TFT Max Series Guide rapide

©Copyright Task Force Tips LLC 2000-2020 LIM-025 June 23, 2010 Rev08

Max Series Nozzles

With Automatic Pressure Control

or Fixed Gallonage

INSTRUCTIONS FOR SAFE OPERATION AND MAINTENANCE

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 qualied emergency services personnel for

reghting. 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 reghters 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.

MAX-FORCE™

Dual-Pressure Automatic

Normal Pressure Setting

100 - 500 GPM @ 100 PSI

400 - 2000 LPM @ 7 BAR (700 KPA)

Low Pressure Setting

100 - 500 GPM @ 55 PSI

400 - 2000 LPM @ 4 BAR (400 KPA)

™

100 PSI, Single-Pressure Automatic

100 - 500 GPM @ 100 PSI

400 - 2000 LPM @ 7 BAR (700 KPA)

80 PSI, Single-Pressure Automatic

100 - 500 GPM @ 80 PSI

400 - 2000 LPM @ 5.5 BAR (550 KPA)

MAX-Flow™

500 gpm, Fixed Gallonage

500 GPM @ 100 PSI

2000 LPM @ 7 BAR (700 KPA)

All models available in manual and

Electric Remote versions.

TASK FORCE TIPS LLC

MADE IN USA • tft.com

3701 Innovation Way, Valparaiso, IN 46383-9327 USA

800-348-2686 • 219-462-6161 • Fax 219-464-7155

©Copyright Task Force Tips LLC 2000-2020 LIM-025 June 23, 2010 Rev08

Table Of Contents

1.0 MEANING OF SIGNAL WORDS

2.0 SAFETY

3.0 GENERAL INFORMATION

3.1 USE WITH SALT WATER

3.2 VARIOUS MODELS TERMS

3.2.1 MECHANICAL SPECIFICATIONS

3.3 ELECTRIC INSTALLATION

3.4 PATTERN CONTROL

3.5 FLUSH CONTROL

3.6 STANDARD / LOW PRESSURE KNOB (MAX-FORCE)

4.0 USE OF MAX SERIES NOZZLES

5.0 FLOW CHARACTERISTICS

5.1 STREAM TRAJECTORY DATA

5.2 FLOW CHARTS

6.0 USE WITH FOAM

6.1 FOAM ASPIRATING ATTACHMENTS

7.0 WARRANTY

8.0 MAINTENANCE

8.1 FIELD LUBRICATION

8.2 SERVICE TESTING

8.3 REPAIR

9.0 EXPLODED VIEW AND PARTS LIST

10.0 OPERATION AND INSPECTION CHECKLIST

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

SUPPORTING MATERIALS

The following documents contain supporting safety and operating information

pertaining to the equipment described in this manual.

TASK FORCE TIPS

ELECTRIC REMOTE NOZZLES

ELECTRIC REMOTE WIRING DIAGRAM

TASK FORCE TIPS LLC 3701 INNOVATION WAY, VALPARAISO, IN 46383-9327

(800) 348-2686 (219) 462-6161 FAX (219) 464-7155

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 TaskForce Tips LLC 1998-2018

©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 219-464-7155

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)

©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 219-464-7155

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 ﬂow 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 TaskForce 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.

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.

LIM-040

Electric Remote Nozzle

LIY-500

Remote Control (RC) Monitor

Electrical Controls

LIA-025

Foam Aspirators Manual

LTT-135

Nozzle Trajectory

Elevation Factors

©Copyright Task Force Tips LLC 2000-2020 LIM-025 June 23, 2010 Rev08

1.0 MEANING OF SAFETY SIGNAL WORDS

A safety related message is identied by a safety alert symbol and a signal word to indicate the level of risk involved with a particular

hazard. Per ANSI standard Z535.6-2006, the denitions of the four signal words are as follows:

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, may result in minor

or moderate injury.

NOTICE

NOTICE is used to address practices not related to physical injury.

2.0 SAFETY

DANGER

An inadequate supply of pressure and/or ow will cause an ine󰀨ective stream and can result

in injury or death. Choose operating conditions to deliver adequate re suppression. See ow

graphs.

WARNING

This equipment is intended for use by trained personnel for reghting. 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

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 Inadequately supported nozzle reaction force can result in injury or death. The mounting must be

capable of supporting the maximum nozzle reaction force as stated in the nozzle’s manual.

WARNING Equipment may be damaged if frozen while containing signicant amounts of water. Such damage

may be di󰀩cult 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 qualied personnel before being considered safe for use.

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 conrmed

to be de-energized. Do not apply water or foam to energized electrical equipment.

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.

NOTICE To prevent mechanical damage, do not drop or throw equipment.

©Copyright Task Force Tips LLC 2000-2020 LIM-025 June 23, 2010 Rev08

3.0 GENERAL INFORMATION

The Task Force Tips Max-Force and Max-Matic nozzles are automatic pressure control nozzles. Automatic nozzles operate by

sensing the pressure at the nozzle’s inlet and adjusting the discharge opening to maintain a constant pressure throughout the ow

range of the nozzle. While owing, the stream pattern can be varied from wide fog to straight stream. Trapped debris can be removed

while owing.

All Max Series nozzles are constructed of hardcoat anodized aluminum and UV resistant rubber. This rugged construction is

compatible with the use of fresh water as well as reghting foam solutions. The Max-Force and Mid-Matic are intended for use on

xed or portable monitors. The coupling on the nozzle does not rotate, but can be removed for service.

The Max-Force operates at either a standard or low pressure as selected by the nozzle operator. The Max-Matic operates at a single

pressure for a given ow range. The Max-Flow is rated at a xed gallonage nozzle. Available pressures are as follows:

NOZZLE FLOW RANGE STANDARD PRESSURE LOW PRESSURE

MAX-FORCE

Dual Pressure Model

100-500 GPM

400-2000 LPM

100 PSI

7 BAR

55 PSI

4 BAR

MAX-MATIC, 100 psi

Single Pressure Model

100-500 GPM

400-2000 LPM

100 PSI

7 BAR N/A

MAX-MATIC, 80 psi

Single Pressure Model

100-500 GPM

400-2000 LPM

80 PSI

5.5 BAR N/A

MAX-FLOW, 100 psi

Fixed Gallonage

500 GPM

2000 LPM

100 PSI

7 BAR N/A

Table 3.0

3.1 USE WITH SALT WATER

Use with salt water is permissible provided nozzle is thoroughly cleaned with fresh water after each use. The service life of the nozzle

may be shortened due to the e󰀨ects of corrosion and is not covered under warranty.

3.2 VARIOUS MODELS AND TERMS

Coupling

Stream Shaper

Standard / Low

Pressure Knob

(Max-Force Only)

Coupling

Stream Shaper

Manual Override

Knob

Standard / Low

Pressure Knob

(Max-Force ER Only)

ER Motor Assembly

Manual Version ER Version

Figure 3.2

3.2.1 MECHANICAL SPECIFICATIONS

Weight (Max-Force) 6.7 lb (3.0 kg)

(Max-Matic & Max-Flow) 6.5 lb (2.9 kg)

(Max-Force ER) 10.2 lb (4.6 kg)

(Max-Matic ER & Max-Flow ER) 10.0 lb (4.5 kg)

Standard Operating Pressure Varies by Model (see Table 3.0)

Maximum Fog Angle 100°

Operating temperature range of uid 33 to 120°F (1 to 50°C)

Storage temperature range -40 to 150°F (-40 to 65°C)

Materials used Aluminum 6000 series hard anodized MIL8625 class 3 type 2,

stainless steel 300 series, nylon 6-6, nitrile rubber

Table 3.2.1

©Copyright Task Force Tips LLC 2000-2020 LIM-025 June 23, 2010 Rev08

3.3 ELECTRIC INSTALLATION

Non-plug version of nozzles with electric stream shaper actuation are shipped with wiring diagram LIM-040. For plug version nozzle

installation, refer to LIY-500 Remote Control (RC) Monitor Electrical Controls (shipped with TFT Monitors or available at tft.com).

Max-series ER nozzles are equipped with manual override in case of electrical power failure.

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 ammable vapor buildup.

3.4 PATTERN CONTROL

Max-Series nozzles have full pattern control from straight stream to wide fog. The pattern can be adjusted using the linear actuator

either by electronic control or by twisting the OVERRIDE KNOB in either direction. Moving the STREAM SHAPER forward transitions

the SHAPER to the straight stream position. Moving the SHAPER rearward will result in an increasingly wider pattern.

For manually operated nozzles, 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.

Since the stream trim point varies with ow, the stream should be “trimmed” after changing the ow to obtain the straightest and

farthest reaching stream. To properly trim the stream, rst open the pattern to narrow fog. Then close the stream to parallel to give

maximum reach. Note: Turning the shaper further forward will cause stream crossover and reduce the e󰀨ective reach of the nozzle.

The nozzle reaction is greatest when the shaper is in the straight stream position. The nozzle operator must be prepared for a change

in reaction as the pattern is changed.

Care must be taken to avoid dents or nicks in the nozzle tip. Dents or nicks can seriously a󰀨ect the stream reach.

3.5 FLUSH CONTROL

Small debris passes through the debris screen (if so equipped) and may get caught inside the nozzle. This trapped material will

cause poor stream quality, shortened reach, and reduced ow.

To remove trapped debris, the ER nozzle can be ushed as follows: while still owing water, move the SHAPER rearward past the

full fog position until it stops traveling. This will open the nozzle allowing debris to pass through. Move the SHAPER forward and out

of the ush position to continue normal operation.

When used with a TFT RC Monitor equipped with Smart Stream technology, the Fog button must be pressed and held a second time

to reach the Flush position, shown in Figure 3. The purpose of the Smart Stream feature is to prevent unintentional ushing of the

nozzle, which will reduce reach and increase the ow rate, potentially depleting the water supply more quickly.

To remove small debris, the manually operated nozzle may be ushed as follows:

While still owing water, rotate the SHAPER counterclockwise (as viewed from behind the nozzle) to the ush position. (increased

resistance will be felt on the SHAPER as the nozzle goes into ush) This will open the nozzle allowing debris to pass through.

During ush the nozzle reaction will decrease as the pattern becomes wider and the pressure drops. The nozzle operator must be

prepared for an increase of nozzle reaction when returning the nozzle from the ush position to retain control of the nozzle.

Rotate the SHAPER out of ush to continue normal operations.

WARNING

Large amounts or pieces of debris may be unushable and can reduce the ow of the nozzle

resulting in an ine󰀨ective ow. In the event of a blockage, it may be necessary to retreat to a safe

area, uncouple the nozzle and remove debris.

3.6 STANDARD/LOW PRESSURE KNOB (MAX-FORCE)

For situations where 100 psi at the nozzle is impractical, the Max-Force dual pressure knob may be switched to low pressure mode.

In the low pressure mode, the nozzle pressure is reduced by about 50%, while maintaining a usable stream and increasing the ow.

The nozzle operator must be prepared for a change in reaction when changing modes.

To switch to the low pressure mode, shut o󰀨 water ow to nozzle and turn knob at front of nozzle counterclockwise (when viewed from

front). Nozzle will now operate at reduced pressure. Repeat the process, except turn knob clockwise, to return to 100 psi operation.

Knob In

Standard

Operating Mode

Knob In

Low Pressure

Mode

Figure 3.6

©Copyright Task Force Tips LLC 2000-2020 LIM-025 June 23, 2010 Rev08

4.0 USE OF MAX SERIES NOZZLES

IT IS THE RESPONSIBILITY OF THE INDIVIDUAL FIRE DEPARTMENT OR AGENCY TO DETERMINE PHYSICAL CAPABILITIES

AND SUITABILITY FOR AN INDIVIDUAL’S USE OF THIS EQUIPMENT.

Many factors contribute to the extinguishment of a re. Among the most important is delivering water at a ow rate su󰀩cient to absorb

heat faster than it is being generated. The ow rate depends largely on the pump discharge pressure and hose friction loss. It can be

calculated using a hydraulic equation such as:

PDP = NP+FL+DL+EL

PDP = Pump discharge pressure in PSI

NP = Nozzle pressure in PSI

FL = Hose friction loss in PSI

DL = Device loss in PSI

EL = Elevation loss in PSI

This Safety Manual is not intended as a substitute for proper training in the

use of rescue systems as taught from credible sources such as the National

Fire Protection Association

(NFPA), the International Fire Service Training Association

(IFSTA), or sources approved by the Authority Having Jurisdiction (AHJ).

5.0 FLOW CHARACTERISTICS

The following graphs show typical performance of the various models of Max Series nozzles.

100 PSI MAX-MATIC & MAX-FORCE

100

120

0 100 200 300 400 500 FLOW (GPM)

0 400 800 1200 1600 2000 FLOW (LPM)

LOW PRESSURE MODE

55 PSI (4 BAR)

100 PSI (7 BAR) MAX-FORCE

100 PSI (7 BAR) MAX-MATIC

OPERATING ENVELOPE

PER NFPA 1964

PRESSURE PSI

PRESSURE BAR

Figure 5.0A

80 PSI MAX-MATIC

100

120

0 100 200 300 400 500 FLOW (GPM)

0 400 800 1200 1600 2000 FLOW (LPM)

OPERATING ENVELOPE

PER NFPA 1964

80 PSI (5.5 BAR) MAX-MATIC

PRESSURE PSI

PRESSURE BAR

Figure 5.0B

100 PSI MAX-FLOW

100

120

0 100 200 300 400 500 FLOW (GPM)

0 400 800 1200 1600 2000 FLOW (LPM)

PRESSURE PSI

PRESSURE BAR

100 PSI (7 BAR) MAX-FLOW

Figure 5.0C

©Copyright Task Force Tips LLC 2000-2020 LIM-025 June 23, 2010 Rev08

5.1 STREAM TRAJECTORY DATA

Tables and graphs in this section give the stream trajectory for the Max Series nozzles at various ows.

Notes on trajectory graphs:

• Graphs show approximate e󰀨ective stream trajectory at 30 degrees elevation in no wind conditions. Distance to last

water drops approximately 10% farther.

• To estimate trajectories at elevations other than 30 degrees, refer to document LTT-135, available at tft.com

• Trajectories shown are for water. The addition of foam is expected to decrease the reach by 10%.

• Tail or head winds of 20 MPH (30 KPH) may increase or decrease the range approximately 30%.

• Stream trajectory based on “The Trajectories of Large Fire Fighting Jets” by A.P. Hatton and M.J. Osbourne, Reference:

“The International Journal of Heat and Flow”, Vol 1 No 1.

• Curves C, D, and E represent data for the 2000, 3000, and 4000 settings of the 100 psi selectable nozzle.

0 20 40 60

A B C D E

80 100 120 140 160 180 200 220 240 260 280 300

HORIZONTAL DISTANCE (FEET)

VERTICAL DISTANCE (FEET)

0 10 20 30 40 50 60 70 80 90

METERS

Standard 100 PSI / 7 BAR / 700 Kpa

CURVE

GPM

FLOW

100

200

300

400

500

LPM

FLOW

380

760

1100

1500

2000

LBS

REACTION

100

160

200

260

KGF

REACTION

120

CURVE

GPM

FLOW

100

200

300

400

500

LBS

REACTION

100

160

200

260

KGF

REACTION

120

Standard 100 PSI / 7 BAR / 700 Kpa

FIG 5.1 - Standard 100 PSI / 7 BAR / 700 Kpa

0 20 40 60 80 100 120 140 160 180 200 220 240 260 280 300

HORIZONTAL DISTANCE (FEET)

VERTICAL DISTANCE (FEET)

CDE

0 10 20 30 40 50 60 70 80 90

METERS

Low Pressure 55 PSI / 4 BAR / 400 Kpa

CURVE

GPM

FLOW

100

200

300

400

500

LPM

FLOW

380

760

1100

1500

2000

LBS

REACTION

110

160

260

KGF

REACTION

120

Low Pressure 55 PSI / 4 BAR / 400 Kpa

FIG 5.2 - Low Pressure 55 PSI / 4 BAR / 400 Kpa

CURVE

GPM

FLOW

100

200

300

400

500

LPM

FLOW

380

760

1100

1500

2000

LBS

REACTION

130

200

260

KGF

REACTION

120

0 20 40 60

A B C D E

80 100 120 140 160 180 200 220 240 260 280 300

HORIZONTAL DISTANCE (FEET)

VERTICAL DISTANCE (FEET)

0 10 20 30 40 50 60 70 80 90

METERS

Max-Matic 80 psi / 5.5 bar / 550 KpaMax-Matic 80 psi / 5.5 bar / 550 Kpa

FIG 5.3 - Max-Matic 80 psi / 5.5 bar / 550 Kpa

5.2 FLOW CHARTS

MAX-FORCE

MAX-MATIC 100 PSI

ON BLITZFIRE

PUMP PRESSURE (PSI)

2 ½” HOSE 3” HOSE

100 FT 150 FT 200 FT 300 FT 100 FT 150 FT 200 FT 300 FT

100 140 130 120 110 150 140 140 130

125 270 230 210 180 460 310 280 250

150 460 350 300 260 500 490 470 400

175 500 460 400 320 --- --- --- 480

200 --- 500 470 380 --- --- --- ---

FLOWS IN GPM

Figure 5.2A

MAX-FORCE

LOW PRESSURE

SETTING

ON BLITZFIRE

PUMP PRESSURE (PSI)

2 ½” HOSE 3” HOSE

100 FT 150 FT 200 FT 300 FT 100 FT 150 FT 200 FT 300 FT

100 380 350 320 270 410 400 390 370

125 420 400 370 330 460 450 430 410

150 460 430 410 370 500 490 470 450

175 500 470 440 400 --- --- --- 480

200 --- 500 470 430 --- --- --- ---

FLOWS IN GPM

Figure 5.2B

MAX-MATIC 80 PSI

ON BLITZFIRE

PUMP PRESSURE (PSI)

2 ½” HOSE 3” HOSE

100 FT 150 FT 200 FT 300 FT 100 FT 150 FT 200 FT 300 FT

100 310 250 230 190 410 390 350 280

125 420 380 330 270 470 450 440 410

150 460 430 410 340 500 490 480 450

175 500 470 440 390 --- --- --- 480

200 --- 500 470 430 --- --- --- ---

FLOWS IN GPM

Figure 5.2C

MAX-FLOW 100 PSI

ON BLITZFIRE

PUMP PRESSURE (PSI)

2 ½” HOSE 3” HOSE

100 FT 150 FT 200 FT 300 FT 100 FT 150 FT 200 FT 300 FT

100 380 360 340 300 420 400 390 370

125 430 400 380 340 470 450 440 410

150 470 440 410 370 --- 500 480 450

175 500 470 440 400 --- --- --- 490

200 --- 500 480 430 --- --- --- ---

FLOWS IN GPM

Figure 5.2D

NOTES: 1) Number in each box indicates ow in gpm.

2) Flows may vary with brand and condition of hose.

3) Flows are approximate and include device loss for Blitzre.

4) Flows are approximate and do not reect losses in pump piping or elevation changes.

5) Nozzle reaction can be as high as 250 lbs. (500 gpm + 100 psi)

6.0 USE WITH FOAM

The nozzle may be used with foam solutions. Refer to re service training for the proper use of foam.

WARNING

For Class B res, 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 specic 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 re service training as directed by

the AHJ.

6.1 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 specic information, see LIA-025 (MANUAL: Foam Attachments for TFT Nozzles).

7.0 WARRANTY

Task Force Tips LLC, 3701 Innovation Way, Valparaiso, Indiana 46383-9327 USA (“TFT”) warrants to the original purchaser of

its products (“equipment”), and to anyone to whom it is transferred, that the equipment shall be free from defects in material and

workmanship during the ve (5) year period from the date of purchase. TFT’s obligation under this warranty is specically limited to

replacing or repairing the equipment (or its parts) which are shown by TFT’s examination to be in a defective condition attributable to

TFT. To qualify for this limited warranty, the claimant must return the equipment to TFT, at 3701 Innovation Way, Valparaiso, Indiana

46383-9327 USA, within a reasonable time after discovery of the defect. TFT will examine the equipment. If TFT determines that

there is a defect attributable to it, TFT will correct the problem within a reasonable time. If the equipment is covered by this limited

warranty, TFT will assume the expenses of repair.

If any defect attributable to TFT under this limited warranty cannot be reasonably cured by repair or replacement, TFT may elect to

refund the purchase price of the equipment, less reasonable depreciation, in complete discharge of its obligations under this limited

warranty. If TFT makes this election, claimant shall return the equipment to TFT free and clear of any liens and encumbrances.

This is a limited warranty. The original purchaser of the equipment, any person to whom it is transferred, and any person who is

an intended or unintended beneciary of the equipment, shall not be entitled to recover from TFT any consequential or incidental

damages for injury to person and/or property resulting from any defective equipment manufactured or assembled by TFT.

It is agreed and understood that the price stated for the equipment is in part consideration for limiting TFT’s liability. Some states do

not allow the exclusion or limitation of incidental or consequential damages, so the above may not apply to you.

TFT shall have no obligation under this limited warranty if the equipment is, or has been, misused or neglected (including failure to

provide reasonable maintenance) or if there have been accidents to the equipment or if it has been repaired or altered by someone

else.

THIS IS A LIMITED EXPRESS WARRANTY ONLY. TFT EXPRESSLY DISCLAIMS WITH RESPECT TO THE EQUIPMENT ALL

IMPLIED WARRANTIES OF MERCHANTABILITY AND ALL IMPLIED WARRANTIES OF FITNESS FOR A PARTICULAR PURPOSE.

THERE IS NO WARRANTY OF ANY NATURE MADE BY TFT BEYOND THAT STATED IN THIS DOCUMENT.

This limited warranty gives you specic legal rights, and you may also have other rights which vary from state to state

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