Varec In-Line Detonation Flame Arresters Manufactured by Westech.

WESTECH
In-Line Detonation
Flame Arresters
Manufactured by
Westech
Flow Control
E
xplosions due to flame arrester failures are destructive, expensive and
potentially deadly. Prior to 1989, no arrester provided protection against all types of
flame propagation. In fact, no practical technology existed for testing detonation
flame arresters used in piping systems. Existing flame arrester standards were
clearly inadequate for in-line applications. Improper arrester selection and
application lead to storage tank and processing unit explosions. Without an arrester
designed and
Flame Profile Curve
tested to meet
Pressure Waves
the levels of protection required, the potential for a
major disaster is high.
The advent of USCG, CSA and CEN standards is
a major step forward in safe facility operation.
Investigations and research continue on
Detonation Flame Arresters.
2000
[140]
Shock Wave Pressure, psi [bar]
With the existing and future guidelines for
emissions control comes a new challenge for safe
facility operations. Installation of marine vapor
recovery and destruction systems creates a high
potential for disaster. In fact, an earlier explosion at
a marine vapor control system in the U.S., pointed
out the need for enhanced standards and in
particular, the need for an adequate test standard
for in-line arresters.
Detonation
200
[14]
Deflagration
Resricted
20
[1.4]
Unresricted
0
Flame Travel Dostatmce (run up length)
Contents
Definitions . . . . . . . . . . . . . . . . . . 2
Series 55 - Groups C and D . . . 7 - 8
The Westech Breakthrough . . . . 2
Series 57 - Group D . . . . . . . . 9 - 10
Considerations for Arrester
Application and Selection . . . . . . 5
Series 59 - Group D
. . . . . . . . . . 11
Series 60 - Group C
. . . . . . . . . . 12
Series 40 - Groups C and D
... 6
The Westech Breakthrough
Westech is an international company which has been servicing the needs
of oil, gas, chemical and municipal sewage industries for more than 30
years. Its detonation flame arrester program began by investigating the
cause of flame arrester failures in vapor control systems. Westech
discovered that existing flame arresters were not capable of preventing
flame passage, regardless of piping configuration. It was also proven that
existing standards governing flame arrester performance were inadequate
for in-line use. Westech concentrated on developing a comprehensive inline detonation flame arrester standard which led to an advanced level of
flame front arrestment technology. Actual tests were conducted rather than
calculating results on paper, as had been
the accepted practice in the past.
Westech 18” diameter, 1002 foot test tube for momentum
testing of detonation flame arresters. This is the longest
arrester test tube in the world.
Definitions
End-of-Line Flame Arrester - This type of flame arrester is used
where the potential ignition source is located outside the vessel or
flow system that is being protected (unconfined); the flame travel
length is no greater than that used for flame arrester testing
(typically 5 feet/1.25 m), and there are no restrictions in the
protected side piping.
In-Line (Detonation) Flame Arrester - An arrester which has been
designed and tested to arrest flame fronts of varying pressures and
speeds with both restricted and unrestricted protected side piping
as well as long run stable and overdriven detonations.
Deflagration - A flame front that propagates by the transfer of heat
and mass to the unburned gas ahead of the flame front. Flame
speeds can range from less than 1 m/s to greater than 350 m/s
(supersonic) for very high pressure, turbulent flames.
Overpressures can range from a very small fraction to as much as
twenty times the initial pressure.
Detonations (Gaseous) - A flame front that propagates by shock
Overdriven Detonation - Also referred to as unstable detonation.
The condition that exists during the transition of a combustion
process from a deflagration into a stable detonation. This transition
usually has the characteristic of producing extremely high
explosion pressures in a relatively short time frame.
Stable Detonation - A detonation which has speed and pressure
characteristics which do not vary significantly as the detonation
progresses through a confined system, hence the term “stable”.
Maximum Experimental Safe Gap (MESG) - The maximum gap
between equatorial flanges in a spherical volume that will just
prevent flame transmission from the vessel to the flammable gas
mixture surrounding it.
Momentum Impulse - A phenomenon associated with increasing
lengths of stable detonation travel. As the detonation travels down
the line, the duration of temperature and pressure effects
associated with the detonation increases up to a run-up distance of
300 pipe diameters.
wave compression ignition in a flammable gas mixture. Flame
speeds are super-sonic with Mach numbers ranging from 5 to 15.
The pressure of stable detonation usually ranges from about 20 to
30 times the initial pressure but an overdriven detonation can
achieve compression ratios in excess of 300 at the moment of
transition from deflagration to detonation.
2
Arrester Function
Quenching of the flame is accomplished by using a device which breaks
the flame into very small “flamelets” that are passed through small flame
channels in the arrester element. These flame channels cool the flame
front below the ignition temperature of the vapor mixture, thereby
quenching it. The function of an in-line (detonation) flame arrester falls into
three categories:
• Quench Flame Propagation
• Free Vapor Flow
• Independent Passive Operation
Overdriven detonations and long run stable detonations are two types
of flame propagation seen in pipeline explosions. Overdriven
detonations have the characteristic of very high pressure for short
durations, whereas long run stable detonations create high sustained
pressures. Both types of flame propagation subject the arrester to
different pressure and temperature characteristics, which have to be
addressed by additional testing.
Superior Customer Service
Through the years Westech has earned an excellent reputation
worldwide for customer service before, during and after the order. Such
services include help with project design, supervision of a customer’s
installation, user training, startup/commissioning assistance, periodic
maintenance and field warranty service.
A large selection of stock flame arresters is available for immediate
delivery. Trial units are available.
Westech’s World Class Test Facilities
Westech has the most sophisticated detonation flame arrester test
facility in the world. Line sizes up to 18” in diameter and 1,000 feet
[305 m] in length are used to test our arresters. Some of the most
severe pipeline explosions in the world are generated at this facility.
The arresters are subjected to test explosions which are
continuously monitored by eight computers, each with a sample
rate of 100,000 samples per second. Specialized instrumentation is
used to collect data from highly responsive customized gas
analyzers, and pressure, temperature and optical flame sensors. A
single test explosion generates 4 megabytes of data which is
analyzed to evaluate arrester performance. On-line analysis has
recorded flame speeds of up to Mach 7 and explosion pressures in
excess of 3,000 psi [200 bar]. Measurement of these kinds of
speeds and pressures requires critical accuracy. All calibrations,
gas analysis, pressure, temperature and optical measurements
from the arrester tests are fully traceable and reproducible.
All tests are monitored by independent third party review
organizations and accredited by standards organizations.
3
Unrivaled Research and Design
Westech’s first step was to evaluate a number of sites where
explosions had occurred. This led to the writing of “A Summary of
Investigations from Ten In-Line Flame Arrester Failures” which
addressed the inadequacy of current arrester designs and test
standards. From this investigation it was obvious that a true in-line
arrester capable of providing protection, regardless of piping
configuration, was required.
The development of the USCG, UL, FM, CSA and CEN standards
has advanced the area of arrester certification. However, research
into flame propagation by Westech has established the need for
further standards development. Rather than meeting the minimum
standards, Westech voluntarily tests arresters for flame front
phenomena such as momentum impulse shock, pre-compressed
deflagration to detonation transition, thermal flux, reignition of
downstream unburned gases, downstream reflected shock wave
failure, lean mixture detonations and lower MESG vapors. In order
to ensure maximum facility protection, Westech has also tested to
established installation criteria related to upstream pipe size
changes and the venting of combustion products.
Westech has made the commitment to work with standards
associations worldwide to ensure that new developments from
research are incorporated into future test standards. Because of
this commitment to continued research and development, our
customers can be assured of the highest level of protection now
and in the future.
Raising Flame Arrester Standards
Research testing discovered the primary reason for flame arrester
failures in the past and this led to the development of Westech’s
“A Comprehensive Test Method for In-Line Flame Arresters”. This
test method has been used as the cornerstone for all existing
Detonation Arrester Standards.
For this work, Westech was awarded a Certificate of Merit in the
invention category of the 1989 Canada Awards for Business
Excellence and the 1990 Canadian Gas Processors’ Association
(CGPA) Award for Innovative Excellence.
A New Generation of Arresters from Westech
From the ground breaking research into flame front phenomena
came a new generation of true in-line detonation flame arresters.
This extensive research and development lead to an arrester
designed to provide protection when installed anywhere in the
piping system. Although the first priority was to design an arrester
that would provide maximum protection, this was not enough.
Westech also designed a product that would solve many of the
operational problems common with current flame arrester designs.
4
Considerations for Arrester Application and Selection
Selection of the correct arrester requires a detailed look at the application and must be based on the following:
Testing and Certification
Acceptance testing which proves the capability of an arrester is the
only guarantee of arrester performance. With the growing need for
flame arresting devices, many companies are producing arresters.
Unfortunately, only some of these devices are tested to minimum
performance standards and some are not tested at all.
Vapor Composition
For the purposes of arrester selection, a gas classification used by
the USCG and others is Maximum Experimental Safe Gap
(MESG). There is no guarantee of performance if the arrester is
used in an application where the vapor has a lower MESG value
than that for which the arrester has been tested.
Explosion Capability
At the minimum, an arrester should be tested to meet a recognized
standard which requires testing for overdriven detonations, stable
detonations, long run stable detonations and deflagration testing
with restricted and unrestricted (with and without elbows and/or
valves) downstream piping.
Operating Pressure
The operating pressure for the system in which the arrester is to be
installed should not exceed the pressure at which the arrester has
been tested. Operating pressure is critical as the pressure
associated with the flame in both detonation and deflagration
modes is a direct function of initial line pressure at the time of
ignition.
Endurance Burn Capability
Endurance burn capability refers to the ability of the arrester to
withstand the heating effects of a flame which has stabilized on the
face of the arrester. This condition is caused when a flame travels
toward the arrester, is prevented from passing through to the
protected side, yet remains burning at the face of the arrester. The
intent of an endurance burn test is to determine the length of time
an arrester can withstand this stabilized flame without heating the
arrester element to the point where the flame is allowed to pass to
the protected side. Establishing an endurance burn capability is
important as it ensures a defined amount of response time allowed
for disruption of the gas flow feeding the stabilized flame.
5
Arrester Location
Once the ignition sources and the specific facility components
requiring protection are identified, the detonation flame arrester
can be placed anywhere between the two, regardless of distance
and pipe configuration.
In systems where tanks are manifolded together, there should be
one arrester providing protection for each tank. When evaluating
ignition sources in manifolded tank systems, each tank must be
considered. In order to provide protection between tanks, in-line
(detonation) flame arresters should be installed not only on the
collection line, but on each tank.
Series 40 In-Line Deflagration Flame Arrestor
Sizes
• Sizes 2” thru 18” IIA (NEC Group D,
M.E.S.G. [0.9]
Mechanical Design
Standard construction is carbon steel
housing fabricated in accordance with
ASME/ANSI with 150 RF line flanges.
Element is 316 stainless steel.
• Sizes 2”, 3” and 4” IIB (NEC Group C,
M.E.S.G. [0.65]
Options
• Arrester housing fabricated in 316 SS
Protection
Quenches deflagration. In-line
installation is limited to 50 pipe
diameters as per test protocol. Can be
installed at the end of a vent line.
Groups C and D
Test Protocol
Tested in accordance with the European
Standard EN12874: 2001, 6.3 Flame
Transmission Test, 6.3.2 Deflagration
Test, 6.3.2.1 End-of-Line Flame Arrester
and 6.3.2.2 In-Line Flame Arrester.
• Class 300 ANSI RF or DIN mating
flange connections
• Instrument and drain connections
• Special alloy fabrication and internal
coatings
Installation
The Series 40 can be installed in the
vertical or horizontal position.
• Special surface finishes
• Special testing and designs
• Weatherhood
Passive Operation
Completely self-contained with no
reliance on power supplies, sensors,
actuators or any external components.
A
B
Dimensions and Weights
Model
Line Size
inches [mm]
Overall Length1
(A)
Housing Diameter
(B)
Arrester Weight
(lb.)
WFA40-002
2”
[50]
12.88
9.00
70
WFA40-003
WFA40-004
3” [75]
4” [100]
16.75
18.38
11.00
16.00
110
260
WFA40-006
WFA40-008
6” [150]
8” [200]
22.88
38.13
19.63
23.50
305
600
WFA40-010
WFA40-012
10” [250]
12” [300]
34.00
46.00
27.50
32.00
1014
1500
WFA40-014
WFA40-016
14” [350]
16” [400]
55.38
55.38
38.75
38.75
1650
1700
WFA40-018
18” [450]
62.50
46.00
2250
1. Overall length may vary +/- 0.25” [6].
6
Series 55 In-Line Detonation Flame Arrestor
Detonation Momentum Attenuators
Incorporates Westech’s patented
Detonation Momentum Attenuator
(D.M.A.) plates to provide shock wave
protection, as well as particulate knock
out of entrained solids in the vapor
stream.
Large Element Surface Area
Designed with up to 30 times the surface
area of conventional arresters,
minimizing pressure drop and fouling
effects, thus decreasing downtime for
maintenance.
Low Pressure Drop
The element has the lowest pressure
drop and fouling rate of any conventional
arrester. Reduces arrester costs as well
as costs associated with piping systems
and components.
Groups C and D
U.S. Coast Guard Accepted
Accepted by the U.S. Coast Guard
(U.S.C.G CFR154) for 3”, 4”, 6”, 8”, 10”,
12”, 14”, 16” and 18” line sizes. They can
be installed in any identical line size
piping configuration regardless of length
and restrictions.
True In-Line Maintenance
Maintenance can be performed in-line
without requiring the line to be broken
for element removal, reducing
maintenance costs and downtime.
Element inspection does not require
element removal.
3” thru 18” ATEX 94/9/EC accepted.
Protection Independent of Location
Can arrest flame fronts anywhere in the
piping system regardless of pipe length
and configuration.
Tested in Excess of Existing
Standards (CSA, USCG, FM, UL, PTB,
BSI, IMO and CEN)
Complete testing through the “Flame
Profile Curve”. Tested for actual field
conditions not mandated by existing
standards, such as momentum impulse
(long run stable detonation), thermal
failure and reignition of downstream
unburned gases providing maximum
protection against all modes of flame
propagation.
Passive Operation
Completely self-contained with no
reliance on power supplies, sensors,
actuators or any external components.
Type I Accepted
Accepted by the U.S. Coast Guard for
Type I continuous burn protection. Due
to the increased stabilized flame
protection, Type I arresters do not
require additional temperature monitors,
quick closing valves and associated
equipment as is the case with Type II
arresters.
7
Multiple Element Design
Multiple element design (sizes 8” and
larger) decreases element weight for
ease of maintenance.
Self-Sealing Element Design
Unique self-sealing element design is
impervious to impact damage from
repeated high pressure (4000+ psig
[276+ barg]) detonation shock waves.
Actual protection increases when
exposed to these forces.
Easily Cleaned
Unique element design allows for ease
of removal and cleaning.
Increased Element Thickness
0.025” [0.65] standard element thickness
provides substantial corrosion allowance
for increased protection and longer
element life.
Optional Features
• ASME VII, Div I construction (standard
on 3”, 4”, 6” cast units)
• 316 SS element
• Arrester housing in aluminum, 304 or
316 SS
• DIN mating flange connections
• Special paint
• Jib crane
High Operation Pressure
Accepted by the U.S. Coast Guard for
operating pressures up to 22.7 psig
[1.57 barg] allowing for installation in
systems operating at elevated
pressures.
Series 55 Element:
Cylindrical Design
Series 55 Specifications
Flow Chart
Pressure Drop, Inches of H20 [mbar]
100
[250]
Connection Sizes in inches
3
10
[25]
4
6
8
10
12
14
16
18
1
[2.5]
0.11
[0.25]
10
[4.72]
1
[0.472]
100
[47.2]
1000
[472]
Flow Capacity, SCFH Air x 1000 [m3/min.]
Outside
Diameter
Outside
Diameter
Overall Length
Overall Length
Dimensions and Weights
Model
WFA55-03
Line Size
inches [mm]
3”
[75]
Overall Length1
inches [mm]
187/8
Outside Diameter
inches [mm]
Overall Weight
lbs. (kg)
Element Weight
lbs. (kg)
[480]
151/2
[395]
340
(155)
65
(30)
[660]
[755]
2015/16
251/2
[530]
[650]
1100
1500
(505)
(680)
75
135
(35)
(60)
WFA55-04
WFA55-06
4”
6”
[100]
[150]
26
293/4
WFA55-08
WFA55-10
8”
10”
[200]
[250]
63
65
[1600]
[1650]
353/4
421/4
[910]
[1075]
2800
3800
(1270)
(1725)
165
165
(75)
(75)
WFA55-12
WFA55-14
12”
14”
[300]
[350]
67
775/8
[1700]
[1970]
421/4
55
[1075]
[1395]
4100
6400
(1860)
(2900)
210
215
(95)
(95)
WFA55-16
WFA55-18
16”
18”
[400]
[450]
81
80
[2055]
[2030]
55
611/2
[1395]
[1560]
7300
12000
(3310)
(5445)
270
315
(120)
(145)
1. Overall length may vary +/- 0.25” [6].
8
Series 57 In-Line Detonation Flame Arrestor
Protection Independent of Location
Can arrest flame fronts anywhere in the
piping system regardless of pipe length
and configuration.
Detonation Momentum Attenuators
Incorporates Westech’s patented
Detonation Momentum Attenuator
(D.M.A.) plates to provide shock wave
protection, as well as particulate knock
out of entrained solids in the vapor
stream.
Large Element Surface Area
Designed with up to 30 times the surface
area of conventional arresters,
minimizing pressure drop and fouling
effects, thus decreasing downtime for
maintenance.
Group D
U.S. Coast Guard Accepted
Accepted by the U.S. Coast Guard
(U.S.C.G CFR154) for 2”, 3”, 4”, 6”, 8”,
10”, 12”, 14”, 16” and 18” line sizes. They
can be installed in any identical line size
piping configuration regardless of length
and restrictions.
Accepted by PTB/CE (Europe) for 4”, 6”,
8” and 10” sizes. Full line approval
pending.
2” thru 18” ATEX 94/9/EC accepted.
Tested in Excess of Existing
Standards (CSA, USCG, FM, UL, PTB,
BSI, IMO and CEN)
Complete testing through the “Flame
Profile Curve”. Tested for conditions not
mandated by existing standards,
including momentum impulse (long run
stable detonation), thermal failure and
reignition of downstream unburned
gases providing maximum protection
against all modes of flame propagation.
Passive Operation
Completely self-contained with no
reliance on power supplies, sensors,
actuators or any external components.
Type I Accepted
Accepted by the U.S. Coast Guard for
Type I continuous burn protection. Due
to the increased stabilized flame
protection, Type I arresters do not
require additional temperature monitors,
quick closing valves and associated
equipment as is the case with Type II
arresters.
Self-Sealing Element Design
Unique self-sealing element design is
impervious to impact damage from
repeated high pressure (4000+ psig
[276+ barg]) detonation shock waves.
Actual protection increases when
exposed to these forces.
Low Pressure Drop
The element has the lowest pressure
drop and fouling rate of any conventional
arrester. Reduces arrester costs, as well
as costs associated with piping systems
and components.
Easily Cleaned
Unique element design allows for ease
of removal and cleaning.
Increased Element Thickness
0.025” [0.65] standard element thickness
provides substantial corrosion allowance
for increased protection and longer
element life.
Optional Features
• 316 SS element
• Arrester housing fabricated in 304 or
316 SS
• Class 300 ANSI RF mating flange
connections
• DIN mating flange connections
• Instrument and drain connections
• Special paint
Series 57 Element:
Cylindrical Design
9
Series 57 Specifications
Flow Chart
Pressure Drop, Inches of H20 [mbar]
100
[250]
Connection Sizes in inches
2
10
[25]
3
4
6
12 16
8 10 14
18
1
[2.5]
0.11
[0.25]
1
[0.472]
10
[4.72]
100
[47.2]
1000
[472]
Flow Capacity, SCFH Air x 1000 [m3/min.]
Outside
Dia.
Overall Length
2 - 18 in [50 - 450 mm]
Dimensions and Weights
Model
WFA57-02
Line Size
inches [mm]
2”
[50]
Overall Length1
inches [mm]
25
351/4
Outside Diameter
inches [mm]
Overall Weight
lbs. (kg)
Element Weight
lbs. (kg)
[635]
131/2
[340]
175
(80)
45
(20)
[900]
[935]
131/2
16
[340]
[410]
225
350
(100)
(160)
75
100
(35)
(45)
WFA57-03
WFA57-04
3”
4”
[75]
[100]
3613/16
WFA57-06
WFA57-08
6”
8”
[150]
[200]
51
531/4
[1300]
[1350]
21
231/2
[530]
[600]
775
1020
(350)
(465)
285
495
(130)
(225)
WFA57-10
WFA57-12
10”
12”
[250]
[300]
567/8
707/8
[1450]
[1800]
271/2
32
[700]
[810]
1570
2190
(710)
(995)
685
950
(310)
(430)
WFA57-14
WFA57-16
14”
16”
[350]
[400]
721/2
733/8
[1825]
[1865]
341/4
361/2
[870]
[925]
2790
3115
(1270)
(1410)
1195
1355
(540)
(615)
WFA57-18
18”
[450]
767/8
[1950]
383/4
[985]
3840
(1740)
1480
(670)
1. Overall length may vary +/- 0.25” [6].
10
Series 59 In-Line Detonation Flame Arrestor
Sizes
• Sizes 2” thru 12” NEC Group D vapors
(IIA/M.E.S.G. [0.9mm])
Protection Independent Location
Bi-directional. Quenches deflagrations,
stable and overdriven detonations
regardless of piping configuration.
Complete testing through the flame
profile curve.
Installation
The Series 59 can be installed in the
vertical or horizontal position.
Mechanical Design
Standard construction is carbon steel
housing fabricated in accordance with
ASME/ANSI with 150 RF line flanges.
Element is 316 stainless steel.
Options
• Arrester housing fabricated in 316 SS
• Class 300 ANSI RF or DIN mating
flange connections
• Instrument and drain connections
• Special alloy fabrication and internal
coatings
• Special surface finishes
Passive Operation
Completely self-contained with no
reliance on power supplies, sensors,
actuators or any external components.
Group D
Test Protocol
Tested in accordance with the United
States Coast CFR 154.
Multiple Element Design
Elements easily removed, separated
and cleaned in the field.
A
B
Dimensions and Weights
Model
Line Size
inches [mm]
Overall Length1
(A) inches
Housing Diameter
(B) inches
Arrester Weight
(lb.)
WFA59-002
2”
[50]
15.88
9.00
80
WFA59-003
WFA59-004
3”
[75]
4” [100]
19.75
21.38
11.00
16.00
135
280
WFA59-006
WFA59-008
6” [150]
8” [200]
25.88
41.13
19.63
23.50
365
740
WFA59-010
WFA59-012
10” [250]
12” [300]
37.00
49.00
27.50
32.00
1132
1480
1. Overall length may vary +/- 0.25” [6].
11
• Special testing and designs
Series 60 In-Line Detonation Flame Arrestor
Sizes
• Sizes 2” thru 12” - see test protocol
above.
Mechanical Design
Standard construction is carbon steel
housing fabricated in accordance with
ASME/ANSI with 150 RF line flanges.
Elements are 316 stainless steel.
Protection Independent Location
Bi-directional. Quenches deflagrations,
stable and overdriven detonations
regardless of piping configuration.
Complete testing through the flame
profile curve.
Options
• Arrester housing fabricated in 316 SS
• Class 300 ANSI RF or DIN mating
flange connections
• Instrument and drain connections
Installation
The Series 60 can be installed in the
vertical or horizontal position.
• Special alloy fabrication and internal
coatings
• Special surface finishes
Groups C and D
FM Approved
4” thru 12” line sizes accepted by
Factory Mutual for NEC Groups C
(IIB/M.E.S.G. [0.65 mm]) and D
(IIA/M.E.S.G. [0.9 mm]) vapors.
Passive Operation
Completely self-contained with no
reliance on power supplies, sensors,
actuators or any external components.
• Special testing and designs
Multiple Element Design
Elements easily removed, separated
and cleaned in the field.
2” thru 12” ATEX 94/9/EC accepted.
A
B
Dimensions and Weights
Model
Line Size
inches [mm]
Overall Length1
(A)
Housing Diameter
(B)
Arrester Weight
(lb.)
WFA60-002
2”
[50]
15.88
9.00
80
WFA60-003
WFA60-004
3” [75]
4” [100]
19.75
24.38
11.00
16.00
135
330
WFA60-006
WFA60-008
6” [150]
8” [200]
28.88
47.13
19.63
23.50
405
810
WFA60-010
WFA60-012
10” [250]
12” [300]
43.00
55.00
27.50
32.00
1450
2050
1. Overall length may vary +/- 0.25” [6].
12
Tyco Valves & Controls incorporates many market-leading brand
names in the manufacture of valves, actuators and control
systems, including...
✦ Anderson Greenwood - Pressure relief valves
✦ Anderson Greenwood Instrumentation - Hand valves, gauge
valves, manifolds
✦ AVID - Position, control and network monitors, electro-
pneumatic and smart positioners
✦ Biffi - Gas, electric and pneumatic quarter-turn and
multi-turn actuators
✦ Cash Valve - Pressure relief valves, control valves and
pressure regulators
✦ Clarkson - Slurry valves
✦ Crosby - Pressure relief valves
✦ Descote - Globe valves for hazardous fluids
✦ Dewrance - Parallel slide gate valves
✦ FCT - Split body trunnion mounted ball valves
✦ Fasani - Gate, globe and check valves
✦ Gimpel - Steam valves
✦ Gulf - Double-door wafer check
✦ Hancock - Forged steel gate, globe and check
✦ Hovap - Hygienic valves
✦ Intervalve - High pressure isolation gate, globe and check
valves
✦ Keystone - Resilient seated and high-performance
butterfly valves
✦ KTM - Ball valves
With sales and distribution operations in strategic locations
throughout the world, Tyco Valves and Controls is a global,
single-source supplier of innovative flow control solutions.
Tyco Valves & Controls
Sales, Service and Distribution Centers
Eastern Region
✦ Philadelphia, Pennsylvania
Phone: 610-296-2000 • Fax: 610-296-8038
Atlanta, Georgia
Phone: 770-326-5654 • Fax: 770-326-2989
Gulf Coast Region
✦ Pasadena, Texas
Phone: 832-261-2400 • Fax: 281-291-8801
Baton Rouge, Louisiana
Phone: 225-751-9000 • Fax: 225-751-0130
Western Region
✦ Seattle, Washington
Phone: 425-398-2000 • Fax: 425-398-2001
Denver, Colorado
Phone: 303-343-0425 • Fax: 303-343-0930
Anaheim, California
Phone: 714-575-9201 • Fax: 714-575-9206
Midwest Region
✦ Chicago, Illinois
Phone: 630-343-3333 • Fax: 630-343-3334
St. Louis, Missouri
Phone: 314-428-3888 • Fax: 314-428-9829
✦ Kunkle - Safety and relief valves
✦ L&M Valve - Polymer lined knife gate valves
✦ MCF - Three-piece ball valves
✦ Morin - Spring return and double acting quarter-turn actuators
✦ Narvik - Desuperheaters, sight gauges, sample valves
✦ Neotecha - Lined butterfly and ball valves and sampling
devices
✦ Penberthy - Liquid level monitoring
✦ Prince - Wafer swing check
✦ Raimondi - Gate, globe, check and ball valves
✦ Rovalve - Special application knife gate and custom designed
valves
✦ Sapag - Safety valves
✦ Sempell - Valves for high pressure, high temperature and
critical media
✦ Valvtron - Severe service ball valves
✦ Vanessa - Zero leakage, critical service valves
✦ Varec - Vapor control
✦ Yarway - Valves, instruments and steam traps
www.tycovalves.com
VRCMC-0197 / Printed in USA / 2.5M / 0410
Tyco Flow Control (TFC) provides the information herein in good faith but makes no representation as to its
comprehensiveness or accuracy. This data sheet is intended only as a guide to TFC products and services.
Individuals using this data sheet must exercise their independent judgment in evaluating product selection
and determining product appropriateness for their particular purpose and system requirements. TFC
MAKES NO REPRESENTATIONS OR WARRANTIES, EITHER EXPRESS OR IMPLIED, INCLUDING
WITHOUT LIMITATION ANY WARRANTIES OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR
PURPOSE WITH RESPECT TO THE INFORMATION SET FORTH HEREIN OR THE PRODUCT(S) TO
WHICH THE INFORMATION REFERS. ACCORDINGLY, TFC WILL NOT BE RESPONSIBLE FOR
DAMAGES (OF ANY KIND OR NATURE, INCLUDING INCIDENTAL, INDIRECT, OR CONSEQUENTIAL
DAMAGES) RESULTING FROM THE USE OF OR RELIANCE UPON THIS INFORMATION. Patents and
Patents Pending in the U.S. and foreign countries. Tyco reserves the right to change product designs and
specifications without notice.
Tyco Valves & Controls