transmitter is mounted.
™
Assemblies and Balanced System Assemblies and will have the same impact on the
2.3.3System time response and performance
The time response of a system is based on the type of transmitter, its sensor range, the length and inner
diameter (ID) of the capillary, and the viscosity of the fill fluid (which is directly affected by the process
and ambient temperatures). These factors all play a role in the overall performance of any seal system.
The relationship between system time response and temperature error is illustrated in Figure 2-4. It can
be seen that changing the capillary ID has an inverse affect between the time response and temperature
effect of a capillary system. As the capillary ID is increased, the time response of the system decreases
while the temperature effect increases.
Understanding Remote Seal Systems
5
Understanding Remote Seal Systems
May 2017
Figure 2-4. Response Time vs. Total Performance Example
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00809-0100-4002, Rev DA
Note
Calculations conducted using Instrument Toolkit. Parameters: Silicone 200 fill fluid, Rosemount
3051CD2 Transmitter, 15 ft. capillary length, 2-in. FFW Seal, and calibrated at 25 °C.
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2.4Balanced vs. Tuned-System assemblies
A balanced remote seal system is a symmetrical system that utilizes equal seals and capillary length on
the high and low pressure sides of the transmitter. Since the capillary lengths are the same, each side
ideally has the same amount of fill fluid, minimizing or completely eliminating the seal temperature
effect due to equal pressure on both sides of the transmitter diaphragm. The balanced systems are still
affected by the head pressure as shown in Figure 2-5.
Figure 2-5. Balanced System
May 2017
+3.6 inH2O
(9.0 mbar)
No errorSeal temperature effect
(Cancels out)
+3.6 inH2O
(9.0 mbar)
Head temperature effect
Total temperature effect
on system
Note
Temperature effects were calculated in Instrument Toolkit using a 2-in. (DN 50) FFW seal, Silicone 200,
10 ft. (3 m) between the taps, over a 50 °F (28 °C) temperature change.
Tuned-Systems assemblies are asymmetrical remote seal systems with one seal directly mounted to the
high side of the differential pressure transmitter, and the other side connected to a seal via capillary.
Another possible Tuned-System assembly is any remote seal system with unequal lengths of capillary or
two different remote seals on the high and low pressure connections. Due to the unequal lengths of
capillary, there are seal temperature effects. However, this seal temperature effect counters the head
pressure from the oil-filled capillary and reduces total temperature effects on the entire system.
Figure 2-6. Tuned-System Assembly
Head temperature effect
Seal temperature effect
Total temperature effect
on system
Understanding Remote Seal Systems
+3.6 inH2O
(9.0 mbar)
-1.7 inH2O
(4.2 mbar)
+1.9 inH2O
(4.7 mbar)
7
Understanding Remote Seal Systems
May 2017
Note
Temperature effects were calculated in Instrument Toolkit using a 2-in. (DN 50) FFW seal, Silicone 200,
10 ft. (3 m) between the taps, over a 50 °F (28 °C) temperature change.
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2.5Specifying the right solution for vacuum applications
2.5.1Vacuum application overview
When a vessel is operating in a vacuum (negative gauge pressure), it is important to specify the correct
transmitter remote seal system to measure level accurately and reliably. Failure to do so can result in
output drift or complete system failure. The combination of high process temperature and vacuum
process pressure conditions creates additional requirements when specifying the transmitter remote
seal system.
2.5.2Vacuum applications
There are three primary transmitter-seal system components necessary to successfully specify vacuum
application solutions:
Seal system construction
Fill fluid selection
Transmitter mounting position
2.5.3Seal system construction for vacuum applications
Emerson™ offers welded-repairable or all-welded vacuum system construction styles on diaphragm seal
assembles.
The all-welded vacuum construction was designed specifically for vacuum applications. In this
construction, the sensor module gaskets are removed and a disk is welded over the sensor isolators. This
eliminates the possibility of air being drawn into the seal system in deep vacuum conditions. This
premium design is strongly suggested for vacuum pressures below 6 psia (310 mmHga).
2.5.4Transmitter mounting position
Mounting the pressure transmitter at or below the bottom vessel tap is an important factor to ensure a
stable measurement with vacuum applications. The static pressure limit for a differential pressure
transmitter is 0.5 psia (25 mmHgA), which ensures the transmitter sensor module fill fluid remains
within the liquid phase of the vapor pressure curve.
If the vessel static limit is below 0.5 psia, mounting the transmitter below the bottom tap provides a
capillary fill fluid head pressure on the module. A general rule is to always mount the transmitter
approximately 3 ft. (1 m) below the bottom tap of the vessel.
2.5.5Fill fluid selection
When the process is under vacuum conditions, the fill fluid can vaporize at a lower temperature than
when it is under normal atmospheric or greater pressure. Each fill fluid has a specific vapor-pressure
curve. The vapor-pressure curve indicates the pressure and temperature relationship where the fluid is in
a liquid or a vapor state. Proper seal operation requires the fill fluid to remain in a liquid state.
8
Understanding Remote Seal Systems
Reference Manual
A
BD
C
EF
A
B
C
D
E
00809-0100-4002, Rev DA
For vacuum applications, specify fluids that are specifically designed for use in these types of
applications such as Silicone 704 for vacuum applications, Silicone 705 for vacuum applications, or
UltraTherm
™
805 for vacuum applications. These fluids have been specially processed to deliver the
maximum vapor pressure curve performance possible. For more information on Rosemount Diaphragm
Seal fill fluids, reference the Rosemount 1199 Fill Fluid Specifications Tec hnical Note
2.6Diaphragm weld types
Weld-type is factory-determined as best for the seal typed specified. PFW and FFW seals have ordering
options that specify welding options.
2.6.1Solid faceplate design
The solid faceplate design is used when diaphragm and upper housing material are the same.
AB
AC
A. Material A
B. Upper housing
C. Diaphragm
D. TIG weld point
Understanding Remote Seal Systems
May 2017
.
D
2.6.2Seam weld design
A seam weld design is used when the upper housing material is different from the diaphragm material.
The seam welded design has a hermetic weld at the inner diameter of the diaphragm and a TIG weld at
the outer edge. The diaphragm floats on the upper housing over the gasket surface area and could tear if
a metallic gasket were used.
A. Material A
B. Material B
C. Upper housing
2.6.3Brazed design
This process uses a brazing ring where the metals are brazed to attach the diaphragm to the upper
housing. This allows the gasket surface area to solidify as it is melted to the upper housing.
This option is used with Tantalum diaphragm when a metallic gasket is required.
D. Diaphragm
E. TIG weld point
F. Se am wel d p oi nt
A. Material A
B. Tantalum
C. Upper housing
Understanding Remote Seal Systems
D. Brazing ring
E. Diaphragm
9
Understanding Remote Seal Systems
A
B
May 2017
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2.7Differences between electronic remote sensors and
capillary systems
Rosemount 3051S Electronic Remote Sensors (ERS™) System technology utilizes two Rosemount 3051S
Pressure Transmitters connected via an electrical wire instead of a single pressure transmitter with
remote seals and capillary tubing. As the Rosemount 3051S ERS System calculates the differential
pressure between the two transmitters, capillary tubing is not needed, and thus eliminates all head
temperature affects on the system. Seals are not required, but may still be necessary on certain
applications that include high temperature, corrosive, or viscous processes. For more information, refer
to the Rosemount 3051S Series Product Data Sheet
Figure 2-7. ERS vs. Capillary
Rosemount 3051S ERSTraditional capillary system
.
A. Non-proprietary electrical cable
B. Oil-filled capillary system
2.8Instrument Toolkit: seal ordering and application
process
Rosemount Instrument Toolkit Software is an instrumentation specification tool that can be used to
assist in product selection. This program analyzes application and process conditions against a
configured Rosemount model number and calculates the total system performance including expected
head and seal temperature effects and system response times.
Visit the Emerson website for information on how to obtain and use Instrument Toolkit.
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Understanding Remote Seal Systems
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Understanding Remote Seal Systems
May 2017
2.9Rosemount Thermal Range Expander: proper use and
applications
Figure 2-8. Rosemount Thermal Range Expander
The Rosemount Thermal Range Expander increases the application range where DP Level technology can
be used by expanding the ambient and process temperature ranges of the system.
Traditional remote seal systems are filled with a single fill fluid to operate in applications with varying
ambient and process conditions. Silicone 704 and 705 are commonly used fluids for hot process
applications going above 570 °F (300 °C); these fluids must be kept above 32 °F (0 °C) and 68 °F (20 °C),
respectively, in order to properly transmit the pressure signal to the transmitter. This can prove to be
difficult for outdoor installations where extremely cold ambient conditions cause these fill fluids to gel.
The Rosemount Thermal Range Expander is a seal system that uses two different fill fluids to extend the
operating temperature range of the system. A high temperature fill fluid, which is next to the hot
process, is kept warm enough to stay responsive. A second fill fluid, located on the other side of the
intermediate diaphragm, operates over a wide ambient temperature range. The Rosemount Thermal
Range Expander can operate in ambient temperatures as low as –75 °C (–103 °F), and process
temperatures up to 410 °C (770 °F). This improves response time up to 46 percent and eliminates the
need for mechanical heat tracing.
The Rosemount Thermal Range Expander can be used with any Rosemount 3051S DP Level configuration
including Balanced Systems, Tuned-System Assembles, Electronic Remote Sensors (ERS), or direct
mounted to a transmitter.
Figure 2-9. Rosemount Thermal Range Expander Fill Fluids
A. Intermediate diaphragm
B. High temperature fill fluid (viscous)
C. Ambient temperature fill fluid
Understanding Remote Seal Systems
11
Understanding Remote Seal Systems
May 2017
Figure 2-10. Rosemount Thermal Range Expander Temperature Operating Range
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2.10Thermal optimizer: proper use and applications
Figure 2-11. Thermal Optimizer
The thermal optimizer keeps fill fluids from gelling in cold ambient temperatures by using high process
temperatures to heat the transmitter and capillary.
High temperature silicone fill fluid has a low temperature limit in ambient conditions below 32 °F (0 °C).
The thermal optimizer allows direct mounting down to –94 °F (–70 °C).
12
Understanding Remote Seal Systems
Reference Manual
212 °F (100 °C)
176 °F (80°C)
140 °F (60 °C)
104 °F (40 °C)
68 °F (20 °C)
32 °F (0 °C)
-4 °F (-20 °C)
-40 °F (-40 °C)
-76 °F (-60 °C)
-112 °F (-80 °C)
212 °F (100 °C)
176 °F (80°C)
140 °F (60 °C)
104 °F (40 °C)
68 °F (20 °C)
32 °F (0 °C)
-4 °F (-20 °C)
-40 °F (-40 °C)
-76 °F (-60 °C)
-112 °F (-80 °C)
32 °F (0 °C)
122 °F (50 °C)
302 °F (150 °C)
482 °F (250 °C)
622 °F (350 °C)
842 °F (450 °C)
401 °F (205 °C)
185 °F (85 °C)
185 °F (85 °C)
599 °F (315 °C)
-58 °F (-50 °C)
91 °F (33 °C)
Process temperature °F (°C)
Ambient temperature °F (°C)
Ambient temperature °F (°C)
Process temperature °F (°C)
122 °F (50 °C)
302 °F (150 °C)
482 °F (250 °C)
622 °F (350 °C)
842 °F (450 °C)
185 °F (85 °C)
185 °F (85 °C)
-58 °F (-50 °C)
401 °F (205 °C)
-69 °F (-56 °C)
-76 °F (-60 °C)
68 °F (20 °C)
662 °F (350 °C)
68 °F (20 °C)
68 °F (20 °C)
698 °F (370 °C)
77 °F (25 °C)
00809-0100-4002, Rev DA
Figure 2-12. Fill Fluid Temperature Limits
Thermal optimizer with Silicone 704 Thermal optimizer with Silicone 705
Understanding Remote Seal Systems
May 2017
2.10.1Thermal optimizer limitations
2.11Submersible seal
2.11.1Designed for top-down measurement
Understanding Remote Seal Systems
Figure 2-12 shows the process and ambient temperature limits for the thermal optimizer with Silicone
704 and Silicone 705 Fill Fluids respectively. The shaded areas represent the temperature limitations;
applications outside of the shaded area cannot be used with a thermal optimizer.
For example, an application with an ambient temperature of 50 °F (10 °C) and a process temperature of
300 °F (149 °C) is within the limits, a thermal optimizer can be used in this application.
However, an application with an ambient temperature of 120 °F (40 °C) and a process temperature of
464 °F (240 °C) is outside of the limits. These high temperatures would be detrimental to the transmitter
electronics.
The submersible seal consists of a bellows-style seal and is designed for measuring level in top-down
applications with small tank connections, specifically 1.5-in. NPT threaded connections or 2- to 4-in.
flanges. For tanks with larger connections or open process measurements, an RTW seal should be
specified as it will provide a more accurate measurement.
Apart from traditional DP Level transmitters, this new design has both the seal and capillary submersed
in the process as shown below. Traditional DP Level seal systems are side mounted to tanks such that the
diaphragm seal is the only wetted material that comes in direct contact with the process fluid.
This assembly can only be ordered with Rosemount in-line transmitters for gage measurements.
Differential and absolute measurements are not available.
13
Understanding Remote Seal Systems
A
B
C
D
E
May 2017
2.11.2Submersible Seal features
Specifically designed for top-down process measurements
Bellows-style seal absorbs pressures efficiently for smaller process connections
Threaded or flanged process connections
Uses proven and reliable DP Level remote seals
Up to 30 ft. (9,1m) of capillary
Figure 2-13. Rosemount Submersible Seal attached to a Rosemount 3051T Wireless Pressure
Additional specialized remote seals are available. Contact Emerson
information on these seals.
3.1Seals handling and installation
3.1.1Diaphragm
The remote seal diaphragm is designed to withstand pressure and wear from process, but outside of
process connection conditions, remote seals are delicate and should be handled with care.
The protective cover should remain on the seal until the moment before installation. Try to avoid
touching the diaphragm with fingers or objects and refrain from setting the diaphragm side of the seal
down on a hard surface.
Installation
™
Technical Support for installation
15
Installation
May 2017
Even minor dents or scratches in the diaphragm material may impair the performance of the seal system
assembly. Care should be taken to ensure the seal diaphragm is not dented or damaged during seal
installation.
3.1.2Capillary
When unpacking or handling seal system assemblies, do not lift the seal or transmitter by gripping the
capillaries. Avoid sharply bending or crimping the capillary tubing. The minimum bending radius of the
capillary tubing is 3-in. (8 cm).
3.1.3Rosemount Thermal Range Expander
The Rosemount™ Thermal Range Expander system uses the heat from the process in order to keep both
fluids within the system functioning properly; therefore insulation is not always required. However, it is
always best practice to insulate systems to keep them functioning with optimum performance. The
Rosemount Thermal Range Expander should never be insulated above the line marked on the seal itself.
Figure 3-1. Rosemount 3051SAL with Rosemount Thermal Range Expander Insulation Guidelines
Rosemount 3051SAL with Thermal Range Expander
Reference Manual
00809-0100-4002, Rev DA
Marking:
“Do Not Insulate
Above this Line”
Ok to
Insulate
3.1.4Heat tracing
When using heat or steam tracing, exercise caution if PVC coating is added onto capillary, as PVC coating
should not be exposed to temperatures above 212 °F (100 °C) to avoid the possibility of thermal
breakdown.
Best practice for heat and steam tracing is to regulate the temperature slightly above the maximum
ambient temperature for a consistent result. To avoid accuracy effects and thermal stress, the capillary
should not be partially heated.
Do Not
Insulate
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NEVER attempt to disconnect the seals or capillaries from the transmitter or loosen bolts. Doing so will
result in loss of fill fluid and will void the product warranty.
Failing to recognize incorrect materials during installation may cause process leaks, which can result in
damage to the diaphragm seal system or death and/or serious injury to personnel. Proper wetted
material is required for specific process materials.
3.2Gaskets
When installing remote seal systems which employ a gasket or a gasket and flushing connection ring,
make sure the gasket is aligned properly on the gasket sealing surface.
The user is responsible to ensure the gasket used does not exceed the temperature limits of the process.
Failure to properly install the gasket may cause process leaks, which can result in death or serious injury.
In addition, make sure the gasket does not press down upon the diaphragm face. Anything pressing on
the diaphragm will be read by the transmitter as pressure. A misaligned gasket may cause a false reading.
Installation
May 2017
The intermediate gasket between the seal and lower housing is supplied when the lower housing or
flushing connection is provided. The default gaskets are listed in Tab l e 3 -1 based on seal type. The
process gasket must be supplied by the end user. Tantalum diaphragms are not supplied with default
gasket, so a gasket option must be selected when applicable.
If a lower housing is supplied, then the following gaskets are the default gaskets for each seal unless
another gasket option is selected.
Table 3-1. Gaskets Materials
Seal typeGaskets
Flanged seals assemblies
FFWThermo-Tork® TN-9000
RFWKlinger C-4401
EFWNo gasket is supplied
PFWThermo-Tork TN-9000
FCWNo gasket is supplied
RCWKlinger C-4401
FUW/FVWNo gasket is supplied
Threaded seal assemblies
RTWKlinger C-4401
HTSNo gasket is supplied
Hygienic seal assemblies
(1)
SCW
SSWEthylene propylene O-ring
STWEthylene propylene O-ring
EESNo gasket is supplied
(1)
VCS
(1)
SVS
SHPNo gasket is supplied
(1)
SLS
(1)
MLS
No gasket is supplied
No gasket is supplied
No gasket is supplied
No gasket is supplied
No gasket is supplied
Installation
17
Installation
May 2017
Table 3-1. Gaskets Materials
Specialty seals
WSPKlinger C-4401
UCPBarium-Sulfate filled PTFE O-ring
CTWNo gasket is supplied
TFWNo gasket is supplied
WFWKlinger C-4401
1. Ensure to use EHEDG approved gasket for EHEDG conformity.
Note
The end-user is responsible for choosing a gasket and ensuring the process temperature does not exceed
the temperature limits of the gasket used. Failure to properly install the gasket may cause process leaks,
which can result in death or serious injury.
3.3Tagging
Each remote seal system is tagged in accordance with the end-user requirements.
The remote seal model number is identified on the transmitter label, shown in Figure 3-2, 3-3, and 3-4.
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Figure 3-2. Rosemount 3051S Sample Label
Figure 3-3. Rosemount 3051 Sample Label
Figure 3-4. Rosemount 2051 Sample Label
3.3.1Max working pressure
The maximum working pressure (MWP) of the seal system assembly is stamped on the transmitter neck
tag. This can be dependent upon the maximum pressure rating of the seal system or transmitter upper
range limit.
18
Installation
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