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©Copyright Task Force Tips  LLC  2020 

LIM-032 February 18, 2020 Rev00

2

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

fi

 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

fi

 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

fi

 eld, MA  01940 • www.FEMSA.org

Additional information is published in LIY-500 

Remote Control (RC) Monitor Electrical Controls.

©Copyright Task Force Tips LLC  2008-2019 

LIY-500 April 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 Task Force Tips, Inc. 2009 

LTT-135 July 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 

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°

-

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)

Hei

g

ht Fact

or (compared t

o

 30° el

evati

on)

height of
discharge

IF TARGET IS IN THIS REGION, 

FLOW AND/OR PRESSURE MUST 

BE INCREASED.

LIY-500 Remote Control (RC)

Monitor Electrical Controls

LTT-135 Nozzle Trajectory

Elevation Factors

Summary of Contents for Masterstream 4000 ER AUTOMATIC

Page 1: ...sonnel 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 familiari...

Page 2: ...face 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...

Page 3: ...0 NOZZLE OPERATION 5 1 AUTOMATIC NOZZLE OPERATION 5 2 SELECTABLE NOZZLE OPERATION 5 3 FLOW SELECTION 6 0 FLOW CHARACTERISTICS 6 1 MASTERSTREAM 4000 ER AUTOMATIC 6 2 MASTERSTREAM 4000 ER SELECTABLE 6 3...

Page 4: ...e 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 confirmed...

Page 5: ...ies deluge nozzles have a clean far reaching straight stream capability and are available with automatic pressure control or selectable gallonage While flowing the stream pattern can be varied from wi...

Page 6: ...reasingly wider pattern Since the stream trim point varies with flow the stream should be trimmed after changing the flow to obtain the straightest and farthest reaching stream To properly trim the st...

Page 7: ...may take as long as half a minute after a change in inlet pressure 5 2 SELECTABLE NOZZLE OPERATION A selectable nozzle has several discharge orifices that can be set to a user selected position In eac...

Page 8: ...ING 80 psi SETTING 120 psi SETTING MASTERSTREAM 4000 ER AUTOMATIC 8 bar 7 bar 6 bar Figure 6 1 6 2 MASTERSTREAM 4000 ER SELECTABLE The Masterstream 4000 ER Selectable nozzle allows the user to select...

Page 9: ...ish units gpm inches psi F 667 for metric units l min mm bar Note 1 bar 100 kPa Qsmooth flow in gpm or l min D exit diameter in inches or mm Ppitot pitot pressure in psi or bar Q F x D P smooth pitot...

Page 10: ...e nozzle CURVE A B C D E gpm FLOW 600 1000 2000 3000 4000 lbs REACTION 280 470 950 1400 1900 CURVE A B C D E l min FLOW 2300 3800 7600 11000 15000 kgf REACTION 130 210 430 640 860 0 10 20 30 60 80 100...

Page 11: ...arefully unscrew and remove the ba e and orifice control components 4 Remove flush debris 5 Reassemble the nozzle Figure 7 0 shows the pieces that are removed during the flush procedure for automatic...

Page 12: ...0 18 SHAPER GUIDE 1 MT612 19 CAM ROLLER 4 MT503 20 CAM SCREW 4 MT513 21 WEAR STRIP 1 MT502 22 SHAFT CENTER SUPPORT 1 MT614 23 O RING 438 1 VO 438 24 BARREL CONE 1 MT621 25 CUP SEAL 1 MT515 26 WEAR STR...

Page 13: ...2 ACTUATOR MOUNT 1 MT623 13 1 4 28 X 3 4 SOCKET HEAD CAP SCREW 3 VT25 28SH750 14 10 32 X 1 1 4 SOCKET HEAD CAP SCREW 4 VT10 32SH1 2 15 ACTUATOR SUBASSEMBLY 1 Y7230 16 PINCH GUARD 1 MT625 17 10 32 X 1...

Page 14: ...ge 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 orig...

Page 15: ...f the silicone grease Once Break Free CLP is applied re application will be needed on a regular basis until the nozzle can be returned to the factory for a complete checkup and relubrication with sili...

Page 16: ...ING PLACED BACK IN SERVICE nozzles must be inspected to this checklist 1 All controls and adjustments are operational 2 Shut o valve if so equipped closes o the flow completely 3 There are no broken o...

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