Task Force Tips Master Foam Series Programming manual

©Copyright Task Force Tips LLC 2015-2020 1 LIZ-030 October 29, 2020 Rev13
TASK FORCE TIPS LLC
MADE IN USA · tft.com
3701 Innovation Way, Valparaiso, IN 46383-9327 USA
800-348-2686 · 219-462-6161 · Fax [phone]
INSTRUCTIONS FOR INSTALLATION, OPERATION, AND MAINTENANCE
Master Foam Fixed GPM
Self-Educting Foam Nozzle Series
WARNING
Understand manual before use. Operation of this device without understanding the manual and
receiving proper training is a misuse of this equipment. Obtain safety information at tft.com/serial-
number.
This equipment is intended for use by trained and qualified emergency services personnel for
firefighting. All personnel using this equipment shall have completed a course of education
approved by the Authority Having Jurisdiction (AHJ).
This instruction manual is intended to familiarize firefighters and maintenance personnel with the
operation, servicing, and safety procedures associated with this product. This manual should be
kept available to all operating and maintenance personnel.
Fixed Flow Rate:
250, 350, 500, or 750 gpm
950, 1325, 1900, or 2900 l/min
Nominal Pressure:
100 psi (7bar)
Nominal Foam Percentages:
0.5%, 1%, 3%, or 6%
Fixed Flow Rate:
1000 or 1250 gpm
3800 or 4800 l/min
Nominal Pressure:
100 psi (7bar)
Nominal Foam Percentages:
1% or 3%
Fixed Flow Rate:
1500 or 2000 gpm
5700 or 7600 l/min
Nominal Pressure:
100 psi (7bar)
Nominal Foam Percentages:
1% or 3%
RC Fixed Flow Rate:
1000 or 1250 gpm
3800 or 4800 l/min
1500 or 2000 gpm
5700 or 7600 l/min
Nominal Pressure:
100 psi (7bar)
Nominal Foam Percentages:
1% or 3%

©Copyright Task Force Tips LLC 2015-2020 2 LIZ-030 October 29, 2020 Rev13
DANGER
PERSONAL RESPONSIBILITY CODE
The member companies of FEMSA that provide emergency response
equipment and services want responders to know and understand the
following:
1. Fire¿ghting and Emergency Response are inherently dangerous activities
requiring proper training in their hazards and the use of extreme caution
at all times.
2. It is your responsibility to read and understand any user’s instructions,
including purpose and limitations, provided with any piece of equipment
you may be called upon to use.
3. It is your responsibility to know that you have been properly trained in
Fire¿ghting and /or Emergency Response and in the use, precautions, and
care of any equipment you may be called upon to use.
4. It is your responsibility to be in proper physical condition and to maintain
the personal skill level required to operate any equipment you may be
called upon to use.
5. It is your responsibility to know that your equipment is in operable
condition and has been maintained in accordance with the manufacturer’s
instructions.
6. Failure to follow these guidelines may result in death, burns or other
severe injury.
FEMSA
Fire and Emergency Manufacturers and Service Association
P.O. Box 147, Lynn¿eld, MA 01940 • www.FEMSA.org

©Copyright Task Force Tips LLC 2015-2020 3 LIZ-030 October 29, 2020 Rev13
SUPPORTING MATERIALS
The following documents contain supporting safety and operating
information pertaining to the equipment described in this manual.
LIA-025
Manual: Foam Aspirators
©Copyright TaskForce Tips, Inc. 2009 LTT-135July 28, 2009 Rev00
NOZZLE TRAJECTORY
ELEVATION FACTORS
TASK FORCE TIPS, INC.
MADE IN USA • www.tft.com
3701 Innovation Way, Valparaiso, IN 46383-9327 USA
800-348-2686 • 219-462-6161 • Fax [phone]
1.0 To estimate elevation angle when vertical and horizontal distances to target are known:
1.1 Find the maximum height and reach at 30° from the appropriate trajectory curve in LIM-030 or LIM-035.
1.2 Calculate the Height Factor by dividing the vertical distance to the target by maximum height from step 1.1.
1.3 Calculate the Reach Factor by dividing the horizontal distance to the target by maximum reach from step 1.1.
1.4 On the graph of nozzle trajectory elevation factors, plot the intersection of the Height Factor and Reach factor from steps 1.2 and 1.3. If this point lies
on or between the curves given, estimate the appropriate elevation angle. If this point lies within the shaded region of the graph, then a higher ÀRZ or
pressure must be used to reach the target.
2.0 To estimate maximum reach for a given elevation angle above 0°:
2.1 From the graph of nozzle trajectory elevation factors, choose the trajectory curve for the desired elevation angle.
2.2 Find the point where this trajectory curve intersects the height of discharge (zero height line).
2.3 Estimate the Reach Factor at this point using the scale across the top of the graph.
2.4 Multiply this Reach Factor by the reach at 30° elevation from the appropriate trajectory curve in LIM-030 or LIM-035.
3.0 To estimate maximum height for a given elevation angle above 0°:
3.1 From the graph of nozzle trajectory elevation factors, choose the trajectory curve for the desired elevation angle.
3.2 Find the maximum height on this trajectory curve.
3.3 Estimate the Height Factor at the maximum height using the scale on the left side of the graph.
3.4 Multiply this Height Factor by the height at 30° elevation from the appropriate trajectory curve in LIM-030 or LIM-035.
Stream reach and height at non-optimal elevations can be estimated as a factor of the performance at the optimal 30° elevation.
Refer to LIM-030 and LIM-035 for effective stream trajectories of Task Force Tips Masterstream nozzles at 30° elevation.
This graph cannot be used to estimate maximum reach for elevation angles below 30°.
-
-45
°-
-30°
--
15
°-
0
°
15°
30°
45°
60°
75°
85°
-2.0
-1.5
-1.0
-0.5
0.0
0.5
1.0
1.5
2.0
2.5
3.0
3.5
0.0 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0 1.
1
Reach Factor (compared to 30° elevation)
Height Factor (compared to 30° elevation)
height of
discharge
IF TARGET IS IN THIS REGION,
FLOW AND/OR PRESSURE MUST
BE INCREASED.
TASK FORCE TIPS
ELECTRIC REMOTE NOZZLES
ELECTRIC REMOTE WIRING DIAGRAM
TASK FORCE TIPS LLC 3701 INNOVATION WAY, VALPARAISO, IN 46383-9327
[phone] [phone] FAX [phone]
MADE IN USA • TFT.COM
LESS ELABORATE WIRING
SYSTEMS MAY BE USED BY
ELIMINATING UPPER CONTROL
OR REMOTE CONTROL STATIONS
LIM-040 August 1, 2018 Rev05©Copyright Task Force Tips LLC 1998-2018
LIM-040
ER Nozzle Wiring Guide
©Copyright TaskForce Tips LLC 2008-2019 LIY-500April 8, 2019 Rev14
MANUAL: Remote Control (RC)
Monitor Electrical Controls
Supplemental Instructions for use with RC Monitor Manual
INSTRUCTIONS FOR INSTALLATION, SAFE OPERATION AND MAINTENANCE
DANGER
Understand manual before use. Operation of this device without understanding the manual and
receiving proper training is a misuse of this equipment. Obtain safety information at www.tft.
com/serial-number
TASK FORCE TIPS LLC
MADE IN USA • tft.com
3701 Innovation Way, IN 46383-9327 USA
800-348-2686 • 219-462-6161 • Fax [phone]
SECTION 4.1
Monitor Mounted
Operator Station
SECTION 4.2
Panel Mount
Operator Station
(Y4E-RP)
SECTION 4.3
Panel Mount With Display
Operator Station
(Y4E-RP-D)
SECTION 4.4
Tethered
Operator Station
(Y4E-CT-##)
SECTION 4.5
Tethered Operator Station
With Display
(Y4E-CT-##-D)
SECTION 4.6
Wireless
Operator Station
(YE-RF-##)
SECTION 4.7
Wireless Operator Station
With Display
(YE-RF-##-D)
SECTION 3.0
SECTION 4.0
Electrical Controls Installation and Operation
SECTION 4.11
Monitor Position Display
(Y4E-DISP)
SECTION 4.12
Remote Auxiliary Function
Interface Control
(YE-REMAUX)
SECTION 4.13
Electric RC Monitor Aerial
Truck Installation
SECTION 4.16
Electric Nozzle Actuator
SECTION 4.17
Valve Kits
(YE-VK-PH)
SECTION 5.0
Troubleshooting
SECTION 4.14
Multiplex Interface Control (YE-CAN#)
SECTION 4.15
Ethernet Interface Control
SECTION 4.9
Toggle Switch Monitor
Operator Station
(Y4E-TS)
SECTION 4.10
Monitor Communication
Interface Control
(Y4E-COMM)
SECTION 4.8
Joystick
Operator Station
(Y4E-JS)
LIY-500
Manual: Remote Control (RC)
Monitor Electrical Controls
LTT-135
Nozzle Trajectory Elevation
Factors

©Copyright Task Force Tips LLC 2015-2020 4 LIZ-030 October 29, 2020 Rev13
TABLE OF CONTENTS
1.0 MEANING OF SAFETY SIGNAL WORDS
2.0 SAFETY
3.0 GENERAL INFORMATION
3.1 VARIOUS MODELS AND TERMS
3.2 MECHANICAL SPECIFICATIONS
3.3 USE WITH SALT WATER
3.4 NOZZLE COUPLINGS
3.5 ELECTRIC INSTALLATION
4.0 OPERATION
4.1 PATTERN CONTROL
4.2 FLUSHING DEBRIS
5.0 USE WITH FOAM
5.1 FOAM ASPIRATING ATTACHMENTS
5.2 CLEANING AFTER USE
5.3 SETTING FOAM PERCENTAGE
5.3.3 ORIFICE PLATE CALIBRATION INFORMATION
6.0 FLOW CHARACTERISTICS
6.1 FIXED FLOW
6.2 REACH AND TRAJECTORY
7.0 WARRANTY
8.0 MAINTENANCE
8.1 FIELD LUBRICATION
8.2 SERVICE TESTING
8.3 REPAIR
9.0 EXPLODED VIEWS AND PARTS LISTS
10.0 OPERATION AND INSPECTION CHECKLIST

©Copyright Task Force Tips LLC 2015-2020 5 LIZ-030 October 29, 2020 Rev13
1.0 MEANING OF SAFETY SIGNAL WORDS
A safety related message is identified by a safety alert symbol and a signal word to indicate the level of risk involved with a particular
hazard. Per ANSI Z535.6, the definitions of the four signal words are as follows:
2.0 SAFETY
DANGER
DANGER indicates a hazardous situation which, if not avoided, will result in death or serious injury.
WARNING
WARNING indicates a hazardous situation which, if not avoided, could result in death or serious
injury.
CAUTION CAUTION indicates a potentially hazardous situation which, if not avoided, could result in minor
or moderate injury.
NOTICE
NOTICE is used to address practices not related to physical injury.
DANGER
An inadequate supply of pressure and/or flow will cause an ineffective stream and can result
in injury or death. Choose operating conditions to deliver adequate fire suppression. See flow
graphs.
WARNING
This equipment is intended for use by trained personnel for firefighting. Use of this equipment for
other purposes may involve hazards not addressed by this manual. Seek appropriate guidance and
training to reduce risk of injury.
WARNING
Injury or damage can occur from an inadequately supported monitor. The mounting must be
capable of supporting the nozzle reaction force.
FLOW REACTION FORCE
gpm l/min Pounds Kilograms
250 950 132 60
350 1325 185 84
500 1900 265 120
750 2900 397 180
1000 3800 529 240
1250 4800 661 301
1500 5700 794 360
2000 7600 1058 480
WARNING
Some volatile liquids can be ignited by static discharge, which can occur during application of foam
or water. Fire or explosion can result in injury or death. Follow procedures established by the AHJ
to reduce risk of fire or explosion caused by static discharge.
WARNING
Application of water or foam solutions on energized electrical equipment could cause
electrocution. Serious injury or death could result. Assume circuits are energized until confirmed to
be de-energized. Do not apply water or foam to energized electrical equipment.
WARNING
The stream exiting a nozzle is very powerful and capable of causing injury and property damage.
Make sure the nozzle is securely attached and pointing in a safe direction before water is turned on.
Do not direct water stream to cause injury or damage to persons or property.
WARNING
Equipment may be damaged if frozen while containing significant amounts of water. Such damage
may be difficult to detect visually. Subsequent pressurization can lead to injury or death. Any time
the equipment is subject to possible damage due to freezing, it must be tested and approved for
use by qualified personnel before being considered safe for use.
NOTICE
To prevent mechanical damage, do not drop or throw equipment.

©Copyright Task Force Tips LLC 2015-2020 6 LIZ-030 October 29, 2020 Rev13
3.0 GENERAL INFORMATION
Master Foam nozzles come in three ranges. Each range determines water flow with baffle options. The removable baffle allows for
flushing debris. On most Master Foam nozzles, changing the baffle changes the nozzle’s water flow rate.
A vacuum created by water velocity pulls foam concentrate into the nozzle. Foam concentrate enters the peripheral jet uniformly at
discharge without causing turbulence. Mixing and aeration happen immediately, resulting in superior stream quality and reach.
Master Foam Nozzles come with calibrated orifice plates to set the foam percentage. Orifice plates are easily inserted into the side foam
port. A concentrate hose with camlock fitting (military standard MS27019) connects to the foam port capturing the orifice plate.
Fog angle is user adjustable between 90° wide fog and straight stream. Higher flow (1000 GPM and higher) nozzles provide a set screw
for locking in a fog angle.
3.1 VARIOUS MODELS AND TERMS
Table 3.1
Figure 3.1A
RANGE SMALL MEDIUM LARGE
INLET COUPLING 2.5” (65mm) NH, NPSH, or BSP 3.5” (89mm) NH, NPSH, or BSP 3.5” (89mm) NH
4.0” (100mm) BSP
RATED PRESSURE 100 psi (7bar) 100 psi (7bar) 100 psi (7bar)
FLOW RATING 250, 350, 500, or 750 gpm
(950, 1325, 1900, or 2900 l/min)
1000 or 1250 gpm
(3800 or 4800 l/min)
1500 or 2000 gpm
(5700 or 7600 l/min)
FOAM ORIFICE PLATES 0.5%, 1%, 3%, and 6% 1% and 3% 1% and 3%
CONCENTRATE HOSE
SIZE
10’ x 1.5” diameter (2.4m x 38mm)
UV Resistant
10’ x 1.5” x 2.0” diameter
(2.4m x 38mm x 52mm)
UV Resistant
10’ x 2.0” diameter (2.4m x 52mm)
UV Resistant
NOZZLE CAMLOCK
CONNECTION SIZE
1.5” (38mm) 1.5” (38mm) 2.0” (52mm)
FOG ADJUSTMENT Halo ring is made from a non-
corroding high temperature
polymer
All aluminum
Rotate using folding handles
All aluminum
Rotate using folding handles
FOG TEETH Rubber molded bumper and fog
teeth
Cut metal fog teeth, hard anodized
aluminum
Cut metal fog teeth, hard anodized
aluminum
OPTIONAL FOAM
ASPIRATOR
FJ-LX-M FoamJet low expansion
air-aspirating attachment
n/a n/a
[phone] • 800 348-2686
tft.com • MADE IN USA
Understand manual before use
Obtain safety information at
tft.com/serial-number
WARNING
U.S. Patent # 6,102,308
®
®
TM
Baffle
Stream Shaper and Bumper
Serial Number
Halo Ring
Coupling
Foam Inlet
Orifice Plate

©Copyright Task Force Tips LLC 2015-2020 7 LIZ-030 October 29, 2020 Rev13
Figure 3.1B
Figure 3.1C
Stream Shaper
Baffle
Foam Inlet
Coupling
Serial Number
Folding Handles
Orifice Plate
Override Knob
(Masterfoam 1000, 1250, 1500 & 2000 only)
Electric Actuator

©Copyright Task Force Tips LLC 2015-2020 8 LIZ-030 October 29, 2020 Rev13
3.2 MECHANICAL SPECIFICATIONS
3.3 USE WITH SALT WATER
Use with salt water is permissible provided the equipment is thoroughly cleaned with fresh water after each use. The service life of the
equipment may be shortened due to the effects of corrosion, and is not covered under warranty.
3.4 NOZZLE COUPLINGS
Master Foam nozzles in 250, 350, 500, 750, 1000, and 1250 gpm (950, 1325, 1900, 2900, and 4800 l/min) versions are available with a
2.5 inch coupling (NH, NPSH or BSP).
Master Foam nozzles in 1500 and 2000 gpm (5700 and 7600 l/min) versions have a 3.5” (NH) coupling as standard.
When tightening the coupling, make sure the foam inlet is pointing downward for ease of attaching the concentrate inlet hose.
3.5 ELECTRIC INSTALLATION
Nozzles with electric stream shaper actuation are shipped with a wiring diagram (TFT item #LIM-040). Other documentation is available
on request. ER nozzles are equipped with manual override in case of electrical power failure.
4.0 OPERATION
4.1 PATTERN CONTROL
The Master Foam’s spray pattern is adjustable from straight stream to a 90° wide fog.
On models with manual shapers turning the stream shaper clockwise (as seen from the operating position behind the nozzle) moves the
shaper to the straight stream position. Turning the shaper counterclockwise will result in an increasingly wider pattern. Only 90° of
rotation is required to go from wide fog to a straight stream.
On RC Master Foam nozzles, use the FOG and STRAIGHT STREAM buttons on the operator station to change the pattern.
Since the stream trim point varies with flow, the stream should be “trimmed” after establishing a steady flow. To properly trim the stream,
first open to a narrow fog. Then close the stream to parallel to give maximum reach.
Range SMALL MEDIUM LARGE
Nominal Flow 250 gpm
950 l/min
350 gpm
1325 l/min
500 gpm
1900 l/min
750 gpm
2900 l/min
1000 gpm
3800 l/min
1250 gpm
4800 l/min
1500 gpm
5700 l/min
2000 gpm
7600 l/min
Maximum Flow 306 gpm
1160 l/min
428 gpm
1620 l/min
612 gpm
2320 l/min
918 gpm
3475 l/min
1224 gpm
4630 l/min
1530 gpm
5790 l/min
1830 gpm
6930 l/min
2450 gpm
9270 l/min
Weight 7.3 lbs / 3.3 kg 16.9 lbs / 7.7 kg 23.0 lbs / 10.4 kg
Nominal Operating Pressure 100 psi / 690 kPa / 7bar
Maximum Operating Pressure 150 psi / 1034 kPa / 10.3bar
Maximum Fog angle 90°
Operating Temperatures -40°F to 135°F
-40°C to 57°C
Materials used Cast Aluminum, Aluminum 6000 series hard anodized MIL 8625 class 3 type 2, Stainless Steel 300
series, Nylon, Nitrile Rubber
CAUTION Mismatched or damaged waterway connections may cause equipment to leak or uncouple under
pressure. Failure could result in injury. Equipment must be mated to matched connections.
CAUTION Dissimilar metals coupled together can cause galvanic corrosion that can result in the inability to
uncouple the connection, or complete loss of engagement over time. Failure could cause injury. Per
NFPA 1962, if dissimilar metals are left coupled together, an anti-corrosive lubricant should be
applied to the connection and the coupling should be disconnected and inspected at least
quarterly.
WARNING
This device is not rated as ignition proof, explosion proof, or intrinsically safe. Use only in locations
with adequate ventilation and no hazard of flammable vapor buildup.
WARNING
The nozzle reaction is greatest when the shaper is in the straight stream position. Sudden changes
in pattern can cause changes in reaction, leading to loss of footing or an out of control nozzle. The
nozzle operator must be prepared for a change in reaction as the pattern is changed.
NOTICE
Turning the shaper further forward will cause stream crossover and reduce the reach of the nozzle.
NOTICE
The widest pattern is useful for protection and cooling, but does not educt foam.

©Copyright Task Force Tips LLC 2015-2020 9 LIZ-030 October 29, 2020 Rev13
4.2 FLUSHING DEBRIS
Debris in the water may get caught inside the nozzle. This trapped material will cause poor stream quality, shortened reach and reduced
flow. To remove debris trapped in the nozzle:
1. Shut off flow to the nozzle.
2. Unscrew baffle using the appropriately sized socket for the nozzle flow range.
A. SMALL - 1-1/8” (28mm)
B. MEDIUM - 1” (26mm)
C. LARGE - 1-1/4” (32mm)
3. Remove debris. Flow water to flush if necessary.
4. Reinstall baffle. Tighten to 30 lb-ft (40 N·m).
5.0 USE WITH FOAM
The nozzle may be used with foam solutions. Refer to fire service training by the Authority Having Jurisdiction (AHJ) for the proper use
of foam.
5.1 FOAM ASPIRATING ATTACHMENTS
Multi-expansion or low expansion aspirating attachments may be used with nozzles to increase the expansion ratio. These foam tubes
attach and detach quickly from the nozzle. As expansion ratio is increased, the reach of the nozzle will decrease due to the greater
amount of bubbles in the stream and their ability to penetrate the air. Generally, the straight stream reach with foam is approximately
10% less than with water only. Actual results will vary based on brand of foam, hardness of water, temperature, etc. For specific
information, see LIA-025 (MANUAL: Foam Attachments for TFT Nozzles).
5.2 CLEANING AFTER USE
After educting foam it is recommended that water be educted in through the concentrate hose and inlet. This will wash out foam
concentrate residue in the hose, orifice plate, and nozzle passages. If not removed, any residue may dry and adversely affect the
accuracy of proportioning.
WARNING
Large amounts or pieces of debris may be unflushable and can reduce the flow of the nozzle
resulting in an ineffective flow. In the event of a blockage, it may be necessary to retreat to a safe
area, uncouple the nozzle and remove debris.
WARNING
For Class B fires, lack of foam or interruption in the foam stream can cause a break in the foam
blanket and greatly increase the risk of injury or death. Follow procedures established by the AHJ
for the specific fuel and conditions.
WARNING
Improper use of foam or using the wrong type of foam can result in illness, injury, or damage to the
environment. Follow foam manufacturer’s instructions and fire service training as directed by the
AHJ.

©Copyright Task Force Tips LLC 2015-2020 10 LIZ-030 October 29, 2020 Rev13
5.3 SETTING FOAM PERCENTAGE
The foam percentage is controlled by an orifice plate that is installed in the nozzle at the mouth of the concentrate inlet. Depending on
the nozzle chosen, the Master Foam comes with orifice plates for 0.5%, 1%, 3%, or 6%. Each orifice plate is marked with the percentage
and nozzle flow rate. The flow rate on the orifice plate must match the flow rate marked on the nozzle’s baffle.
The table gives the nominal rates of foam usage. Accuracy of proportioning is fairly insensitive to nozzle inlet pressure. The graph in
Figure 5.3B gives expected percentages for various inlet pressures.
To install the orifice plate in the nozzle, simply push it into the
bore at the foam inlet on the nozzle. The orifice plate has an
O-ring to hold it in place.
To remove the orifice plate, hook a small object (such as a
screwdriver or Allen wrench) into the hole in the orifice plate and
pull it out. Take care not to damage the orifice.
CONCENTRATE FLOW RATE IN GPM
WATER FLOW
(GPM)
FOAM PERCENTAGE
0.5% 1% 3% 6%
250 1.3 2.5 7.7 16.0
250 1.8 3.5 11.0 22.0
500 2.5 5.1 15.0 32.0
750 3.8 7.6 23.0 48.0
1000 -- 10.0 31.0 --
1250 -- 13.0 39.0 --
1500 -- 16.0 45.0 --
2000 -- 20.0 60.0 --
EXAMPLE: 500 gpm of water at 3% uses 15.0 gpm of
concentrate.
FLOW SHOWN ARE NOMINAL. ACTUAL RESULTS MAY
VARY BASED ON BRAND AND CONDITION OF FOAM.
Figure 5.3A
Check For
Desired Percentage
Insert into Inlet
Push On
To Lock
Fold Levers
To Hose
0
1
2
3
4
5
6
7
8
40 60 80 100 120 140 160
NOZZLE INLET PRESSURE (PSI)
FOAM PERCENTAGE (%)
NOMINAL 0.5%
AT 100 PSI
NOMINAL 1%
AT 100 PSI
NOMINAL 3%
AT 100 PSI
NOMINAL 6%
AT 100 PSI
Figure 5.3B